cctv camera technical specs

Section D: TECHNICAL SPECIFICATIONS

SPECIFICATIONS OF INTEGRATED SECURITY SYSTEM

I. CCTV System:

System Design And Architecture

CCTV system should be designed such as to cover the strategic locations and sensitive areas of Rabindra Bhavana, Kala Bhavana and Heritage Buildings for comprehensive surveillance and monitoring from central control room within Rabindra Bhabana premises.. High end cameras with Day/Night features to be installed for outdoor and perimeter security application, these cameras shall be IR Compatible so that IR Lamps can be introduced at a later stage to enhance night vision. All Speed domes shall be rugged and shall be weather proof as per specifications. The fixed dome cameras shall necessarily be of Varifocal / fixed lens as per detailed specifications. Day/Night Cameras with built in zoom lenses shall be provided for select indoor/outdoor locations as per the detailed BOQ. Also the systems should utilize only industry standard protocol.

System should be programmed such that operator’s intervention if required shall be minimal and the system should provide features like guard tours, preset positions and the preset positions will be linked to perimeter protection system/intrusion system in future. The DVR’s should allow for recording of events both continuous and motion triggered as per requirement and recordings should be able to create evidences and support post event analysis. All Cameras, DVR and Matrix System must be of the same make 1. Fixed Dome with Varifocal Lens: 1.1 General Requirements

• The product specified shall be a fixed dome, 480 TVL high resolution color camera using a 1/3 inch format interline Super HAD CCD imager (795h x 596v effective pixels) prepackaged in an a dome on a molded PC/Acryl housing, and comes complete with a 4.0~9.0 mm varifocal DC iris lens. The Camera should be CE/FCC Certified.

• The camera specified shall be easily surface mounted on ceilings or walls and provide manually adjustable viewing positions of 360° pan and 65° tilt position.

• The Camera should work with minimum illumination of 0.5 lux @ F1.2, 30 IRE, AGC

• The cameras shall provide high picture quality through Digital signal processing and real color picture through ATW.

• The cameras shall operate within the voltage range of 12VDC (8~18 V) and require maximum 70mA current drain.

1.2 Electrical Specifications:

• Voltage range: 8 to 18 VDC.

of 78 Signature of Tenderer w/Seal


• Composite Video Output: 1.0 Vp-p, 75 ohms. • Resolution: Horizontal: 480 TVL. • Backlight compensation: Selectable On/Off through DIP switch. • Sync: Internal crystal-lock • Imager: 1/3-inch, interline Super HAD CCD • Signal to noise ratio: More than 48 dB at AGC off. • Electronic Shutter: 1/50 to 1/100,000 sec. • White balance: Automatic

1.3 Mechanical Specifications:

• Connectors: Video Out: BNC. Power: DC Jack type • Horizontal Adjust Angle: 0°~360°; Vertical Adjust Angle: 0°~60°

1.4 Environmental Specifications:

• Temperature: 1) Operating: -10°C to +55°C 2) Storage: -20°C to +70°C • Humidity: 0% to 90% RH, non-condensing.

2. Day/Night Fixed Camera with Varifocal Lens C/CS Mount in Housing 2.1 General Requirements

• The High-Resolution True Day Night Camera shall include, as a minimum, the following features/functions/specifications and CE/FCC certified: • High performance, ultra miniature, high-resolution digital low light CCD color

camera with 0.5 lux low light sensitivity in color mode, and 0.06 lux low light sensitivity in “night” mode.

• The High-Resolution True Day Night Camera shall incorporate a 1/3- inch interline transfer CCD, digital signal processing (DSP), and a minimum of 480 TV lines of resolution utilizing an effective pixel count of no less than 752 (H) x 582 (V) PAL.

• The High-Resolution True Day Night Camera shall provide excellent color performance in low light, down to 0.5 lux @ f1.2 (50IRE). The camera shall incorporate advanced circuitry allowing for automatic changeover to monochrome, providing monochrome performance in extremely low light down to 0.06 lux @ f1.2 (50IRE). • For extreme lighting situations, the camera shall support the use of DC and Video

iris lenses, selectable by a switch on the unit. • The High-Resolution True Day Night Camera shall include a switching

12VDC/24VAC power supply with adjustable linelock (from 0º to 280º) and internal sync mode.

• The High-Resolution True Day Night Camera shall provide digital backlight compensation with six (6) sensing zones to electronically compensate for the background lighting and give detail which would normally be silhouetted. To allow



the most suitable area to be selected, the user shall have the ability to activate the zones individually, or in any combination of the six zones.

• The High-Resolution True Day Night Camera shall have a signal to noise ratio of 50 dB with the AGC off.

• The High-Resolution True Day Night Camera shall incorporate auto white balance to constantly monitor the light and adjust its color. The following three modes must be available: Auto-White Balance (WB-Auto), Preset White Balance (WB-Push), Manual White Balance (WB-Manual)

• To allow the image to be viewed properly on a standard monitor, the High-Resolution True Day Night Camera’s default gamma value must be 0.45.

• The High-Resolution True Day Night Camera shall include a Flickerless mode, allowing the unit to be used in applications with 50Hz fluorescent lighting.

• The High-Resolution True Day Night Camera shall offer a menu system capable of activating all the features and options available on the camera. • The High-Resolution True Day Night Camera shall include a movable IR cut filter

that blocks IR light at wavelengths longer than 750nm when the filter is in front of the CCD sensor, and allows the IR light to be incident on the CCD when the filter is removed from infront of the CCD.

• The High-Resolution True Day Night Camera shall include wired remote control of the camera via RS485 communication. The RS485 communication shall allow remote

control of the functions that are accessible via the OSD Screen Display. 2.2 Mechanical Specifications The High-Resolution True Day Night Camera must have the following mechanical specifications: 1. Video Output..............................BNC connector 2. Power Input................................ 3-pin push terminal 3. Auto Iris Output ......................... 4-pin standard jack 4. Lens Mount ................................ C/CS 2.3 Electrical Power Requirements The High-Resolution True Day Night Camera must have the following electrical specifications: 1. Voltage (+/-10%) ........................24VAC/12VDC 2. Power Indicator........................... Green LED 2.4 ENVIRONMENTAL CONDITIONS The High-Resolution True Day Night Camera shall be designed to meet the following environmental conditions: 1. Operating Temperature .............. 14° to 122° F (-10° to 50° C) 2. Operating Humidity ...................<85% 3. Storage Temperature.................. -4° to 140° F (-20° to 60° C) 4. Emissions ................................... FCC: Part 15, Class A



2.5 Lens: • Focal Length (mm) : 5 ~ 50 (10x) • Iris Range : F1.6 ~ T360 (Equivalent to F360) • Angle of View (H X V) 1/3”

WIDE : 51˚17’ X 39˚36’ TELE : 5˚30’ X 4˚07’

• Focusing Range (From Front Of Lens) (m) : ∞ ~ 0.3 • Back Focal Distance (In Air) (mm) : 7.52 (W) - 7.46 (T) • Mount : CS • When power is turned off, iris will automatically be closed.

2.6 Housing: The Environmental Camera Housing shall include, as a minimum, the following features/ functions/ specifications:

• The Environmental Camera Housing shall incorporate a side-hinged lid to provide easy access to the camera and lens for trouble-free installation and servicing.

• The Environmental Camera Housing shall be constructed from light gray epoxy powder coated die-cast, extruded, and sheet aluminum to provide an excellent barrier against outdoor environments.

• The Environmental Camera Housing shall be totally protected from dust and strong jets of water, and must have an International Standards IP Protection Classification of sixty- six (IP66).

• The Environmental Camera Housing shall utilize three (3) weatherproof cable entry glands on the rear of the housing to allow for easy installation of power and video cables. • The Environmental Camera Housing manufacturer shall offer the housing with

factory installed sunshield, heater, and blower and prepackaged with a wall mount. • The Environmental Camera Housing shall have a removable camera sled that can be secured along any position in the housing. • The Environmental Camera Housing shall have the following electrical

specifications: 1. Input Voltage...................................24VAC 2. Power:

a. Housing ..............................Camera power b. Heater..................................20 watts c. Blower.................................3.4 watts

• Operating Temperature: Housing..............-4° to 140°F (-20° to 60°C) 3. Speed Dome Camera 25x 3.1 GENERAL REQUIREMENTS

• The product specified shall be a high speed domed camera system available in pendant or suspended ceiling mounted versions designed for indoor and outdoor surveillance applications. The camera system consists of an integrated Super HAD



color CCD camera with a 1/4-inch imager and a 25X (Color, F=1.6 to 3.7, 3.8 mm to 95 mm) auto-iris, auto-focus zoom lens; a variable/high speed, 360( pan/tilt unit; and an intelligent, integral receiver/driver with RS485/422. Camera should be CE/FCC certified.

• The camera shall have built-in multi protocol for easy interface with DVR or Matrix switcher systems. It should also support selectable cameras address at least up to 999.

• The camera shall be compatible with Switcher/Controller variable speed keyboard. • The camera shall be equipped with an 25x optical zoom lens and 10x digital zoom facility. • The camera shall allow the storage of up to 240 preset scenes with each preset programmable for 16 character titles. Eight (8) guard tours shall be available to consecutively display each of the preset scenes for a programmed dwell time. Also a facility of storing 4 user control patterns in the memory. • The camera shall Alarm inputs facility to interface with external devices etc as per the

application. There should be minimum 8 alarm inputs and 2 alarm programmable outputs.

3.2 Camera Specifications

• Imager: 1/4 inch Super HAD color CCD (PAL: 752H x 582V)

• Horizontal Resolution: 460 TVL • Lens: 25x optical zoom with auto focus (F=1.6 to 3.7, 3.8 mm to 95 mm)

Digital Zoom: 10x

3.3 Electrical Specifications • Power: 18~30 VAC, 24 VAC Normal, 850mA, Built-in power line surge circuit • Video output: 1.0Vp-p ± 0.1Vp-p, 75 ohms. • Sensitivity: 1.0 lx (Color/day), 0.1 lx (B&W/Night) and 0.01 lx (Digital Slow Shutter) • Signal to Noise Ratio: Greater than 48 dB.

3.4 Mechanical Specifications

• Pan: Turbo speed 360°/sec; 01(~90(/sec variable speed pan; • Tilt: Degree 0(~180(, Speed 0.1(~90(/sec according to zoom ratio • Pre-position speed: 380(/sec.

3.5 Environmental Specifications • Humidity: Under 90% RH non-condensing. • Operating temperature: Indoor: 0(C to +50(C; • Storage temperature: -20(C to +60(C

4. Vandal Proof Fixed IR Dome Camera • Vandal Proof Dome Camera • High resolution 480 TV Lines • 1/3” IT color SONY super HAD CCD



• 0 lx with IR Lamp on • Camera picture mode change with built-in CDS sensor • Real color picture through ATW • Signal to Noise ratio : more than 48dB • Automatic Back Light Compensation • 8 step Shutter speed control • Video Out : Composite(1.0Vp-p), 75 Ω • Picture Elements: PAL : 795(H) x 596(V) • Horizontal Resolution : 480 TV Lines • Minimum Illumination : 0 lx, IR Lamp On • Electronic Shutter : PAL : 1/50 ~ 1/100k • Signal-to-Noise Ratio : More than 48dB (AGC Off) • AGC(Automatic Gain Control) : ON / OFF selectable • White Balance: Auto (Dip switch Select Auto/Manual) • BLC: ON / OFF selectable • Connector : Power input : Jack type; Video Out : BNC • Operating Temperature : -10°C to 50°C • Storage Temperature : -20°C to 70°C • Humidity : Under 80% RH (non-condensing) • Certification FCC, CE

5. Fixed Dome Camera 5.1 Key Features:

• 1/3” Color CCD • Minimum illumination 0.5 lx • High resolution 480 TV Lines • High resolution picture quality through Digital Signal Processing • High S/N ratio, more than 48dB • True Color Reproduction through Various White Balance • Mirror Mode

5.2 Specifications:

• Pick-up Device .............................................1/3” Color CCD, 410k Pixels • Effective Pixels ............................................ 752(H) x 582(V) • Television System ........................................ PAL, 625 TV Lines, 2:1 Interlace • Sync System ..................................................Internal • Horizontal Resolution ................................480 TV Lines • Minimum Illumination ...............................0.5 lx (F1.2, 30IRE, AGC On) • Shutter Speed ............................................... 1/50 ~ 1/100k • S/N Ratio .....................................................More than 48dB (AGC off) • AGC ..............................................................On • White Balance ..............................................Auto



• BLC ...............................................................ON / OFF • Mirror ............................................................ON / OFF • Video Output ...............................................Composite (1.0Vp_p),75 • Power Source ...............................................DC12V • Operating Temperature ..............................-10°C ~ +55°C • Operating Humidity ....................................90% RH (non-condensing) • Storage Temperature ...................................-20°C ~ +70°C • Lens Mount ..................................................3.6 mm • Horizontal Adjust Angle ............................0°~ 360° • Vertical Adjust Angle ..................................0°~ 65° • Certification ..................................................FCC, CE

6. Fixed Dome Day / Night Camera: 6.1 Key Features:

• High resolution 550 TV Lines • 1/3” Color CCD • Minimum illumination: 0.04 lx • True Day & Night • Real color picture through ATW • Signal to Noise ratio: more than 46dB • Automatic Back Light Compensation • Fixed and DC type Vari-focal Lens Support

6.2 Specifications

• Pick-up Device .............................................1/3" Color CCD • Video Out .....................................................Composite (1.0Vp-p), 75 ohm • Picture Elements .........................................PAL: 795(H) X 596(V) • Sync. System .................................................Internal (DC12V) • Horizontal Resolution ................................550 TV Lines • Minimum Illumination ...............................0.04 lx (F1.2, 30 IRE, without LED, B/W) • Lens Type Fixed Lens ................................. 3.8mm / 6.0mm • Electronic Shutter .......................................PAL : 1/50 ~ 1/100k • Signal-to-Noise Ratio ..................................More than 46dB (AGC Off) • AGC (Automatic Gain Control) ...............ON / OFF selectable • White Balance ..............................................Auto (Dip switch Select AUTO/Manual) • BLC ...............................................................ON / OFF selectable • Power Requirements ...................................DC12V • Video out ...................................................... BNC • Operating Temperature ..............................-10°C to 50°C • Storage Temperature ...................................-20°C to 70°C • Humidity .......................................................Under 80% RH (non-condensing) • Certification ..................................................FCC, CE



7. Outdoor pendant type Housing with sun shield, heater and blower

• Outdoor housing with sun shield, fan & heater • Protection against rain and wind (IP66) • Operating Temp. : -50°C to 50°C

8. Indoor pendant type housing

• Indoor housing • Protection against rain and wind (IP66)

9. Matrix System: 9.1 System Description

• The Video Matrix Switch (VMS) shall consist of software and hardware components that provide monitoring and control of the video surveillance of a protected premise. The VMS shall be capable of providing video surveillance of multiple premises and operating with or without the VMS PC connected to the hardware components. The VMS shall be capable of monitoring alarm inputs and controlling relay outputs. Modular hardware architecture shall allow maximum versatility for tailoring secure and dependable video surveillance solutions for all size facilities.

• The VMS shall be designed to be fully scalable, offering capabilities and capacities to support a wide variety of applications. The VMS, in a single CPU system, shall

support up to 4080 inputs and 256 outputs interconnected in multiple racks. • System expansion for multi-site operation shall be achieved by the satellite of

multiple systems. • All operating characteristics of the system shall be contained in the VMS CPU and

shall not require the presence of a PC for the continued operation of the system. • The VMS shall be designed to specifically address a high-density, compact size thus

reducing the amount of space required and minimizing the number of interconnections.

9.2 System Computer The CCTV Server PC shall be, at a minimum: 1. Pentium III. 2. 256 KB RAM. 3. 50 MB of available hard drive space. 4. SVGA Monitor—800 x 600, 256 colors or better. 5. 1.44 MB Floppy drive and CD-ROM drive. 6. Keyboard and Mouse. 7. One (1) available serial port (for connection to CPU). 8. Network Interface card 10/100 Base T. 9. Video Capture card—Hauppage WIN TV or equivalent—for display of live video on the desktop. 10. Internal Modem—equivalent to US Robotics Data/Fax modem.



11. The CCTV Server PC Operating System shall be Windows XP

9.3 System Software VMS Configuration Software.

• Shall be 32-bit application software and shall be compatible with Windows XP. It shall provide easy-to-use programming for system configuration. The configuration software shall allow the operator to manage the VMS by communicating with a single VMS CPU. It shall be permissible to use multiple copies of the configuration software, without special license or software keys.

• It shall be required to log on by entering a unique password. • The VMS shall use a 32-bit, ODBC-compliant, Borland Paradox 7.0 database. • The configuration software shall enable the Administrator to edit operating

parameters as described in this specification. • Entering data into the required fields shall perform database edits. Interactive • Help text shall be available for operator prompt. • For ease of system configuration, it shall be possible to enter parameters directly into

the database table. System Configuration shall include, but not be limited to, the following functions:

• System Size – it shall be possible to set parameters for the system size to reduce the amount of time for upload/download of database. Sizing shall be possible for Video Inputs, Audio Inputs, Video Outputs, Audio Outputs, Users, Keyboards, Alarm Inputs, Sequences, Groups, and Scenes.

• Communications – it shall be possible to set the communication port and applicable speed, or to select a network address directly from the configuration window.

• Video Inputs – it shall be possible to: a. Select a different logical number for a physical input thus allowing for a different logical order than the arrangement of the physical inputs. b. Select the type of input – Static Camera, High-speed Dome, or PTZ telemetry receiver. c. Select an Audio Input that will be switched at the same time that the Video Input is switched. d. Enable a Video Loss event and associate this with a Sequence. e. Enable a Video Restore event and associate this with a Sequence. The

sequences for the Video Loss and Video Restore events shall be different sequences. f. Assign a title to the input. The title shall be, at minimum, 24 characters and its position on-screen shall be selectable. Selections for the characters shall include size, brightness, and foreground/background framing.

• Video Outputs – it shall be possible to: a. Select a different logical number for a physical output thus allowing for a different logical order than the arrangement of the physical outputs. b. Select an Audio Output that will be switched at the same time that the Video Output is switched.



• Scenes – shall consist of four Views. Each View may be configured for a specificcamera and/or a specific preset. Specific Audio Inputs may be associated with each View. The Scenes shall be named.

• Groups – shall be associated with up to 128 Scenes. The Groups shall be named; and this name shall appear on the keyboard LED display when Groups are selected.

• Alarm Inputs – shall be associated with a physical input. Physical inputs shall be terminations on the main Input/Output terminals or on remotely located I2C Input/Output terminals. There shall be up to 256 Alarm Inputs.

a. It shall be possible to enable/disable the alarm. b. It shall be possible to enable the alarm to activate on contact opening and

associate this event with a Sequence. c. It shall be possible to enable the alarm to activate on contact closing and

associate this event with a Sequence. • Users – shall be configured to restrict access and shall be:

a. Assigned a unique password. b. Individually enabled or disabled. c. Assigned a date on which the privileges will expire. d. Assigned to specific functions, which shall include/exclude PTZ control, editing presets, VCR control and controlling Sequences. e. Restricted as to which inputs, outputs, and keyboards they may have access.

• Keyboards – each keyboard shall be configured to restrict access. a. Security shall be enhanced by implementing the rule that access levels be

created for both the User and the Keyboard. Camera access and monitor access shall be set up BOTH for users and keyboard control locations. At the time that a user logs in, the system shall combine the access level (camera and monitor) for the user and the logged-in keyboard location. This combined access level shall limit which matrix switch operations shall be allowed. b. Keyboards shall be assigned a priority. Keyboards of a higher priority shall have precedence over keyboards of lower priority. c. Keyboards shall be capable of being assigned a dedicated monitor in addition to the monitor selected by the user. Every video switch operation performed on the keyboard will additionally cause the input to be copied to the dedicated monitor. d. Keyboards may be assigned to specific functions, which shall include/exclude PTZ control, editing presets, VCR control, and controlling sequences. e. Keyboards shall have a minimum of 4 and up to 16 user-defined Keys.

• User-Defined Keys – can be programmed to initiate a Sequence or call-up a Group/Sequence.

• Time of Day events shall be configured to automatically initiate a Sequence. The event shall be named and shall be:

1) Programmed to operate on any selected day of the week, everyday, weekends only, or weekdays only.

2) Initiated at a specific and selectable Time of Day. 3) Prioritized such that an event of higher priority has precedence.



4) Enabled or disabled without changing the Time of Day parameters. • Text Messages of up to 24 characters shall be configured and shall be used for display on keyboards or on-screen displays. It shall be possible to simultaneously display multiple text messages using on-screen displays. • Sequences shall be configured and shall be available for use by the system on

Event/Action, Time of Day schedule, or Manual Command. a. There shall be a minimum of 1024 sequences available. b. There shall be a minimum 25 steps available in each sequence. c. Each step shall consist of a command selected from a list of available commands. The commands shall cover all aspects of system operation and shall include conditional commands. Each step shall consist of multiple parameters.

• Downloading – it shall be possible to download parts of, or all, the database from the Configuration Software to the VMS CPU.

• Uploading – it shall be possible to upload parts of the database from the VMS CPU to the Configuration PC.

9.4 VMS Graphical User Interface.

• A Graphical User Interface (GUI) shall be implemented to assist the user in the operation of the system.

• Windows Bitmap, Windows Metafile, or Windows Enhanced Metafile formats. • Maps shall be linked such that different areas or zoomed areas can be selected. • The GUI shall be installed on multiple workstations using standard TCP/IP network

connectivity to the CCTV Server. • Icons representing, Cameras, High-speed Domes, Monitors, Multiplexers, VCRs,

Alarm Inputs, Control Outputs, Sequences, Executable Programs and other objects shall be selected from a standard library of such icons and placed on the plan.

• It shall be possible to create new icons and add them to the standard library. • The icons shall be positioned by simple “drag and drop” technique or shall be

precision positioned by entering specific x and y co-ordinates. • It shall be possible to lock the icon in place. • Icons shall be active and shall functionally control the objects they represent.

9.5. CCTV Server. The CCTV Server shall provide TCP/IP network connectivity for the GUI workstations and it shall:

Show the number of connected workstations, their address, and workstation name. Log all system activity including operator-initiated commands. Such log shall detail

time and date, user names, keyboard address, command, and command parameters. 9.6 System Chassis

• The Matrix Chassis (chassis) shall fit in an industry standard 19” rack and shall not exceed 10” in depth.

• The chassis shall be manufactured from stainless steel



• The chassis shall accommodate the VMS modules, which shall include, CPU Module, Video Input Modules (VIM), Video Output Modules (VOM), Audio Modules (AIM), Audio Output Modules (AOM), Chassis Interlink Modules (CIM).

• The modules shall be position independent and shall be: a. Removed and replaced with power on the system—hot swappable. b. Easily installed or removed from the front of the chassis.

• Include ventilating fans to ensure operating reliability in ambient temperatures of up to 40 degrees Celsius.

• A backplane shall distribute power, control signals and video/audio signals, and shall support 64 Video/Audio (mixed) signals (Video/Audio Outputs).

• Field Termination Panels shall be mounted on the rear of the chassis. • Matrix Chassis Power Supply.

a. The Matrix Chassis Power Supply (power supply) shall provide unregulated DC power for distribution through the backplane to the installed modules. b. The power supply shall be connected directly to an Uninterrupted Power Supply (UPS) on the main building power. c. The power supply shall have connections to allow the system to be powered from an additional power source, either 12 to 24 VAC or 12 to 30 VDC. d. The power supply shall include front LED display for backplane Transmit and Receive data, Reset status, and Video Synchronization. e. The power supply shall include the capability to generate video synchronization or to be externally synchronized. 9.7 Video Matrix System CPU.

• The VMS shall be controlled by a single CPU. • The CPU shall be installed in the Matrix Chassis and occupy no more than 1/2U

(0.875”) height, and shall have capability of supporting multiple matrix chassis using Interlink Modules up to 15 matrix chassis shall be supported by a single CPU.

• The Operating System program shall be stored in the CPU, and shall not require the presence of a PC for operation.

• All configuration data shall be stored in non-volatile memory and shall be retained through power-loss for up to 1 month.

• The CPU shall include a watchdog timer and supply voltage monitor to automatically restart the system in the event of supply brownouts.

• The CPU shall include communication ports: a. An RS232 port for connectivity to CCTV Server. b. An RS232 port for connectivity to a third party system, such as Access Control, to allow for control of the VMS from that third party system c. A minimum of two (2) RS422 ports that shall connect to various keyboards or control devices. These ports shall use the native protocol of the VMS.

• The CPU shall include an Alarm/Relay Termination Box (ATB). a. The ATB shall accept up to 32 potential free change-of-state inputs from

connected devices.



b. The ATB shall provide 4 Relay Outputs. The relays shall be rated at 30 VDC at 1 amp or 24 VAC at 0.5 amp.

• The CPU shall have Alarm Input and Control Output expansion ports that shall utilize external and remotely located Input and Output modules. The capacity shall be increased to 256 Inputs and 256 Outputs.

• The CPU shall include a diagnostic mode that shall be available without the requirement for attached computers or special tools.

a. A BNC connector on the CPU shall allow connection to a video monitor and the diagnostic screens shall be displayed on this monitor. b. Pushbuttons on the CPU shall allow access to select various diagnostic screens. c. The diagnostic screens shall display real-time information of system

configuration, baud rates, video input present, matrix switching (input to output), alarm input status, keyboard status, and other configurations

9.8 Video Input Module.

• The Video Input Module (VIM) shall be installed in the Matrix Chassis. • The VIM shall support up to 16 video input connections on BNC connectors. An • option shall be available whereby the Terminal Connector may have looping inputs. • The VIM shall route any of the video inputs to 1 or more of the backplane channels. • The VIM shall have front panel gain adjustment. • The VIM shall have reasonable protection against over-voltages. • The VIM shall have Video Loss detection. • LED indication shall be provided for power and receive data.

9.9 Video Output Module.

• The Video Output Module (VOM) shall be installed in the Matrix Chassis • The VOM shall support up to 16 video output connections on BNC connectors. • The video output signal shall be associated with one of the backplane channels. • The VOM shall have front panel gain adjustment. • 6. The VOM shall have reasonable protection against over-voltages. • LED indication shall be provided for power. • The VOM shall provide 24 text characters, which shall be positioned on any one of

12 lines. It shall be possible to position the date and time on a separate line to the caption. System messages may be used to superimpose multiple lines of additional text.

• The VOM shall include a real-time clock and shall generate time and date text characters. 9.10 Chassis Interlink Modules.

• The system shall have the capability to interconnect multiple chassis. • Chassis Interlink Modules shall provide the link between chassis. Remote chassis shall be connected via standard video signal using BNC connection.

Such remote connectivity may utilize various types of connectivity based on the system layout.



9.11 Audio Input Modules.

• The Audio Input Module (AIM) shall be installed in the Matrix Chassis. • The AIM shall support up to 16 audio input connections on removable terminal

blocks. • The AIM shall support balanced or single-ended audio inputs. • The AIM shall route any of the audio inputs to 1 or more of the backplane channels. • The AIM shall have reasonable protection against over-voltages. • LED indication shall be provided for power and receive data.

9.12 Audio Output Modules.

• The Audio Output Module (AOM) shall be installed in the Matrix Chassis • The AOM shall support up to 16 audio output connections on removable terminal

blocks. • The AOM shall support balanced or single-ended audio outputs. • The audio output signal shall be associated with one of the backplane channels. • The AOM shall have reasonable protection against over-voltages

9.13 Programmable Control Keyboards.

• The Keyboards shall be located as specified by the owner and shall provide full • control of the matrix switching, Pan Tilt Zoom (PTZ) control, control of

Multiplexers, and other devices. • The Keyboards shall connect to the system using RS422 communication and may be

connected either locally or remotely. • The Keyboards shall receive power from the VMS CPU or shall be powered from local power supplies depending on the configuration. • The Keyboard shall have a high-brightness LED, alpha numeric, 16 characters display. • Various models of Keyboards shall be available based on the functionality required.

Options shall include: a. Up to 16 user-defined Keys for initiating Sequences. b. Joystick for providing PTZ control. c. Audio speaker with volume control.

• The Keyboard shall be equipped with multiple system-defined function Keys. Configuration software shall be provided to modify these keys.

9.14 Protocol Interface Translators.

• The Protocol Interface Translator (PIT) shall be provided to convert the native protocol of the VMS system to the protocol of attached devices.

• Such devices shall include, but not be limited to, PTZ devices, High-peed Domes, Multiplexers, VCRs, and third party Matrix Chassis.

• The PIT shall be remotely located from the VMS CPU. • The PIT shall provide RS422 to RS422, RS232 to RS232 or RS422 to RS232

communication. • The PIT shall include LEDs that shall indicate received and transmitted data.



9.15 Data Port Expanders.

• The Data Port Expander (DPE) shall be rack mounted in an industry standard 19” rack. It shall be a maximum of 1U (1.75”) high

• The DPE shall connect to the RS422 port of the VMS CPU. • The DPE shall provide up to 16 RS422 ports for the connection of Keyboards,

PITs, or other devices. • Each RS422 port shall support up to 32 connected devices • The DPE shall be powered from an external power source and distribute that power

to the connected devices. • The DPE port expander may be remotely located from the VMS CPU at a distance

of up to 4,000 ft. • The DPE shall isolate each of the RS422 ports such that a fault on one port will not

affect the operation of the other ports. • The DPE shall have indicator LEDs showing common power, transmit data and transmit enable conditions, and individual LEDs showing each channel receive status.

9.16 Input Output Expanders.

• The Input Output Expanders (IOE) shall provide the capability of adding alarm inputs and control outputs remotely from the VMS CPU.

• The IOE shall be connected directly to the Input/Output (I/O) ports of the VMS CPU, or shall be remotely connected to the I/O port of a PIT.

• IOE input module shall provide up to 16 potential free change of state inputs. • IOE output module shall provide up to 16 FET type outputs for LED or low

voltage relay control. • The modules shall connect to the VMS CPU or the PITs using simple RJ11 cable

and connectors. 9.17 Surveillance Microphones.

• Microphones shall consist of a pressure zone microphone and an audio preamplifier/transmitter.

• The microphone shall have adjustable gain and shall have indicators for signal present and overload.

• The microphone shall provide low impedance, balanced output. 9.18 Microphone Receiver.

• The Microphone Receiver shall be rack mounted in an industry standard 19” rack. • The receiver shall be a balanced receiver for up to 8 microphones. • Each channel shall have adjustable gain control and shall have indicators for signal

present and overload. • The receiver shall have a connection for a headset.

9.19 Environmental Conditions • Storage Temperature: -10° C to 70°C.



• Operating Temperature: 0° C to 40°C. • Humidity: 0-80% non-condensing relative humidity environment. • Electromagnetic Interference: The system shall meet or exceed the requirements of

FCC Part 15, Class B devices, FCC Part 68, and IEC EMC directive

10. Digital Video Recorder:

10.1 Key Features • Scheduling of 16 Alarm Sensor Input, Motion Detection, Text input • Pentaplex – Simultaneous recording, playback, backup, remote monitoring, remote

playback • Simultaneous Audio, Video, Event information and text recording • Cost effective extend storage & backup interface – IEEE1394 • Support Easy & instant copy media – USB compact flash • Built-in H/W motion detection with area configuration • Diverse PTZ Device Interface • Flexible recording Condition • Support Dynamic IP Address • Integrated management with PC S/W up to 30 DVRs with 500 cameras both

locally and remotely • Support Control KeyBoard

10.2 Specifications

• CPU ................................................................32bit RISC • Memory .........................................................64MB • Flash ..............................................................8MB • Boot Memory ...............................................64KB • HDD .............................................................Internal 2, Maximum Total 4 TB • Compression Method .................................Differential Wavelet • Decompression ............................................Wavelet • Video Input ..................................................16 looping BNC connectors • Video Output ...............................................1 Composite, 1 S-Video, 1 Spot • Video Out (Loop Through) .......................16 • Monitor Out..................................................2 • Spot Monitor.................................................1 • Display Speed(NTSC) / PAL....................480 / 400 • Recording Speed(NTSC) / PAL ................240 / 200 • Back-up .........................................................Fi-Wi • Copy ..............................................................USB • RS-232 ...........................................................2 • RS-422/485 ..................................................2 • Sensor Input .................................................16



• MD ................................................................16 • Relay Out ......................................................4 • Audio In/Out ..............................................1/1 • Network ........................................................TCP/IP • Operation System ........................................Embedded Linux • Power Supply Input ....................................AC90V_240V, 50/60Hz • Operating Temp. .........................................10°C ~ 40°C • Storage Temp. ..............................................-5°C ~ 50°C • Operating Humidity ....................................35 ~ 75 %, free of condensation • Storage Humidity .........................................92 % below, free of condensation

10.3 External Interface

• Network • RJ-45 ..............................................................10/100Mbps Ethernet • IEEE1394 .....................................................400Mbps • USB ...............................................................12Mbps • Video (VGA) : BNC ...................................Auto termination • Audio • RCA ...............................................................Line-in/out, 1 Vp-p.

......................................................................................Input gain control : 15.0dB ~ -35.0dB

......................................................................................20dB gain supported for MIC input

......................................................................................MIC input 8KHz, 16bit ADPCM (4KB/s) • Sensor Input : Terminal Block ..................NC/NO Selectable, Dry Contact • Alarm Output : Terminal Block ................Relay Output • Serial Comm. • 9pin D-Sub ...................................................RS-232 • Terminal Block ............................................RS-422/485 • RJ-45 ..............................................................RS-232/422/485 • Human Interface : Control Pad .................Control Keys on Front panel • IR Remote Controller : ...............................DVR of differential ID can be controllable

11. 21” Color Monitor: • 21" flat square picture tube • 450 TVL • Convenient front panel push-button controls • On-screen display/setup menus (OSD) • Heavy-duty metal cabinet • NTSC/PAL (auto-sensing) • Video loop-through with automatic termination • Supports two composite and one S-VHS video input (looping) • Universal power supply • Audio Input/Output- 2 channels



• Switchable overscan and underscan • Maximum Operating Temperature: 32°F to 104°F (0°C to 40°C) • Operating Humidity: 10% to 90% (noncondensing) • Controls: Front - OSD Menu, Cursor Down, Cursor Up, Decrease Adjustment,

Increase Adjustment, Underscan, Video Input; Rear - Y/C Impedance Switch 12. 19” LCD Monitors: 12.1 System Performance

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall include, as a minimum, the following features/functions/specifications:

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall feature a 19” Thin-Film Transistor (TFT) display, with a minimum 540 TV Lines in composite video mode, and 1280 x 1024 pixel SXGA resolution. The LCD Flat Panel Monitor shall produce distortion free images and must effectively minimize glare.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall support PC-based applications with the following rear panel connections: DVI-I, 15-pin D-Sub for VGA/SXGA, PC Sound, Headphones

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall support CCTV applications with the following rear panel connections – Audio, Y/C (S-Video), Two looping channels of Composite Video with BNC connections

• The same Systems Series 19-inch Color LCD Flat Panel Monitor must operate on either NTSC or PAL, at voltages from 100VAC to 240VAC, 50/60Hz to comply with worldwide standards. The selection of NTSC or PAL mode by the monitor must be automatic, with no user intervention required.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall incorporate a Display Power Management System (DPMS) function to automatically place the monitor into a “power saving” mode when left unattended.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall incorporate two (2) internal audio speakers.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall include a stand for desktop use, and must be compatible with any Video Electronics Standards Association (VESA) standard wall mount.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall come standard with a remote controller.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall come standard with a scratchproof, shatterproof glass protective panel over the LCD panel.

• The Systems Series 19-inch Color LCD Flat Panel Monitor shall come standard with 3-D comb filtering, de-interlacing, overscan and auto impedance switching for looping video connection.

12.2 Mechanical Specifications The Systems Series 19-inch Color LCD Flat Panel Monitor must have the following mechanical specifications:

• LCD Panel Display Type.............................TFT Color Extended Graphics Array



• LCD Panel Viewable Area ..........................19” (483mm) Diagonal • Pixel Pitch (H x W) ......................................0.294mm x 0.294mm • Resolution......................................................540 TV Lines

SXGA 1280 x 1024 pixels (75Hz) • Aspect Ratio ..................................................4:3 • Internal Speakers ..........................................2 • Front Controls ..............................................Power On/Off with LED

12.3 Electrical Power Requirements The Systems Series 19-inch Color LCD Flat Panel Monitor must have the following electrical specifications:

• Scan System...................................................Automatic NTSC/PAL 31.5 ~ 80 KHz (Horizontal) 56 ~ 75 Hz (Vertical)

• Video Connectors.........................................BNC (Composite Video) – 2 channels (looping) 4-Pin Mini DIN (Y/C Video) DVI-I, 15-pin D-Sub for VGA/SXGA Audio Inputs PC Audio (mini jack) Video Audio (2 channels RCA - looping)

• Power Input...................................................AC Input – 100 to 240V ~ 0.5A, 50/60Hz • Power Output…………………................DC Output – 12VDC, 0.5A • Power Cord ...................................................Detachable IEC • Display Mode ................................................DVI-I/SXGA/XGA/VGA • Display Colors...............................................16.7 Million • Luminance .....................................................400 cd/m² • Contrast Ratio ...............................................500:1 • Viewing Angle...............................................140º horizontal, 135º vertical

12.4 Environmental Conditions

• Operating Temperature ...............................41° to 104° F (5° to 40° C) • Storage Temperature....................................-77º to 140º F (-25º to 60º C) • Operating Humidity .....................................30% to 80% relative, non-condensing • Storage Humidity..........................................5% to 90% relative, non-condensing • Emissions.......................................................FCC: Part 15, Class B • Immunity .......................................................CE: EN55022: 1998/A1:2000/A2:2003 • Safety ..............................................................UL/cUL: 6500, EN60950-1:2001

13. 17" LCD, Color, TFT Flat Panel

• Viewable Area: 17” • Pixel Pitch: (mm): 0.264 • Brightness: 300 cd/m2 • Contrast Ratio: 700:1 • Viewable Angle: 160˚/160˚



• Response Time: 8 ms • Max. Resolution: 1280 x 1024 • Input Video Signal: Analogu RGB, DVI, • Syn Type: Seperate H/V, Composite, SOG • Input Connectors: 15-pin D-sub • Speakers: 1W x 2Ch • Stand: Height Adjustable, Pivot, Swivel

14. 42” High Resolution Plasma TV Monitor

• Screen Size: 42"(106cm) diagonal • Screen Aspect: 16 : 9 Wide • Panel: G9 Progressive HD Plasma Panel • Progressive Scan: Yes • Number of Pixels: 786,432 (1,024 x 768) pixels • Colour System: NTSC/PAL/PAL 60Hz/M-NTSC • Applicable PC signals: XGA (SXGA compressed) • Displayable Colours: Max 29 billion equivalent colours for darker part • Contrast Ratio: Max. 10,000:1 • Sub Pixel Control: Yes • Video Noise Reduction:Yes • 3D Comb Filter: Yes • Picture Mode: Standard/Dynamic/Cinema • Speakers: Full-Range x 2 • Audio Output: 20 W (10 W x 2), 10% THD • Sound Mode: Music/News/Cinema • SD Memory Card Slot: No • HDMI Input: 2 • Composite Video Input:AV1/2/3/4: RCA phono type (3 rear,1 front) • S-Video Input: AV1/4: Mini DIN 4 -pin (1 rear,1 front) • Audio Input (for Video):AV1/2/3/4: RCA phono type connectors (L, R) • PC Input: Mini D-sub 15-pin x 1 (rear) • Component Video Input:AV2/3 : RCA phono type [Y, PB/CB, PR/CR • Audio Input: RCA phono type connectors (L, R) (1 set, rear) • Monitor Out: RCA phono type (1 rear) • Audio Output: RCA phono type connectors (L, R) (1 set, rear), Headphone

jack (1, front) • Power Supply: AC 220 - 240 V, 50/60Hz



15. Power Supply Unit

• Type: Switch Mode Power Supply • Input Voltage: 110-240VAC • Output Voltage: 12V DC

16. 8 Channel Digital Video/Data/Audio & Ethernet Multiplexer 16.1 Features:

• Uncompressed 9 bit video, 24 bit audio encoding. • Fiber optic transmission of four or eight video signals on one fiber with four RS232

and RS422 data signals (two of each) which may be one way with the video or, optionally, full duplex.

• Optional transmission of four audio and / or four additional high data speed data channels which may be one way or full duplex. Alternatively, the user may transmit eight audio or eight extra data signals, again either one way or full duplex.

• Range of up to 120 Km should be possible with optional 1550 nm operation. • Optional duplex operation over one fiber. • Optional 10/100 Base T Ethernet bridging through the link • Operates on either single mode or multimode fiber • Video bandwidth of 6 MHz., SNR > 63dB • Audio Bandwidth of 15 KHz, SNR> 100dB • Video Inputs should have 3 dB overload capacity.

16.2 Specifications: Electrical: Video

• Input / Output Impedance 75Ωcomposite • Input / Output Level 1.0Vpp nominal • Bandwidth (±0.5dB) 10Hz to 6 MHz • Signal to Noise ratio > 63 dB (weighted) • Linearity <.7%DG<.7ºDP • Standard Data Interface 2 x RS232 and 2 x RS422 with RS 485 available on

Channel 1 • Standard Data Rate DC to 150 kbps • Optional Data Interface RS232 or RS422 with RS485 should also be available

on one channel • Optional Data Rate DC to 4to 400 kbps • Optional Ethernet Interface 10/100Base T via RJ45 connector • Data Bit Error Rate < 1 x 10-9 • Video Connectors BNC • Standard Data Connector Female 15 pin D connector



• Optical Audio / Data Connector Female 44 pin high density D connector Audio

• Input / Output Impedance 10kΩ/200Ωbalanced/unbalanced • Input / Output Level 0dBu nominal, 15dBu maximum • Bandwidth (±0.5dB) >100dB (A Weighted at max level) • Linearity <0.05%total harmonic distortion • Standard Data Interface 2 x RS232 and 2 x RS422 with RS 485 available on

Channel 1 • Standard Data Rate DC to 150 kbps • Optional Data Interface RS232 or RS422 with RS485 should also be available

on one channel • Optional Data Rate DC to 4to 400 kbps • Optional Ethernet Interface 10/100Base T via RJ45 connector • Data Bit Error Rate < 1 x 10-9 • Video Connectors BNC • Standard Data Connector Female 15 pin D connector • Optical Audio / Data Connector Female 44 pin high density D connector

Optical

• Transmitter wavelength 1310nm or 1550nm • Receiver sensitivity < -24 dBm(PIN)

<-34dBm • Receiver Path Sensitivity <-38dBm • Link Budget from 17dB to 38 dB at 1310nm or 1550nm • Optical Connectors ST standard, FC and SC should be optional. • Operating Temperature -20 to + 75 deg C • Relative Humidity 0 to 95% non-condensing • Power 90 to 265 VAC @ 20 VA

17. Video Analytics Hardware The encoder should be a 19” rack mounted intelligent-video-edge-device with built-in self-sustained video analytics. The encoder should plug inline and upgrade CCTV security cameras (B/W, color, thermal, and infrared) with powerful indoor and outdoor automated detection and autonomous tracking of intruders, suspicious baggage, stopped vehicles, removed items and more. It should be is DSP-based, one per channel, and delivers hybrid security-system connectivity, converting analog audio and video into MPEG-4 streaming multimedia over IP, as well as simultaneously outputs analog video with graphical overlay features



The encoder can be installed and configured via a built-in HTML web server that also provides access and viewing over a network through a standard web browser. The encoder shall have 8x Audio & 8x Video Channels, MPEG-4, CIF (per channel) resolution, dual-port built-in network switch

18. Video Analytics Software Features

• Fully operational within minutes • Identify intruders moving anywhere in the camera FOV • Identify threats in all weather, fog, low light • Identify very slow-moving intruders • Track intruders with automatic Pan/Tilt/Zoom tracking even after target leaves

range of fixed cameras • Special treatment for camera vibrations • Certificates ( from leading agencies like Sandia National Labs) • Performs the detection and tracking completely autonomous and can track an

intruder that was detected on another camera. • Able to classify and inform the operator whether the detected threat in question is a

human being or a vehicle of some sort • Internal checkup of video quality like No video signal, Bad video signal, Low

visibility • Map display with variety of visual notifications • Integration of different platforms (analog, digital and intelligent systems) • Analog Video out with date & time and intrusion track overlay • MPEG-4 Video CIF and 4CIF resolutions

• MPEG-4 Audio • Identify intruders crawling, fast running, zigzag, stop and go. • Reduce false alarm rates to absolute minimum • Track intruders even after they have left the field of view of fixed cameras, and

follow their exact path on a map or aerial photo. • Track intruders with automatic Pan/Tilt/Zoom tracking even after target leaves

range of fixed cameras • Ignore small animals, clouds, camera movement and other visual noise. • Ignore movement in predefined areas (like patrol roads). • Identify and track multiple simultaneous intruders. • Alarm on low visibility, FOV obstruction, video malfunction, weak or no signal. • Camera types: Color, B/W, IR, Thermal; NTSC & PAL. • Track intruder with any PTZ (Pan/Tilt/Zoom) camera automatically. • Keep intruder in center camera through full 360 degrees of movement. • Track all moving objects (Humans, Vehicles). • Manual and automatic modes: track an intruder automatically, or manually select an

object of interest to track.



• Track intruder even when occluded or hiding (the camera will wait until intruder is visible).

• Integrated real-time security view: Up to 32 simultaneous video cameras displayed, with aerial photos, site maps and floor plans showing status and physical location of security devices and real-time Moving Target Indicator (MTIs) on a single or dual monitor.

• Deployment across a wide area network: cameras, sensor inputs and command center stations can be distributed geographically. Client/server architecture allows unlimited addition of stationary and PTZ cameras, command stations and users.

• Policy-based definition of threat response: automatically activate systems on alarm (automatic door locks, lights, control PTZ cameras, siren, SMS, etc.) and log all alarms for later review.

• Server-based database: The database provides the distributed basis for security information, hierarchy and permissions. Each command center can be personalized per user, based on role and preferences.

• Users can define macros, for quick activation of actions, and camera sequences for guard tours.

• Integrate sensors from other security systems, including smoke detectors, fences, PIR and more, in order to reduce security desktop overload.

19. Server PC for Analytics System Configuration

• Dual Processor Capable • Intel® 5000V server chipset • Intel Xeon Processor 5050 DC 3.0 GHz (667MHz FSB) • 2 x 2MB L2 Cache • 512MB x 2 PC2-5300 Fully Buffered DIMMs (DDR2-667) Memory • 2 x 72 GB SCSI@10k • Smart Array 642 (Dual(1+1) channel U320 with 64MB of cache) • Mouse & Keyboard

Features

• Processor : Dual-Core Intel Xeon 5000 Sequence processors • Intel® 5000V chipset • 667 MHz, 1066 MHz or 1333Mhz Front Side Bus • PC2-5300 Fully Buffered DIMMs (DDR2-667)Memory • SAS/SATA - 4 sockets, 1 GB standard, 8 GB maximum • SATA - 4 sockets, 512 MB, 8 GB maximum • Embedded SATA RAID Controller • Internal SAS storage capacity of up to 1.8TB (6 x 300GB SAS drives) • Supports up to 6 SAS/SATA hard drives via HBA or RAID Controller • Internal SATA storage capacity of up to 4.5TB (6 x 750GB SATA drives)



• Single PCI Gigabit NIC (embedded) • Six expansion slots: Three (3) PCI-X (64-bit/100MHz), 2 PCI-Express (x4\x8) • Management card 1 PCI (32-bit/33MHz). One slot designated for optional HP

ProLiant • Lights-Out 100 Remote • Seven USB 2.0 ports:- 3 rear, 2 front, 2 Internal(1 standard and 1HP 5-pin) • One 650W Power Supply • 5U Tower Models. Rack models via optional rack mounting kit • Easy chassis entry and component access

II. Intrusion Alarm System: 1. Control Panel: It should support 8 partitions, while at the same time uses 4 wired, multiplex and wireless zones (up to 128 zones). In addition, powerful output control through relays can activate appliances and CCTV. 1.1 Zone Characteristics:

9 basic 4-wired zones standard 3 panic keypads, duress Expandable to 128 zones by wireless or multiplex polling

1.2 Control Specifications:

• 8 partitions or 3 common areas partitions, can be used as 8 independent control panels

• 224 event memory log, remote downloading or check from keypad directly. • Support 7 levels 150 users code. • Set Exit / Entry or zones around siren alert • When use to stay STAY or quick setting , automatically set aside non- functioned

zones. • Integrated audio or video alarm verification options

1.3 Output Features:

• Built in dialer, automatically sending alert when alarm signal received • RS 232

1.4 Output Specifications:

• Alarm current: 2 Amps, 12 VDC • Support 96 relays max

1.5 Advance Scheduling:

• Real Time Control 2. Alpha Display Keypad:



• Large 32 character alpha display provides system status and zone information in plain English

• Keys continuously backlit for greater visibility • Speaker with audible beeps to indicate: system status, entry/exit delay, and other

alarm situations • Four programmable function keys

3. Wired Zone Expander/Relay Board:

• Provides eight end-of-line supervised zones • Two on-board programmable relays • Connection made to the control's console wires

4. Serial Interface Module:

• Connect PC and control panel for file downloading • Provides an RS232 output for event log printer • Electrical: 12 VDC, 25 mA (selectable power supply from panel console power

terminal) 5. Network Interface Module

• Provides two-way communications over any Ethernet TCP/IP Data Network 6. Battery for Controller Panel

• 7AH /12V 7. Transformer for control panel

• 230/16VAC, 43VA 8. Wireless PIR Motion Detector:

• 40’ x 56’ coverage • Wall or corner mounting options • Provision to turn LED on while walk testing • Tampered cover – unit transmits messages if cover removed

9. PIR Sensor:

• Reliable detection with 40 lb. animal immunity: By combining Uniform Sensitivity Optics and Advanced ASIC processing the PIR Sensor

• Temperature compensation: Advanced Dual Slope temperature compensation adjust above and below body temperature for improved detection and false alarm immunity

• Look-down zone: The sensor should have a detection zone beneath the sensor. • Tamper protection : detect attempts to open or damage the sensor’s housing • Detection Range:

Wide Angle lens : 20m x 35m Curtain Lens: 30 m x 6 m

• Alarm Relay: Form A, 90mA, 16VDC



• Tamper: NC (with cover on), 0.5A, 30VDC • Pulse processing: Intermediate, standard, Harsh selectable • Operating temperature: -10deg C to 50 deg C, upto 90% relative humidity (non-

condensing) • Approvals: CE, UL, FCC

10. Indoor IR Beam

• Detection Method: Infrared Photoelectric • Range: Indoor 100ft. (30m) or less • Maximum Arrival Distance: 400ft. (120m) • Beam Characteristics: 1000 pps. Double Modulation pulsed infrared • Interruption Period: 50msec • Power Input: 8 ~ 18 VDC • Indicator: Transmitter –Red LED on when transmitting condition

Receiver – Red LED on in alarm condition • Alarm period: 2 sec (± 1) nominal • Tamper Switch : Should open when cover is removed • Operating Temperature: 20ºC to 50ºC • Environment Humidity: 95% max • Alignment Angle: ± 90º Horizontal • UL listed

11. Surface Mount Magnetic Contact

• SPDT (Form C) Contact • Standard gap: 1" (25mm) • Spaces, covers and screws included • Cover conceals end of line resistor (EOL) • UL Listed

12. Panic Button

• Dimensions: Approx. 120mmL x 42mmW x 5.5mmD • Stainless Steel Plate • Switch Information : 1,2 ( Normally Closed ) 3,4 ( Normally Open ) • Switch Data : 5A / 250 VAC,6A / 24VDC • Light : 14VDC ( a, b )

13. Overhead Door Contact

• 62cm (24") armored cable • Complies with EN50131-1 (Grade 2, Class II) • Rugged aluminum housing • Tamper Loop for added security • Switch Type: Form A (SPST) Reed • Contact Rating: 500ma @ 50VDC



14. External Speaker:

• Jacketed 4 conductor wire tamper • 40 watts of power

15. Sounder & Strobe:

• 108dB audio output level • Horizontal or vertical mounting • Built in cut 5 minute cut off timer • High durability Mylar speaker

III. Access Control System: Controller Hardware and Software: The security management system shall be equipped with access control field hardware required to receive alarms and administer all access granted/denied decisions. All field hardware shall meet UL requirements. The system shall include the following components:

1. Intelligent Controller with suitable cabinet

Intelligent Controller shall link the security management system software to all other field hardware components (card reader modules and input and output control modules). The Intelligent Controller shall provide full distributed processing of access control and alarm monitoring operations. Access levels, hardware configurations, and programmed alarm outputs assigned at the administration workstation shall be downloaded to the Intelligent Controller, which shall store the information and function using its high-speed, local 32-bit microprocessor. All access granted/denied decisions shall be made at the Intelligent Controller to provide fast responses to card reader transactions. 2. Dual Reader Module with suitable cabinet The Dual Reader Module shall provide an interface between the Intelligent Controller and the card readers. The Dual Reader Module shall operate with any card reader that produces a standard Wiegand (Data 1/Data 0) or Clock and Data communication output. A single Intelligent Controller shall be able to multi-drop up to eight (8) Dual Reader Modules. The following requirements shall also apply:

• Each Dual Reader Module shall support two card readers, each of which may be up to 500 feet from the Dual Reader Module.

• Up to 8 Dual Reader Modules shall be connected to each Intelligent Controller. • Each Dual Reader Module shall include Three (3) relay inputs and two (2) relay

outputs per reader. Two (2) additional inputs and two (2) additional outputs shall be available when the module is mounted flat.

• Up to eight (8) unique card formats shall be supported.



• The Dual Reader Module shall support an integrated card reader/keypad. • The Dual Reader Module shall support three access modes upon loss of

communication with the Intelligent Controller. • These modes shall be: Locked, Unlocked, Facility code. • Input power shall be 12VDC+15%@ 175 mA with an operating range of 10 VDC

to 14VDC. 3. Network Interface Module The system shall include a network interface module. The module shall be 10 Mbps Ethernet based and capable of residing on a local area network (LAN) or wide area network (WAN) without connectivity to a PC serial port. Intelligent Controllers with the network interface module shall be able to communicate with the database server through industry standard switches and routers. In the event that the Intelligent Controller loses communication with system software, it shall continue to function normally (stand-alone). While in this offline state, the Intelligent Controller shall make access granted/denied decisions and maintain a log of the events that occur. Events shall be stored in local memory and uploaded to the system software after communications are restored. 3.1 Features :

The Intelligent Controller shall support the following communication formats: RS-232 at a speed of 38.4 Kbps, RS-485 at a speed of 38.4 Kbps, Ethernet at 10Mbps (10BASE-T, RJ45) 3.2 Memory Real time program updates, and overall host communications shall utilize flash memory. Can be configured for up to 50,000 cardholders and 35,000 event buffer. (5,000 cardholders if 32-access level feature is enabled). 3.3 Additional ports Shall be provided for connecting card readers and data gathering panels via RS-485 multi-drop wiring configuration. Two (2) ports shall be available with up to 8 total boards connected in any combination. 3.4 Devices Up to 8 devices consisting of reader interface modules, input modules, and output modules shall be supported. The devices shall be connected in any combination. 3.5 Processor The Intelligent Controller shall contain a 32-bit processor. 3.6 Light emitting diodes (LED) Light emitting diodes (LED) shall indicate status of components and communication links.



3.7 Readers The Intelligent Controller shall support the following:

• Up to eight card formats and facility codes. • Multiple card technologies. • Biometric interface support. • Issue code support shall be provided for both magnetic and Wiegand card

readers. • Up to five-digit PIN codes.

3.8 Electrical Power

• Primary input power shall be 12VDC+15%@ 350 mA with an operating range of 10 VDC to 16VDC.

• The Intelligent Controller shall be equipped with an uninterruptible power supply (UPS) and backup battery.

4. Software for Access Control System: 4.1 System Description The Integrated Security Management System (ISMS) shall be a modular, networked access control system capable of handling multiple remote sites, alarm monitoring, video imaging, badging, paging, guard tour, digital video servers and CCTV switcher control. The system shall allow for easy expansion/modification of inputs, outputs, and remote control stations. The system control at the central computer location shall be under a single software program control, shall provide full integration of all components, and shall be alterable at any time, depending upon the facility requirements. Reconfiguration shall be accomplished online through system programming, without hardware changes. The software program shall be a true 32-bit, 3-tier client/server, ODBC compliant application based on Microsoft tools and standards. The software program shall operate in one of the following environments; Windows 2003 Server, Windows Vista Business, Windows XP Professional SP2, Windows 2000 Professional or Server using Service Pack 4. The software program shall consist of multiple servers including, but not limited to, Database Server, Communications Server, and Client Workstation Server. The Servers shall be capable of being installed on one or more PCs across a network providing a distribution of system activities and processes. The system shall support multiple communication servers on a LAN/WAN, to provide distributed networking capabilities, which significantly improve system performance. The database architecture shall be MSDE 2000 as standard with the capability to utilize Microsoft SQL Server 2005; SQL Server 2005 Express Edition or SQL Server 2000. The system shall have the capability to communicate with the control panels via LAN/WAN connections utilizing industry standard communication protocol.



The system software shall allow support for multiple accounts allowing separate access to the card database, badge layout, operator access, and reporting. Physical hardware may be filtered by operator level into sites. Sites may reside in multiple accounts. The system shall allow control of common areas between accounts. Access levels shall be global to allow for easy administration. The global access levels shall be capable of being used by several accounts. Administrators shall have the ability to move cardholders from one account to another. When moving cardholders in such a manner, access level information shall not be transferred automatically in order to ensure proper security settings are made upon changing the status of the cardholder. The system shall support both manual and automatic responses to alarms entering the system. Each alarm shall be capable of initiating a number of different actions, such as camera switching, video pop-up, activation of remote devices, door control, and activation of WAV files. The system shall provide both supervised and non-supervised alarm point monitoring. Upon recognition of an alarm, the system shall be capable of switching and displaying a view from either the CCTV camera or video from the digital video server camera that is associated with the alarm point. The system shall be capable of arming or disarming alarm points both manually and automatically, by time of day, and by day of week. Access control functions shall include validation based on time of day, day of week, holiday scheduling, site code and card number verification, automatic or manual retrieval of cardholder photographs, and access validation based on positive verification of card, card and PIN, card or pin, pin only and Site Code only. Camera functions such as pan/tilt, lens control, limits, and home position shall be supported by the system. Unless specific programming dictates otherwise, an operator shall be able to control these functions for all cameras so equipped. Live video from a CCTV system and/or digital video server shall be able to be displayed on the computer screen. The live video window shall allow the user to change its size and location on the computer screen. Video controls (pan, tilt, zoom, camera/monitor selection) shall be able to be sent to the CCTV system and/or digital video server from the live video window. The user shall have the ability to freeze and save a single frame of video from the CCTV system to a file. Alarm events with defined priorities shall be able to pop-up automatically in an Alarm event window for operator attention. The pop-up shall display the name of the event (reader, alarm point, cardholder or system alarm), time, date, site, account, if a card event the card number, type of event and cardholder name. An event counter shall also display the number of times the event was reported to the Alarm event monitor prior to Acknowledgement or Clearing the event. Event instructions shall be made available by double clicking on the event. The event shall also display an icon to indicate that video is available for events so programmed. The Alarm event window shall allow the operator to initiate a physical response to the event as well as a written response. Responses shall include but not be limited to: acknowledge,



clear, open a pre-programmed floor plan, energize, de-energize, pulse, time pulse, add comment, retrieve event video, and bring up live video, shunt or un-shunt. Assigned passwords shall be possible to define the levels of system operation for each individual operator. System operation for individual operators shall include, but not be limited to, restricted time periods for login, available accounts and default language selection at login. Operator actions range from no view or control rights to basic monitoring including the ability to block the viewing of card and or personal identification numbers, to full control of the system including programming. The system programming shall be user friendly, and capable of being accomplished by personnel with no prior computer experience. A quick start wizard shall allow the operator to easily program a system including access panels (IP connection, Modem Pools or direct connections to an RS-232 port), card activation to a general purpose access area and deactivation date. The software shall utilize drop boxes for all previously entered system-required data. The programming shall be MENU driven and include online “Help” or “Tutorial” information, as well as online data entry examples. The Help shall be available by using the F1 key. After installation, the Customer shall be able to perform hardware configuration changes. These hardware configuration changes shall include, but not be limited to, door open time, door contact shunt time, point and reader names, when and where a cardholder is valid, and the ability to add or modify card databases as desired; For the intrusion system, any function that can be programmed from a physical keypad shall also be available from the system’s virtual keypad, without the services of the Contractor or Manufacturer. All control components shall utilize “Distributed-Processing” concepts. The distributed processing shall include the ability to download operating parameters to any field panel, thus allowing the field panel to provide full operating functions independent of the access control system computer. 4.2 System Capacities: The System shall require one master control file server station. The access control program running on the file server shall restrict the number of operator workstations working in a LAN/WAN based on the access software licensing. Licensing shall be by software activation monitoring concurrent connection and not require the use of hardware keys per workstation. The only restriction will be imposed by the operating system and hardware configuration. Operator workstations shall provide all functionality as available at the server with the exception of database maintenance functions. Overall control of the access control, CCTV/DVR, paging, and alarm monitoring shall be through software control, which provides complete integration of the security components. The file server station shall operate in both a programmed and a manual mode. Capacities in a direct connect configuration per communication server with the Modular Control System shall be 4,080 readers, 50,000 card holders, 32,640 alarm points, 32,640 relay



outputs. Using RS-485 connection to the PRO-2200 allows for drop-line configurations resulting in a maximum of 32,640 readers, 261,120 alarm points, 261,120 relay outputs: Capacities in a remote connect configuration per communication server shall be up to 250 remote dial-up sites, 4,000 card readers, 50,000 card holders per site, 32,000 alarm inputs, and 32,000 relay outputs. The system shall be expandable in modular increments to total capacity. The software shall not require installation of any module or any other upgrading to achieve above stated capacities. Unrestricted number of operator workstations and multiple communication servers shall be supported as a standard feature of the access control software. Systems requiring only a single account, single communication server and one or five concurrent workstations shall use software with appropriate license. System upgrades shall be accomplished by software key codes and not require installation or re-installation of any access control software. 4.3 Functional Capabilities The following functional capabilities are considered essential for the system described in this specification. The capabilities are to be considered standard, without the need for add-on software or hardware. 4.3.1 General:

• All databases will have the ability to Add, Delete, Report, View or Edit information.

• Provide storage of all system transactions in a retrievable file. • Log all events by time and date. • Provide capability to store all or selected system transactions to a disk file. • Provide ability for Customer to make any system configuration changes such as,

but not limited to door open time, door contact shunt time, point and reader names, when and where a cardholder is valid, and the ability to add or modify card databases at any time.

• Support “Global Anti-pass back”, allowing cardholder to enter/exit any such defined card reader on the same intelligent control panel or RS-485 drop-line consisting of 2 and 4 door controllers.

• Anti-pass back modes shall include hard (no forgiveness), soft (allows access but generates an alarm event) and timed for all readers on the intelligent controller, on specified reader or card for a definable period of time up to 32,000 seconds.

• Duress feature where a PIN is used in conjunction with a card read, the numbers of digits are selected at the keypad where the PIN number is a value of one different from the normal PIN.

• Two card holder rule, where two valid, non-identical “cards” must be used within a 20 second period of time to grant access.

• Ability to display when a card holder who uses the reader has accessed (opened) the door or if the card was used but the door was not opened.



• Ability to select appropriate doors to remain locked even though it is programmed by time zone control to be unlocked, until the first valid card read is seen during the door’s time zone at which time the door will remain unlocked for the duration of its defined time period.

• Latch mode operation where the first card read unlocks the door and the second causes it to lock the door.

• Provide mode of system operation that stores system commands that were not accepted by the hardware.

• Provide mode of system operation that requires the operator to enter a response to an event when acknowledging it from the alarm view window.

• Provide mode of system operation that allows acknowledged alarms to be automatically cleared.

• Provide mode of system operation where un-acknowledged events will cause the computer to continuously emit a pulsating beep until all un-acknowledged alarms are acknowledged. A momentary silence feature shall allow the beeping to cease for up to 60 seconds. The silence feature shall also provide a visual count down to when the beeping will begin again.

• Provide mode of system operation where when an acknowledged, but not cleared event will be reissued requiring acknowledgement when the event changes to an alarm or trouble state.

• Provide mode of system operation that does not allow the operator to clear an alarm prior to it being restored to normal.

• Provide ability for manual operator control of system output relays. The manual functions shall include the ability to energize, de-energize, return to time zone, or pulse the output relay. The pulse time shall be a programmable setting.

• Provide ability for manual operator control of system doors. The manual functions shall include the ability to Lock, Un-Lock, Disable, Card only, Card-Pin only, Pin only, exit only and site code only.

• Provide ability to automatically display stored “video image” of cardholder, and switch real-time camera from CCTV or digital video server to card reader location for specific card usage.

• The cardholder “video image” pop-up shall be activated based on a priority level set to the cardholder or reader. Information in the pop-up shall include, but not be limited to the card holder’s primary image a live video pop-up showing the person who initiated the pop-up, entrance name, time, date, cardholder name, and status. User shall be able to display up to 40 note fields. The size of the pop-ups shall be adjustable by the operator.

• Support multiple card reader technology including: Proximity, Wiegand effect, Biometrics, Magnetic stripe, Bar Code Keypad, Card/keypad (PIN), High-speed long range Vehicle ID, Smart Card.

• Provide a means for scheduled automatic backups of any or all database system files. A means to restore these files from a simple menu shall exist.

• Provide the ability to address up to 255 serial communication ports per communication server, where each port can be configured for either hardwired or dial-up. When configured for dial-up, any one port can support multiple dial-up locations.



• Communication from the access control communication server to the remote intelligent control panels shall be selectable. Communication options shall be RS-232 directly to the intelligent control, via RS-485 converter, dial-up, leased line from a defined communication port or by LAN/WAN using an IP address for direct connection to the intelligent controller via network interface card. When using IP addressing it shall be un-acceptable to use a communication port converter device on the communication server side of the transmission. A minimum of 255 such IP connections shall be allowed per communication server.

• All commands and updates to the panels shall be verified and shall automatically retry if communications have failed.

• Provide a system scheduler that shall automatically: Call remote locations to retrieve history transactions and update

panel information, including time and date. Activate or deactivate cards locally or at remote dial-up sites. Initiate a pre-programmed command event/action. Synchronize system to intelligent controller time. Run a pre-defined (template) History report. Run a pre-defined (template) Card Holder report. Card frequency report defined by reader(s), over a defined period

of time with disposition options to automatically report or report and de-activate card or change the access level of the card.

Frequency shall be defined as Never, Now, Once, Hourly, Daily, Weekly, Once per 2 weeks, and Monthly.

• Provide drop boxes for all system-required information that the user has previously entered.

• Provide the ability to initiate an email (via SMTP) or page to a paging system based on a transaction state. A transaction state shall be defined as but not limited to Normal, Alarm, Trouble, Ajar, Trace, Not Found, Anti-Pass back Violation, PIN Violation, Time Zone Violation, Site Code Violation, Door Used, Duress, No Second Card Presented, Trace Card or Expired Card, and System Alarms including, Panel Com, Panel Power Failure, Modem Pool, Guard Tour, and Tamper. Intrusion partition events including but not limited to: Alarm, Alarm Cancel, Arm Away, Arm Stay, Auto Arm, Auto Disarm, Bypass, Disarm, Early Arm, Early Disarm, Fail to Arm, Fail to Disarm, Normal, Not Ready, Part Arm, Quick Arm, Recent Close, Remote Arm, Remote Disarm, Un bypass, User Code Added, User Code Deleted, user Code Edited. Intrusion zone events including but not limited to: Alarm, Alarm Restore, Bypass, Fault, Fault Restore, Normal, Trouble, Trouble Restore, Un bypass. Intrusion output events including but not limited to: Alarm, Communication Loss, Normal, Tamper, Tamper Restore. Intrusion panel events including but not limited to: Access Denied, Automatic Test, Comm. Fail, Comm. Restore, Faults, Faults Restore, Line Restore, Line Trouble, Manual Test, Pager Restore, Pager Trouble, AC Restore, AC Trouble, Alarm, Battery Low, Battery Low Restore, Disarm, Normal, Recent Close, Reset, Panic Alarm, Power Up, Program begin, Program Changed, Program End, System Shutdown, System Shutdown Restore, Tamper Alarm, Tamper Restore, Test End, Test Start, Time/Date changed.



• A host grant mode of operation shall exist that requires the host computer to grant accesses to “valid” cards. An alternate host grant mode shall allow the card access information to be downloaded along with unlocking the door for “valid” cards.

4.3.2 Card Database

• Provide a simple card and card holder database import utility. The utility shall be password protected and accessible only to administrators of the access control system. Information that can be imported shall include but not be limited to: First Name, Last Name, card number, activation date, de-activation date, status, up to 40 note fields and photo images.

• Cardholder information shall include unique card number up to 15 digits and optional Personal Identification Number.

• Allow multiple cards per cardholder. • Allow for up to 32 access levels to be assigned to a card, or a single “precision”

access level. When using “precision” access levels it shall be possible to create a unique access level per card using an existing access level as a baseline template. This customized card access level shall have both beginning and ending dates.

• Provide 40 user definable fields. • Each card holder note filed shall allow the option to be entered as free form data

or structured data. Structured data shall be by use of a template or drop list. The template and drop list shall be created by the operator. The capacity of the template shall allow for up to 65,000 characters.

• Provide special card options that include, but are not limited to: • Visitor use, which provides a specified activation date and expiration date • Trigger control value, which can initiate a predefined procedure at the intelligent

control independent from any control function from the system computer. • Provide a card “Trace” function. The Trace function shall allow normal access

control, but will provide a tracking alarm at the system monitor. • Provide ability to store digital images of cardholder or other digital images such

as property or family members. Up to 99 such images shall be associated with the cardholder.

• Provide ability to store a written signature of the cardholder or other signatures such as family members. Up to 99 such signatures shall be associated with the cardholder.

• Provide the ability to prioritize specific card usage from 1 to 99 with separate priority options shall included but not be limited to Anti-pass back, Trace, PIN Violation, Normal, Not Found, Expired, Host Grant, Site Code and Time Zone card activities or violations.

• Allow the user the ability to assign an operator message per card event state and a procedure for the intelligent control shall perform per event state.

• Allow the user the ability to send an email message, selectable per card event type.

• Upon editing card information, the updated information shall be sent automatically to the appropriate access control panel, when hardwired, with no



other user intervention. If the port is dial-up, the entry will be stored on disk and shall be updated when connection is made to the remote loop. If the scheduler is used, then card updates shall be sent based on scheduling.

• In a traditional (Wiegand) 5 digit card database, the numbers 0 and 65,535 shall not be valid card numbers as some devices transmit these numbers on an improper read.

• In a 15-digit card database, the number 0 shall not be a valid card number as some devices transmit this number on an improper read.

• A card shall have the ability to be allowed to access one or selected accounts up to all available accounts.

4.3.3 Access Levels

• Provide the ability to define specific times of access. • Provide the ability to define specific readers for access. • Provide a template of a defined access level detail, where changes can be made to

the template and saved as a new access level detail. • Provide an access control tree structure that allows groupings of entrances. User

shall have the ability to group program all entrances on the branch or make specific changes to individual entrances.

4.3.4 Camera Control

• Provide ability to interface to a microprocessor-based matrix video switcher via a system communication port or LAN connection.

• Provide ability to program descriptions and camera titles for all system cameras. • Provide ability to manually switch any camera in the system to any monitor in the

system. • Provide ability to automatically switch any camera in the system to any monitor

in the system based on any alarm point or system alarm. • Provide ability to manually control the pan, tilt, and lens functions (zoom, iris

and focus). • Provide ability to set and clear the movement limits of the pan and tilt

mechanisms so equipped. • A “live view” from the CCTV switcher shall be displayed on the system

computer. The view shall include pan, tilt, zoom, camera/monitor selection, and the ability to send user programmed information to the video switcher. The ability to change the size and location of the view shall exist. The ability to capture store a single frame of video shall exist.

4.3.5 Alarm Monitoring – Alarms Only View

• Report alarm point activity. • Provide color for each specific alarm point action of “Alarm”, “Normal” and

“Trouble”, conditions. • Provide the ability to access the default floor plan graphic for any active alarm

point by a right click option.



• Live video pop-up from the digital video server(s) shall follow the alarm event pop-up. The number of live camera views in the pop-up window shall be no less than 16. The live pop-up window shall allow the user to define the quantity of views from 1 – 16. The ability to adjust the size of the live pop-up window shall exist.

• Provide ability to bypass alarms in the system. • Execute alarm notification in all modes of operation. • Provide ability to acknowledge any intrusion alarm, event alarm, system alarm,

card, or reader activity based on priority. • Provide display of system activity with the higher priorities displayed at the top

of the list with identical points stacked with a frequency count of each point’s change of state.

• Provide a video icon for events that have video associated with it. Right clicking on such an event shall allow the option to retrieve recorded video or view “live”. The stored video clip shall playback by default a minimum of 2 seconds before the actual event without any adjustment.

• Viewable alarms shall include but not be limited to access control related events such as Door Normal, Door Alarm, Door Trouble, Door Ajar; Card events such as Trace, Not Found, Anti-Pass back Violation, PIN Violation, Time Zone Violation, Site Code Violation, Door Used, Duress, No Second Card Presented, Trace Card or Expired Card, and System Alarms including, Panel Com, Panel Power Failure, Modem Pool, Guard Tour, and Tamper. Intrusion partition events including but not limited to: Alarm, Alarm Cancel, Arm Away, Arm Stay, Auto Arm, Auto Disarm, Bypass, Disarm, Early Arm, Early Disarm, Fail to Arm, Fail to Disarm, Normal, Not Ready, Part Arm, Quick Arm, Recent Close, Remote Arm, Remote Disarm, Un bypass, User Code Added, User Code Deleted, user Code Edited. Intrusion zone events including but not limited to: Alarm, Alarm Restore, Bypass, Fault, Fault Restore, Normal, Trouble, Trouble Restore, Un bypass. Intrusion output events including but not limited to: Alarm, Communication Loss, Normal, Tamper, Tamper Restore. Intrusion panel events including but not limited to: Access Denied, Automatic Test, Comm. Fail, Comm. Restore, Faults, Faults Restore, Line Restore, Line Trouble, Manual Test, Pager Restore, Pager Trouble, AC Restore, AC Trouble, Alarm, Battery Low, Battery Low Restore, Disarm, Normal, Recent Close, Reset, Panic Alarm,

• Power Up, Program begin, Program Changed, Program End, System Shutdown, System Shutdown Restore, Tamper Alarm, Tamper Restore, Test End, Test Start, Time/Date changed.

• Provide ability for the operator to acknowledge and clear alarms from display. Prior to acknowledgment, the user shall be allowed to enter a response per alarm. The system shall offer a means to require acknowledgement of an alarm before it can be cleared.

• Provide a display of the most current transactions in real time. • Provide the ability for dynamic alarm monitoring of alarm points in real time on

the system computer’s video display terminal. • Provide an alarm view filter that is structured as a tree allowing the operator to

select individual devices or groups of devices to be viewed.



• Provide a “System” alarm upon a loop integrity violation. • Provide a “Panel Not Responding” alarm if communication to a panel is lost. • Provide real time printing of alarms as they occur by line printing with a dot

matrix printer or provide printing of alarms, one page at a time, using typical Windows page printing.

4.3.6 Alarm Monitoring/System Control – Tree View

• Provide the ability for dynamic alarm monitoring of alarm points in real time on the system computer’s video display terminal.

• Provide color and icon shapes for each specific alarm point action of “Alarm”, “Normal”, “Trouble”, and “Shunted”.

• Access control panels in the alarm tree, like alarm points, shall also indicate if they are in the buffered mode of operation as well as any “system” related alarm such as “Tamper” or “Primary Power Loss” or Loss of communication.

• Devices connected to the communication server shall provide additional popup information as to the communication port or IP connection the device is programmed for.

• Provide a means to launch a Virtual keypad from an intrusion panel partition to monitor the physical keypad remotely and to administer programming changes via the Virtual keypad.

• The control tree shall be created by the user and allow for manual of control of all system devices. By right clicking on a device in the tree the operator is able to initiate the appropriate action from a pick list. Actions shall include but not be limited to: Acknowledge All Alarms, Clear All Alarms, Send Time & Date, Send Camera Titles, Camera to Monitor Switch, Control Camera P/T/Z, Focus, Iris, Live Video, Retrieve Video from Clip, Run Command File, Lock, Unlock, Shunt, Unshunt, Pulse, Timed Pulse, Restore to Time Zone (Door Mode), Override Online Door Mode, Initialize, Cancel Initialization, Buffer, Unbuffer, Connect Remote and Disconnect Remote from remote site. For partitions monitored by the intrusion panel the control shall include but not be limited to arm away, arm stay, disarm, refresh and provide a virtual keypad for the partition. For zones monitored by the intrusion panel the control shall include but not be limited to bypass, unbypass and refresh. Intrusion panel output control shall included activate, deactivate and refresh.

4.3.7 Operator Database

• The software shall allow the assignment of operator levels to define the system components that each operator has access to view, operate, change or delete.

• The ability to view, edit or delete cardholder sensitive information such as note fields, card number and PIN shall be definable by field per operator.

• Define the accounts that the operator has access to. • Provide the ability to log operator actions in the history files. • Provide default language to be used based on operator’s login. • Provide specified time periods that the operator can log in.



4.3.8 Panel

• Provide ability to program Action Messages and assign an alarm event priority. A specific action message may be displayed for each alarm, system alarm (communication, ground fault, power, panel reset, low voltage, panel tamper), card, or reader usage state. States shall include but not be limited to: Incorrect Password, Panel Configuration Error, Panel Remote Dial-up Failed, Panel Remote Dial-up Successful, Poll Response Alarm, Poll Response Normal, Primary Power Failure, Primary Power Normal, Tamper Switch Alarm, Tamper Switch Normal, Unsupported Panel Version, Anti-Pass back Violation, Anti-Pass back Violation Door Not Used, Anti-Pass back Violation Door Used, Card Not Found, Door Normal, Door Alarm, Door Trouble, Door Ajar, Door Locked, Door Unlocked, Duress Request Denied, Duress Request Door not Used, Duress Request Door Used, Forced Open, Free Egress Door Not Used, Free Egress Door not Verified, Free Egress Door Used, Host Grant Card Downloaded, Host Grant Door Unlocked, Invalid Format, Invalid Format Reverse Read, Invalid Pin, Invalid Site Code, Invalid Time zone, Issue Code, Never Allowed at this Door, No Second Card Presented, Site Code Verified Door Not Used, Site Code Verified Door Used Trace Card, Valid Card Door Not Used, Valid Card Door Used. Intrusion partition events including but not limited to: Alarm, Alarm Cancel, Arm Away, Arm Stay, Auto Arm, Auto Disarm, Bypass, Disarm, Early Arm, Early Disarm, Fail to Arm, Fail to Disarm, Normal, Not Ready, Part Arm, Quick Arm, Recent Close, Remote Arm, Remote Disarm, Un bypass, User Code Added, User Code Deleted, user Code Edited. Intrusion zone events including but not limited to: Alarm, Alarm Restore, Bypass, Fault, Fault Restore, Normal, Trouble, Trouble Restore, Un bypass. Intrusion output events including but not limited to: Alarm, Communication Loss, Normal, Tamper, Tamper Restore. Intrusion panel events including but not limited to: Access Denied, Automatic Test, Comm. Fail, Comm. Restore, Faults, Faults Restore, Line Restore, Line Trouble, Manual Test, Pager Restore, Pager Trouble, AC Restore, AC Trouble, Alarm, Battery Low, Battery Low Restore, Disarm, Normal, Recent Close, Reset, Panic Alarm, Power Up, Program begin, Program Changed, Program End, System Shutdown,

• System Shutdown Restore, Tamper Alarm, Tamper Restore, Test End, Test Start, Time/Date changed.

• Provide ability to program descriptions, shunt times, and momentary shunt times for all system alarm points.

• Provide ability to program descriptions, pulse times, and energize times for all system output relays used for door control and other auxiliary functions.

• Provide ability to program descriptions for all system card readers. • Monitor both supervised and non-supervised alarm points with the ability to

select by point which point shall be supervised and define if the point is a normally closed or normally open point contact.

• Provide ability to interlock any alarm point condition to an output relay. • Provide ability to interlock any alarm point condition to another alarm point.



• Provide ability to interlock any alarm point to switch a camera to a system monitor.

• Provide ability to program alarms and associate incoming alarms with related outputs.

• Provide a programmable “delay” setting up to 255 seconds for all system alarm points. The system shall not report the alarm condition until the delay setting has expired.

• Allow for up to 8 different site codes to be used in the system. • Support up to 16 readers per Intelligent Control Module.

4.3.9 Reports

• Provide reporting capability for printing of selected system transactions from the disk files by specific time and date selection, range from time and date to time and date, or from start time to end time each day of the selected date range.

• Provide feature to generate a history report for an alarm point(s) state. An alarm point state shall be defined as Normal, Alarm, Trouble, or Ajar.

• Provide feature to generate a history report of system alarms. A system alarm state shall be defined by panel and include any of the following information: communication, ground fault, power, panel reset, low voltage, panel tamper, and loop communication.

• Provide feature to generate a history report for a card(s) state. A card state shall be defined as Normal, Trace, Not Found, Anti-Pass back Violation, PIN Violation, Time Zone Violation, Site Code Violation, or Expired card. Additional search criteria shall include cardholders that meet up to at least 3-note field restriction and filter the report with defined reader location(s).

• Provide feature to generate a history report for system operator(s) activities. The report shall include time, date, operator name the device associated with the action and the type of action performed by the operator. Activities shall include but not limited to: acknowledged and cleared transactions, camera control, door mode, door and relay control such as unlock, lock; door and input control such as shunt, unshunt; login, logout, panel initialization, panel buffer and panel unbuffer.

• Provide complete database reporting of all data programmed into the system data files.

• Provide a means to define how long a card holder has been in a defined area. This report shall allow the time to be accumulated representing an attendance report. The definable filters shall include time/date range, reader(s) definition, card number, card holder and note field. The output of the report shall allow sort options to include First Name, Last Name, Event Time, and Card Number. The sorted data shall be selectable as Alpha or Numeric sorting and Ascending or Descending.

• Provide feature to generate a report based on the frequency of usage of a card. The report shall allow the operator to define a time/date period, a minimum and maximum usage limit, a means to define which reader or readers should be used to filter the report and the ability to further define the type of card to be reported on based on note field selections. This report shall also provide a disposition



function. The cards meeting the filtering criteria shall be acted upon based on the disposition setting. Disposition settings shall include but not be limited to: Report only, De-activate the card or Re-assign to a specified an access level. This report shall be available in the event scheduler. When defining when to run the report an option to select the number of previous days to run the report against shall be provided. As an example a scheduled weekly report for the last 14 days could generate allowing for an overlap of time if desired.

• Provide a means to create report templates. Report templates shall include, but not be limited to, History and Card Holder information. The templates shall be able to be assigned to a scheduler to run automatically per the scheduler settings.

4.3.10 Tracking/Muster Report

• A tracking feature shall allow the system operator to identify an area and the person(s) in that area.

• Areas shall be defined by readers representing an IN or OUT read status. • Defined areas shall provide an automatic update of how many cardholders are in

the area. • An area defined as an exit shall remove the person from the tracking area. • A view displaying all card holders in a defined tracking or muster area shall have

the ability to be sorted in columns where by clicking on the column the data in the column shall be sorted. At a minimum, the columns can be sorted by: Card Number, Status, Card Holder, Reader, and Time/Date.

• A Muster area shall be defined by a reader(s) used to “muster” individuals in the event of an emergency.

• Reports can be generated for the defined muster or tracking area. • Reports can be generated for all muster or tracking areas in the system. • Reports can be sorted on time and date, card number, card holder name or

matching note field. When sorted on notified, a page break between fields shall allow the report to be easily handled for departmental uses.

• Tracking areas can include “nested” areas. Nesting allows for various reports from a large area to smaller areas within the large area.

• A Tracking and Muster area screen shall be continually updated with the most recent card activity, therefore minimizing the time required generating a report.

• A history priming feature shall load history activities for the defined amount of hours when the software is started. This priming feature shall be implemented in the event that the system computer is offline when a muster call is initiated, thereby allowing the implementation of the tracking and muster features of the software. The history priming time shall be operator selectable in 1-hour increments up to 99 hours.

4.3.11 Floor Plan Graphic

• Provide the ability to import floor plan graphics stored in a WMF format. • Provide the ability to associate all ADV's (access, intrusion and video) to floor

plan graphics allowing the user to control and monitor the system.



• Provide the ability to link floor plan graphics together in a hierarchy fashion. • Allow multiple floor plan views to be displayed simultaneously.

4.3.12 Remote Locations

• Provide capability to place remote control panels in an offline mode. In the offline mode, the remote control panels shall retain all panel history events. The amount of historical events shall be limited to the panels’ buffer capacity.

• Provide capability to place remote control panels in an offline mode where the remote panel will automatically call to the communications computer to report system alarms or upload buffered events.

• Ability to manage at least 250 remote locations. • Provide a user-definable schedule that will automatically add cards to any

number of sites. • Provide system time schedules that the computer will use to automatically start

uploading or downloading information to the remote sites. Information to be sent to the panel shall include, but not be limited to, card database changes, time, date, and buffer condition. Information received from the panel shall include all buffered events. While connected to the remote site, the system software shall poll, verify, and report any loss of panel communication. If a site’s communication time is longer than expected, the system will automatically adjust the time schedule to allow all selected sites to be updated.

• Attaching a site to an auto-dial schedule will allow the system to automatically dial the remote site at a predetermined time. The auto-dial schedule is programmed with the ability to dial Once, Now, Hourly, Daily, Weekly, Two Weeks, Monthly, or Never to the remote site.

• Provide the ability for the operator to program when the next scheduled update will occur, based on time and date.

• Communication to remote dial-up sites shall be accomplished through the use of password protection. The remote site provides the system with a site ID; the system responds with the appropriate password. No commands or transactions occur until the communication link is verified.

• The System shall be able to receive or send information to remote access control panels on demand.

• The ability to configure how many redial attempts from the remote location shall be definable from 1 to 5.

• The ability to pause between redial attempts shall be programmable from 1 to 120 seconds.

• The ability to pause before disconnecting shall be programmable from 1 to 30 seconds.

4.3.13 Special System Functions

The manufacturer of the system shall provide in the system software the following unique applications as standard:



(a) ID Badging System/Video Image System • Allow any card data fields to be assigned to a badge. • Allow a stored cardholder image to be associated to any background. Each

cardholder shall have any one of the background layouts associated to it. • Provide the ability to create temporary or permanent badges. • Badges shall be printed without the need to assign an access level or access

control card number. Numbers and access levels may be assigned after the print process.

• Provide image export capability. Image shall be exported utilizing the cardholder’s name as the file name in .jpg format.

• Provide unlimited custom badge layouts (only limited by the hard disk capacity). • Provide 24-bit (16.7 Million) color palette for background design or foreground

text. • Provide ability to implement all fonts supported by Windows. • Provide import capabilities of background information by video camera or via

BMP, JPG, or TGA files. • Provide import capabilities of video images from compatible BMP, JPG, PCX,

or TGA file formats. • Provide for multiple bitmap images to be imported onto the badge layout. • Provide video capture capability from a compatible TWAIN device. • Provide video capture capability from a DirectX device. • Provide video capture capability from a compatible video capture device, such as

a high-resolution color camera. • Provide badges in horizontal or vertical format. • Provide capability for printout of cardholder badge by video or standard printers

supported by Windows. • Provide ability for multiple card enrollment/badging stations on networked

system. • Allow text fields up to 255 characters per field. • Allow merging of data field from card database to text field. • Allow a field to be defined for bar code usage merging data from the card

database. • Allow up to 99 different photos of the cardholder to appear on the same badge. • Provide line, rectangle, rounded rectangle, and ellipses to be created on the

backdrop with provisions for line thickness and color. • Provide signature capture or import capability for up to 99 signatures that can be

previewed in the cardholders badge or printed on the cardholder’s card. • Provide the capability to have a front and back layout selected for a cardholder

and the ability to print the card in one step (requires suitable printer) without the need to reinsert the card.

• Provide the capability to encode a magnetic stripe with information from any of the card data fields to include, but not be limited to: First Name, Last Name, Card Number, Activation date, Expiration Date or any data from the card holders note field.



(b) Networking

• Provide networking capabilities (LAN or WAN) as allowed by the computer’s operating system license.

• Provide the ability for a network system to support concurrent users up to the license limit.

• The workstation shall have the same UI (user interface) functionality as the Server, except the workstation shall not be able to perform database maintenance functions.

(c) Visitor Management

• Integration with visitor management system shall be provided as an option. • The access control system shall provide the ability to identify cards, card holders

and access levels that can be used by the visitor management systems. • When a Visit is registered by visitor management system, the information

regarding Assigned Card, Access Area, Host & Visitor company information is passed on to the access control system.

• The Access card assigned to visitor in visitor management system is assigned to the respective cardholder in the access system. The card’s Access level is updated as assigned in visitor management system and made active.

• When the Visit ends or on Close of Visit, the visitor (cardholder) is deleted in the access control system. The Card is made Inactive and Expiration date is set to that day.

5. Power Supply Unit

• Suitable power supply unit for controller 6. Battery for Controller Panel

• 7AH/12V 7. Contactless Smart Access Control Readers

• Card readers shall be "single-package" type, combining controller, electronics and antenna in one package in the following configurations:

• Contactless Smart Card Reader, Special Mounting (applications with a minimum of mounting space):

• Provide surface mounting style 13.56 MHz contactless smart card readers suitable for minimal space mounting configurations as shown on the project plans.

• Contactless smart card readers shall comply with ISO 15693, ISO 14443A (CSN), and ISO 14443B and shall read credentials that comply with these standards.

• Contactless smart card readers shall output credential data in compliance with the SIA AC-01 Wiegand standard as follows:



i) Reads standard proximity format data from smart cards and outputs data as encoded. ii) Reads card serial number (CSN) of a MIFARE card with configurable outputs as 26-bit, 32-bit, 34-bit, 40-bit, or 56-bit.

• Data security with smart cards shall use 64-bit authentication keys to reduce the risk of compromised data or duplicate cards. The contactless smart card reader and smart cards shall require matching keys in order to function together. All RF data transmission between the card and the reader shall be encrypted, using a secure algorithm. Card readers shall be provided with keys that are compatible with the smart cards.

• The reader shall be of potted, polycarbonate material, sealed to a NEMA rating of 4X (IP65).

• The contactless smart card reader shall provide the ability to change operational features in the field through the use of a factory-programmed command card. Additionally, firmware may be updated by flashing the reader. Command card operational programming options shall include: Output configurations, LED & Audio configurations, Keypad configurations

• Contactless smart card readers shall provide the following programmable audio/visual indication: i) An audio transducer shall provide various tone sequences to signify: access granted, access denied, power up, and diagnostics. ii) A high-intensity light bar shall provide clear visual status red/green/amber) that is visible even in bright sunlight.

• Typical contactless smart card read range shall be: 2” – 3” (5.0 – 7.6 cm) using Smart card, 1” (2.5 cm) using Smart Key Fob, 1” – 1.5” (2.5 – 3.8 cm) using Smart + HID 125KHz Prox card, 1” – 2” (2.5 – 5.0 cm) using MIFARE Card (card serial number only)

• Contactless smart card readers shall meet the following electrical specifications: i) Operating voltage: 10 – 16 VDC, reverse voltage protected. Linear power supply recommended. ii) Current requirements: (average/peak) 61/178mA @ 12 VDC

• Contactless smart card readers shall meet the following certifications: UL 294, Canada/UL 294, FCC Certification, Canada Radio Certification, EU and CB Scheme Electrical Safety, CE Mark (Europe)

• Contactless smart card readers shall meet the following environmental specifications: Operating temperature: 35 to 65 degrees C, Operating humidity: 5% to 95% relative humidity non-condensing, Weatherized design suitable to withstand harsh environments

7.11 Contactless smart card reader cabling requirements shall be: • Cable distance: (Wiegand): 500 feet (150m) • Cable type: 5-conductor #22 AWG with overall shield • Standard reader termination: 18” (.5m) cable pigtail



7.14 Warranty of contactless smart card readers shall be lifetime against defects in materials and workmanship. 7.15 Contactless smart card reader shall be compatible with selected card media. 8. Biometric Fingerprint Reader Using 13.56 MHz contactless smart card technology, this should provide users with new options for supporting multi-authentication of identity. Users can combine contactless card presentation with a fingerprint biometric. Personal identification numbers (PIN) can be used with a contactless card presentation. The products provide three levels of fingerprint verification. During the enrollment process, the enrolment is connected to a PC via a USB port. The software will guide the user to place a finger on the sensor. The fingerprint template is collected at the unit and immediately transferred to the card. During this enrollment process, the fingerprint template is stored ONLY on the card; it is never transmitted to an external host. During verification at the door, the LCD graphical display assists the user with instructions about finger placement on the biometric sensor 8.1 Security 64-bit authentication keys are extremely secure. Readers and cards require matching keys to function. All RF data transmission between the card and keypad reader is encrypted, using a secure algorithm. The key management system reduces the risk of compromised or duplicated cards. Cards and keypad readers with site-specific keys are optionally available from the factory. 8.2 Audiovisual Indication Audio transducer should provide configurable tone sequences to signify access granted, access denied, power up, and configuration card read. A light bar provides a clear visual status indication in red, green, or amber. All units contain an LED to light the sensor area if the biometric option is included. 8.3 Graphical Display The backlit graphical LCD display should offer a 60 x 18 mm viewing area, 120 x 32 resolution. Fully customizable, the display should also describe the function of the user function keys. 9. Finger Print enrollment Kit Enrollment software should be included with the enrolment unit which is required to write the biometric template to the cards. The template never enters the PC – it is collected by the reader and written to the smart card all in one simple process. To alleviate privacy and database management concerns, the biometric template is



stored on the smart card rather than in the unit.

10. Contact less Smart Card

Provide Smart Contactless Smart Card Credentials. Access cards shall be used with access readers to gain entry to access controlled portals (e.g.; doors, gates, turnstiles) and to hold information specific to the user. The card shall be available in single technology or multiple technology configurations. Cards shall meet the following criteria:

• The card shall meet the following standards for contactless smart cards: ISO 15693 and ISO 14443B2.

• The card shall meet ISO 7810 specifications for length, width, thickness, flatness, card construction and durability, and shall be in a form suitable for direct two-sided dye-sublimation or thermal transfer printing on the specified badge printer.

• Presentation to the access control reader at any angle within a minimum of one (1) inch shall result in an accurate reading of the card.

• Unique 64-bit, fixed card serial number, used for anti-collision and key diversification.

• The card shall support capability, with a minimum of 2 Kbits [256 bytes] of EEPROM memory or 16 Kbits [2048 bytes] of EEPROM memory. The 2 Kbit card shall have a minimum of 2 Application Areas, and the 16Kbit shall have either (specify) 2 or 16 Application Areas to support future applications. Data retention shall be 10 years, nominal. Wiegand card data up to 84 bits in length shall be factory programmed in Application Area 1 for use with access control systems.

• Each Application Area on the card shall be secured with a 64-bit unique, diversified security key, such that data stored in that area cannot be accessed or modified until the card and reader have completed a mutual authentication process.

• The card shall be capable of completing any write operation, even if the card is removed from the RF field during that operation.

• Cards shall be encoded with Wiegand card data, at the factory. • The card shall not carry any identification showing the location of the property

unless otherwise specified herein. • The card shall be capable of accepting a slot punch on one end, allowing it to be

hung from a strap/clip in a vertical orientation. 11. Lanyard, Plastic Wallet, Printed

• Suitable for above 12. Electro magnetic lock with sensor

• Magnet : 500L X 42H X 26Dmm • Armature Plate : 185L X 38W X 12.5Tmm • Surface Mounted • Current Draw : 500ma/12V, 250ma/24V • Dual Voltage : 12V / 24VDC



• Timer , Lock Status Sensor, LED • LED and Door Status Sensor • Holding Force : ABOUT 600LBS. • Built-In Voltage Spike Suppressor • CE Approved • UL Listed

13. Mounting Plate Exit Buttons

• Mushroom Type Press To Exit • Face Plate : Stainless Steel/Plastic

14. Door Springs/Door Closure

• Suitable for existing doors

IV Fire Detection Alarm & PA System The equipment shall comprise of a microprocessor controlled, intelligent reporting fire alarm equipment to form a complete, operative, coordinated system. It shall include, but not be limited to, alarm initiating devices, alarm notification appliances, Fire Alarm Control Panel (FACP), auxiliary control devices, annunciators, and wiring. The fire alarm system shall comply with requirements of NFPA Standard 72 for Protected Premises Signaling Systems The system shall be electrically supervised and monitor the integrity of all conductors. The fire alarm system shall be manufactured by an ISO 9001 certified company and meet the requirements of BS EN9001: ANSI/ASQC Q9001-1994. The system and its components shall be Underwriters Laboratories, Inc. listed under the appropriate UL testing standard. Basic System Functional Operation When a fire alarm condition is detected and reported by one of the system initiating devices, the following functions shall immediately occur:

1. The system alarm LED on the system display shall flash. 2. A local piezo electric signal in the control panel shall sound. 3. A backlit LCD display shall indicate all information associated with the fire alarm

condition, including the type of alarm point and its location within the protected premises.

4. Printing and history storage equipment shall log the information associated each new fire alarm control panel condition, along with time and date of occurrence.

5. All system output programs assigned via control-by-event interlock programming to be activated by the particular point in alarm shall be executed, and the associated system outputs (notification appliances and/or relays) shall be activated.



1. Fire Alarm Control Panel (FACP):

1.1 Main FACP or network node shall contain a microprocessor based Central Processing Unit (CPU) and power supply in an economical space saving single board design. The CPU shall communicate with and control the following types of equipment used to make up the system: intelligent addressable smoke detectors, addressable modules, printer, annunciators, and other system controlled devices. The panel shall be latest UL-864, 9th edition listed.

1.2 Operator Control

1.2.1 Acknowledge Switch: Activation of the control panel acknowledge switch in response to new alarms

and/or troubles shall silence the local panel piezo electric signal and change the alarm and trouble LEDs from flashing mode to steady-ON mode. If multiple alarm or trouble conditions exist, depression of this switch shall advance the LCD display to the next alarm or trouble condition. Depression of the Acknowledge switch shall also silence all remote annunciator piezo sounders.

1.2.2 Alarm Silence Switch:

Activation of the alarm silence switch shall cause all programmed alarm notification appliances and relays to return to the normal condition after an alarm condition. The selection of notification circuits and relays that are silenceable by this switch shall be fully field programmable within the confines of all applicable standards.

1.2.3Alarm Activate (Drill) Switch: The Alarm Activate switch shall activate all notification appliance circuits. The drill function shall latch until the panel is silenced or reset.

1.2.4 System Reset Switch: Activation of the System Reset switch shall cause all electronically-latched initiating devices, appliances or software zones, as well as all associated output devices and circuits, to return to their normal condition.

1.3 System Capacity and General Operation

• The control panel or each network node shall provide, or be capable of expansion to 636 intelligent/addressable devices.

• The control panel or each network node shall include Form-C alarm, trouble, supervisory, and security relays rated at a minimum of 2.0 amps @ 30 VDC.

• The system shall include a full featured operator interface control and annunciation panel that shall include a backlit Liquid Crystal Display (LCD), individual color coded system status LEDs, and an alphanumeric keypad with easy touch rubber keys for the field programming and control of the fire alarm system.

• The system shall be programmable, configurable, and expandable in the field without the need for special tools, PROM programmers or PC based programmers.

• The system shall allow the programming of any input to activate any output or group



of outputs. • The FACP shall support up to 20 logic equations, including "and," "or," and

"not," or time delay equations to be used for advanced programming. • The FACP or each network node shall provide the following features:

a. Drift compensation to extend detector accuracy over life. Drift compensation shall also include a smoothing feature, allowing transient noise signals to be filtered out.

b. Detector sensitivity test, meeting requirements of NFPA 72. c. Maintenance alert, with two levels (maintenance alert/maintenance urgent),

to warn of excessive smoke detector dirt or dust accumulation. d. Nine sensitivity levels for alarm, selected by detector. The alarm level range

shall be .5 to 2.35 percent per foot for photoelectric detectors and 0.5 to 4.0 percent per foot for multisensor detectors. The system shall also support sensitive advanced detection laser detectors with an alarm level range of .03 percent per foot to 1.0 percent per foot. The system shall also include up to nine levels of Pre-alarm, selected by detector, to indicate impending alarms to maintenance personnel.

e. The ability to display or print system reports. f. Alarm verification, with counters and a trouble indication to alert

maintenance personnel when a detector enters verification 20 times. g. Rapid manual station reporting (under 3 seconds) and shall meet NFPA 72

requirements for activation of notification circuits within 10 seconds of initiating device activation.

i. Periodic detector test, conducted automatically by the software. j. Self optimizing pre-alarm for advanced fire warning, which allows each

detector to learn its particular environment and set its prealarm level to just above normal peaks.

k. Cross zoning with the capability of counting: two detectors in alarm, two software zones in alarm, or one smoke detector and one thermal detector.

l. Control-by-time for non-fire operations, with holiday schedules. n. Day/night automatic adjustment of detector sensitivity.

• Network Communication

The FACP shall be capable of communicating on a Local Area Network (LAN), a firmware package that utilizes a peer-to-peer, inherently regenerative communication format and protocol.

1.4 Central Microprocessor

• The microprocessor shall be a state-of-the-art, high speed, 16-bit RISC device and it

shall communicate with, monitor and control all external interfaces. It shall include an EPROM for system program storage, Flash memory for building-specific program storage, and a "watch dog" timer circuit to detect and report microprocessor failure.

• The microprocessor shall contain and execute all control-by-event programs for



specific action to be taken if an alarm condition is detected by the system. Control- by-event equations shall be held in non-volatile programmable memory, and shall not be lost even if system primary and secondary power failure occurs.

• The microprocessor shall also provide a real-time clock for time annotation of system displays, printer, and history file. The time-of-day and date shall not be lost if system primary and secondary power supplies fail. The real time clock may also be used to control non-fire functions at programmed time-of-day, day-of-week, and day-of-year.

• A special program check function shall be provided to detect common operator errors.

• An auto-program (self-learn) function shall be provided to quickly install initial functions and make the system operational.

• For flexibility and to ensure program validity, an optional Windows(TM) based program utility shall be available. This program shall be used to off-line program the system with batch upload/download, and have the ability to upgrade the manufacturers (FLASH) system code changes. This program shall also have a verification utility, which scans the program files, identifying possible errors. It shall also have the ability to compare old program files to new ones, identifying differences in the two files to allow complete testing of any system operating changes. This shall be in incompliance with the NFPA 72 requirements for testing after system modification.

1.5 System Display

• The system shall support the following display mode options: a. 80 character display option. The display shall include an 80-character backlit

alphanumeric Liquid Crystal Display (LCD) and a full PC style QWERTY keypad for complete programming/operation without PC.

b. 640-character display option. The design of the CPU shall provide for a configuration with the 640 Character display mounted on the front of the CPU in place of the standard 80-character display.

• The display shall provide all the controls and indicators used by the system operator: The 80-character display shall include the following operator control switches:

Acknowledge, Alarm Silence, Alarm Activate (drill), System Reset, and Lamp Test. • The display shall annunciate status information and custom alphanumeric labels for

all intelligent detectors, addressable modules, internal panel circuits, and software zones.

• The display shall also provide Light-Emitting Diodes. The 80-character display shall provide 12 Light-Emitting-Diodes (LEDs), that indicate the status of the following system parameters: AC Power, Fire Alarm, Prealarm Warning, Security Alarm, Supervisory Signal, System Trouble, Disabled Points, Alarm Silenced, Controls Active, Pre-Discharge, Discharge and Abort.

• The display shall have QWERTY type keypad. a. The 80-character display keypad shall be an easy to use QWERTY type keypad,

similar to a PC keyboard. This shall be part of the standard system and have the capability to command all system functions, entry of any alphabetic or



numeric information, and field programming. Two different password levels shall be provided to prevent unauthorized system control or programming.

b. The 640-character display shall use 10 "soft" keys for screen navigation or to accomplish dedicated programming functions. Full programming access shall require use of a laptop and the proper programming utility.

• The system shall support the display of battery charging current and voltage on the 80-character LCD display.

1.6 Signaling Line Circuits (SLC)

• Each FACP or FACP network node shall support up to two SLCs. Each SLC interface shall provide power to and communicate with up to 159 intelligent detectors (ionization, photoelectric or thermal) and 159 intelligent modules (monitor or control) for a loop capacity of 318 devices. The addition of the optional second loop shall double the device capacity, supporting a total of 636 devices. Each SLC shall be capable of NFPA 72 Style 4, Style 6, or Style 7 (Class A or B) wiring.

• CPU shall receive analog information from all intelligent detectors to be processed to determine whether normal, alarm, prealarm, or trouble conditions exist for each detector. The software shall automatically maintain the detector's desired sensitivity level by adjusting for the effects of environmental factors, including the accumulation of dust in each detector. The analog information shall also be used for automatic detector testing and for the automatic determination of detector maintenance requirements.

1.7 Serial Interfaces

• RS-485 port shall be provided for panel repeaters (optional) and RS-232 port for serial printer interface.

1.8 Voice Command Center (VCC)

• The facility shall have an emergency voice alarm communication system. Digitally

stored message sequences shall notify the building occupants that a fire or life safety condition has been reported. A Message generator shall be capable of automatically distributing up to four (4) simultaneous, unique messages to appropriate audio zones within the facility based on the type and location of the initiating event. The Fire Command Center (FCC) shall also support Emergency manual voice announcement capability for both system wide or selected audio zones, and shall include provisions for the system operator to override automatic messages system wide or in selected zones.

a. The digital audio message generator shall be of reliable, non-moving parts, and support the digital storage of at least 16 or 32 minutes of tones and emergency messages, shall support programming options to string audio segments together to create up to 1000 messages, or to loop messages and parts of messages to repeat for pre-determined cycles or indefinitely.

b. The audio portion of the system shall sound the proper audio signal (consisting of tone, voice, or tone and voice) to the appropriate zones.



c. Notification Appliance Circuits (NAC) speaker circuits shall be arranged such that there is a minimum of one speaker circuit per floor of the building or smoke zone which ever is greater.

d. Audio amplifiers and tone generating equipment shall be electrically supervised for normal and abnormal conditions.

e. Speaker circuits shall be electrically supervised for open and short circuit conditions. If a short circuit exists on a speaker circuit, it shall not be possible to activate that circuit.

f. Speaker circuits shall be either 25 VRMS or 70VRMS. Speaker circuits shall have 20% space capacity for future expansion or increased power output requirements.

1.9 Enclosures:

• The control panel shall be housed in a UL-listed cabinet suitable for surface or semi-flush mounting. The cabinet and front shall be corrosion protected, given a rust-resistant prime coat, and manufacturer's standard finish.

• The back box and door shall be constructed of 0.060 steel with provisions for electrical conduit connections into the sides and top.

• The door shall provide a key lock and shall include a glass or other transparent opening for viewing of all indicators. For convenience, the door may be site configured for either right or left hand hinging.

1.10 Power Supply:

A high tech off-line switching power supply shall be available for the fire alarm control panel or network node and provide 6.0 amps of available power for the control panel and peripheral devices.

Provisions will be made to allow the audio-visual power to be increased as required by adding modular expansion audio-visual power supplies.

Positive-Temperature-Coefficient (PTC) thermistors, circuit breakers, or other over-current protection shall be provided on all power outputs. The power supply shall provide an integral battery charger for use with batteries up to 55 AH or may be used with an external battery and charger system. Battery arrangement may be configured in the field.

The power supply shall continuously monitor all field wires for earth ground conditions, and shall have the following LED indicators: Ground Fault LED, AC Power Fail LED, NAC on LED

The main power supply shall operate on 230 VAC, 50 Hz, and shall provide all necessary power for the FACP.

The main power supply shall provide a battery charger using dual-rate charging techniques for fast battery recharge and be capable of charging batteries up to 200 AH.

All circuits shall be power-limited, per UL864 requirements.

1.11 Specific System Operations



• Smoke Detector Sensitivity Adjust: A means shall be provided for adjusting the sensitivity of any or all addressable intelligent detectors in the system from the system keypad. Sensitivity range shall be within the allowed UL window and have a minimum of 9 levels.

• Alarm Verification: Each of the intelligent addressable smoke detectors in the system may be independently selected and enabled to be an alarm verified detector. The alarm verification delay shall be programmable from 5 to 30 seconds and each detector shall be able to be selected for verification. The FACP shall keep a count of the number of times that each detector has entered the verification cycle. These counters may be displayed and reset by the proper operator commands.

• Point Disable: Any addressable device or conventional circuit in the system may be enabled or disabled through the system keypad.

• Point Read: The system shall be able to display or print the following point status diagnostic functions: Device status, Device type, Custom device label, View analog detector values, Device zone assignments, All program parameters

• System Status Reports: Upon command from an operator of the system, a status report will be generated and printed, listing all system status.

• System History Recording and Reporting: The fire alarm control panel shall contain a history buffer that will be capable of storing up to 800 events. Up to 200 events shall be dedicated to alarm and the remaining events are general purpose. Systems that do not have dedicated alarm storage, where events are overridden by non-alarm type events, are not suitable substitutes. Each of these activations will be stored and time and date stamped with the actual time of the activation. The contents of the history buffer may be manually reviewed, one event at a time, or printed in its entirety. The history buffer shall use non-volatile memory. Systems that use volatile memory for history storage are not acceptable substitutes.

• Automatic Detector Maintenance Alert: The fire alarm control panel shall automatically interrogate each intelligent detector and shall analyze the detector responses over a period of time. If any intelligent detector in the system responds with a reading that is above or below normal limits, then the system will enter the trouble mode, and the particular detector will be annunciated on the system display, and printed on the optional printer. This feature shall in no way inhibit the receipt of alarm conditions in the system, nor shall it require any special hardware, special tools or computer expertise to perform.

• Pre-Alarm Function: The system shall provide two levels of pre-alarm warning to give advance notice of a possible fire situation. Both pre-alarm levels shall be fully field adjustable. The first level shall give an audible indication at the panel. The second level shall give an audible indication and may also activate control relays. The system shall also have the ability to activate local detector sounder bases at the pre-alarm level, to assist in avoiding nuisance alarms.

• Software Zones: The FACP shall provide 100 software zones, 10 additional special function zones, 10 releasing zones, and 20 logic zones.

• The fire alarm control panel shall include a walk test feature. It shall include the ability to test initiating device circuits and notification appliance circuits from the field without returning to the panel to reset the system. Operation shall be as follows:



a. Alarming an initiating device shall activate programmed outputs, which are selected to participate in walk test, for 3 seconds.

b. Introducing a trouble into the initiating device shall activate the programmed outputs for 8 seconds.

c. All devices tested in walk test shall be recorded in the history buffer. • Supervisory Operation

An alarm from a supervisory device shall cause the appropriate indication on the system display, light a common supervisory LED, but will not cause the system to enter the trouble mode.

• Signal Silence Operation The FACP shall have the ability to program each output circuit (notification, relay,

speaker etc) to deactivate upon depression of the signal silence switch. • Non-Alarm Input Operation

Any addressable initiating device in the system may be used as a non-alarm input to monitor normally open contact type devices. Non-alarm functions are a lower priority than fire alarm initiating devices.

• Combo Zone A special type code shall be available to allow waterflow and supervisory devices to

share a common addressable module. Waterflow devices shall be wired in parallel, supervisory devices in series.

1.12 SYSTEM Peripherals:

1.12.1 Alphanumeric LCD Type Annunciator: (optional)

• The alphanumeric display annunciator shall be a supervised, remotely located back-lit LCD display containing a minimum of eighty (80) characters for alarm annunciation in clear English text.

• The LCD annunciator shall display all alarm and trouble conditions in the system.

• An audible indication of alarm shall be integral to the alphanumeric display. • The display shall be UL listed for fire alarm application. • It shall be possible to connect up to 32 LCD displays and be capable of

wiring distances up to 6,000 feet from the control panel. • The annunciator shall connect to a separate, dedicated "terminal mode" EIA-

485 interface. This is a two-wire loop connection and shall be capable of distances to 6,000 feet. Each terminal mode LCD display shall mimic the main control panel.

• The system shall allow a minimum of 32 terminal mode LCD annunciators. Up to 10 LCD annunciators shall be capable of the following system functions: Acknowledge, Signal Silence and Reset, which shall be protected from unauthorized use by a key switch or password.

• The LED annunciator shall offer an interface to a graphic style annunciator and provide each of the features listed above.

1.12.2 Field Wiring Terminal Blocks



For ease of service all panel I/O wiring terminal blocks shall be removable, plug-in

types. 1.12.3. Printer (optional)

• The printer shall provide hard-copy printout of all changes in status of the

system and shall time-stamp such printouts with the current time-of-day and date. The printer shall be standard carriage with 80-characters per line and shall use standard pin-feed paper.

• The system shall have a strip printer capable of being mounted directly in the main FACP enclosure. Alarms shall be printed in easy-to-read RED, other messages, such as a trouble, shall be printed in BLACK. This printer shall receive power from the system power supply and shall operate via battery back-up if AC mains are lost. The strip printer shall be UL 864 listed.

1.13 System Components – Addressable Devices

• Addressable devices shall use simple to install and maintain decade, decimal address switches. Devices shall be capable of being set to an address in a range of 001 to 150. • Detectors shall be intelligent (analog) and addressable, and shall connect with

two wires to the fire alarm control panel Signaling Line Circuits. • Addressable smoke and thermal detectors shall provide dual alarm and

power/polling LEDs. Both LEDs shall flash green under normal conditions, indicating that the detector is operational and in regular communication with the control panel, and both LEDs shall be placed into steady red illumination by the control panel, indicating that an alarm condition has been detected. If required, the LED flash shall have the ability to be removed from the system program. An output connection shall also be provided in the base to connect an external remote alarm LED.

• The fire alarm control panel shall permit detector sensitivity adjustment through field programming of the system. The panel on a time-of-day basis shall automatically adjust sensitivity.

• Using software in the FACP, detectors shall automatically compensate for dust accumulation and other slow environmental changes that may affect their performance. The detectors shall be listed by UL as meeting the calibrated sensitivity test requirements of NFPA Standard 72, Chapter 7.

• The detectors shall be ceiling-mount and shall include a separate twist-lock base with tamper proof feature. Bases shall include a sounder base with a built-in (local) sounder rated at 85 DBA minimum, a relay base and an isolator base designed for Style 7 applications.

• The detectors shall provide a test means whereby they will simulate an alarm condition and report that condition to the control panel

• Detectors shall also store an internal identifying type code that the control panel shall use to identify the type of device.



• Detectors will operate in an analog fashion, where the detector simply measures its designed environment variable and transmits an analog value to the FACP based on real-time measured values. The FACP software, not the detector, shall make the alarm/normal decision, thereby allowing the sensitivity of each detector to be set in the FACP program and allowing the system operator to view the current analog value of each detector.

• Addressable devices shall store an internal identifying code that the control panel shall use to identify the type of device.

• A magnetic test switch shall be provided to test detectors and modules. • Addressable modules shall mount in a 4-inch square (101.6 mm square), 2-

1/8 inch (54 mm) deep electrical box. 2. Graphics Station Software (Network Central Station) Software Features

• Windows® XP Professional operating system. • Mouse control • Vectors to a screen displaying an alarm with or without operator intervention. • Cursor changes automatically to indicate on-screen action areas. • New and Acknowledged Event boxes display all off-normal status simultaneously

with graphic screens. • Operator log-on with response tracking. • History Manager records operator, event, and response with time-and-date stamp to

hard drive. • An unlimited number of events can be stored in the history manager. • A complete library of device icons is included. • Custom device icons can be created in the field. • Add, edit, and delete devices and screens in the field. • Link devices or system events to voice (*.wav), text, or bitmap files. • All software backed up on CD-RW. • Read Status/Program/Edit window – network points (online). • Walk-test over the network • Up to five states can be visually represented for each input device: Normal, Trouble,

Alarm, Pre-Alarm (detectors), Disabled. • Up to four states can be visually represented for each output device: Normal,

Trouble, Active, Disabled. • Up to two states can be visually represented for each System Trouble: Normal,

Trouble. • Off-Normal Event window (color coded). • Network-wide Disabled Device window. • Mini-History viewer, last 1,000 events (color coded). • Upload/Download Panel databases over the network. • Download Panel application code over the network. • Login/Logout/Change Password.



• Logs in history any programming changes. • GSP (Graphic Setup Program) to import DWG-formatted (AutoCAD®) files to

BMP. • Graphic Editing and Navigation aids (on-site modifiable). • Programmable Alarm and Trouble tones (variable frequency). • Control ON/OFF all networked Panel output points. • Individual Enable/Disable or Group Enable/Disable all networked points and

zones. • Archived history files.

3. Control Module

• Addressable control modules shall be provided to supervise and control the operation of one conventional NACs of compatible, 24 VDC powered, polarized audio/visual notification appliances.

• Audio/visual power shall be provided by a separate supervised power circuit from the main fire alarm control panel or from a supervised UL listed remote power supply.

• The control module shall be suitable for pilot duty applications and rated for a minimum of 0.6 amps at 30 VDC. 4. Battery for Panel

• The battery shall have sufficient capacity to power the fire alarm system for not less than twenty-four hours plus 5 minutes of alarm upon a normal AC power failure.

• The batteries are to be completely maintenance free. • If necessary to meet standby requirements, external battery and charger systems may

be used. 5. PC (Network Control Station) The Network Control Station (NCS) is a high-performance desktop computer. It runs under the user-friendly Windows® environment. Pentium®-based computer consisting of:

• CPU shall be a 2.8 Ghz or faster Pentium 4. • RAM shall be 1GB or more. • Hard disk shall be a 80 GB 7200 RPM or larger. • DVD RW drive. • Monitor shall be 17” 1024 x 768 or larger. • 2 button mouse. • Standard 101-keyboard layout and IBM-compatible keyboard. • Backup to either Tape or Optical disk. • 2 Serial communication ports or Ethernet port. • 1 Parallel port,1 USB port



• Windows 2003 Server/Windows XP SP2/Windows 2000 Server SP4/Windows 2000 Professional SP4.

6. Photoelectric Smoke Detector

• The detectors shall use the photoelectric (light-scattering) principal to measure smoke density and shall, on command from the control panel, send data to the panel representing the analog level of smoke density.

• Photoelectric smoke detectors shall be a 24 VDC, two wire, ceiling-mounted, light scattering type using an LED light source.

• Each detector shall contain a remote LED output and a built-in test switch. • Detector shall be provided on a twist-lock base. • It shall be possible to perform a calibrated sensitivity and performance test on the

detector without the need for the generation of smoke. The test method shall test all detector circuits.

• A visual indication of an alarm shall be provided by dual latching Light Emitting Diodes (LEDs), on the detector, which may be seen from ground level over 360 degrees. These LEDs shall flash at least every 10 seconds, indicating that power is applied to the detector.

• The detector shall not go into alarm when exposed to air velocities of up to 3000 feet (914.4 m) per minute.

• The detector screen and cover assembly shall be easily removable for field cleaning of the detector chamber.

• All field wire connections shall be made to the base through the use of a clamping plate and screw.

7. Acclimate Smoke Detector

• The intelligent multi criteria Acclimate detector shall be an addressable device that is designed to monitor a minimum of photoelectric and thermal technologies in a single sensing device. The design shall include the ability to adapt to its environment by utilizing a built-in microprocessor to determine it's environment and choose the appropriate sensing settings. The detector design shall allow a wide sensitivity window, no less than 1 to 4% per foot obscuration. This detector shall utilize advanced electronics that react to slow smoldering fires and thermal properties all within a single sensing device.

• The microprocessor design shall be capable of selecting the appropriate sensitivity levels based on the environment type it is in and then have the ability to automatically change the setting as the environment changes

• The intelligent multi criteria detection device shall include the ability to combine the signal of the thermal sensor with the signal of the photoelectric signal in an effort to react hastily in the event of a fire situation. It shall also include the inherent ability to distinguish between a fire condition and a false alarm condition by examining the characteristics of the thermal and smoke sensing chambers and comparing them to a database of actual fire and deceptive phenomena.



8. Laser Detector

• The intelligent laser photo smoke detector shall be a spot type detector that incorporates an extremely bright laser diode and an integral lens that focuses the light beam to a very small volume near a receiving photo sensor. The scattering of smoke particles shall activate the photo sensor.

• The laser detector shall have conductive plastic so that dust accumulation is reduced significantly.

• The intelligent laser photo detector shall have nine sensitivity levels and be sensitive to a minimum obscuration of 0.03 percent per foot.

• The laser detector shall not require expensive conduit, special fittings or PVC pipe. • The intelligent laser photo detector shall support standard, relay, isolator and

sounder detector bases. • The laser photo detector shall not require other cleaning requirements than those

listed in NFPA 72. Replacement, refurbishment or specialized cleaning of the detector head shall not be required.

• The laser photo detector shall include two bicolor LEDs that flash green in normal operation and turn on steady red in alarm.

9. Manual Call Point

• Manual fire alarm stations shall be non-code, non-break glass type, equipped with key lock so that they may be tested without operating the handle.

• Stations must be designed such that after an actual activation, they cannot be restored to normal except by key reset.

• An operated station shall automatically condition itself so as to be visually detected, as operated, at a minimum distance of 100 feet (30.5 m) front or side.

• Manual stations shall be constructed of high impact Lexan, with operating instructions provided on the cover. The word FIRE shall appear on the manual station in letters one half inch (12.7 mm) in size or larger.

10. Hooters

• Electronic sounders shall operate on 12/24 VDC nominal. • Electronic sounders shall be field programmable without the use of special tools, at a

sound level of at least 90 dBA measured at 10 feet from the device. • Shall be flush or surface mounted as shown. • Listed to UL 1971

11. Flashers

• Shall consist of a xenon flash tube and associated lens/reflector system flashing at

1 Hz over the strobe’s entire operating voltage range 16V-33V DC. • The maximum pulse duration shall be 2/10 of one second. • Strobe intensity shall meet the requirements of UL 1971.



• The flash rate shall meet the requirements of UL 1971. 12. Public Address system It shall be an integrated voice evacuation cum announcement system mounted in the Fire alarm Panel. The VCC and one 100W UL-listed amplifier with microphone and speakers, wiring, etc. form the entire supervised system. 13. Speakers

• All speakers shall operate on 70 VRMS or with field selectable output taps from 0.5 to 2.0 Watts.

• Speakers in corridors and public spaces shall produce a nominal sound output of 84 dBA at 10 feet (3m).

• Frequency response shall be a minimum of 400 HZ to 4000 HZ. • The back of each speaker shall be sealed to protect the speaker cone from damage

and dust. 14. Microphone

• Built-in with the digital Voice Command Center (VCC). V. Object Alarm & Tracking System

1. General

The Object Alarm & Tracking System shall be RFID based. Wireless, long life, battery operated transmitters (Tags) shall be fitted to either artworks, the cabinets housing such artworks or to plinths supporting the artworks. Artworks on display or in storage shall be monitored. The system shall be completely wireless at floor level. There shall be a covert receiver (Reader) network located in ceiling voids, under floors, behind walls or in gallery portals to receive the transmissions. This network shall collect all tag message traffic and pass it back to a Windows™ based application. The application shall present the information in both tabular and graphical formats. It shall raise audible and visual alarms depending on the type of event. The text presented to the security controllers shall be customizable as shall be the colors representing the different types of events.

1.1 Reader with all accessories (Receiver) The receivers shall work in the 433MHz frequency. Receivers shall be low voltage DC devices with low power consumption. Receivers shall be wired and powered locally in stand-alone or group asynchronous networks. Each network shall be individually identifiable (254 possible IDs) and each receiver shall have a 255 possible unique IDs. Receivers shall have local status lights to show operational information. They shall be sufficiently compact to be mounted covertly wherever possible.



Receivers networks shall be modular, allowing for the easy addition of subsequent units should the need arise in future. Receivers shall have range adjustment between 1 and 200 metres (depending on antenna design) through software control. Receivers shall be programmable through the monitoring software. They shall incorporate internal modes for the measurement of environmental radio noise, local voltage levels. Receivers shall include methods for detecting radio jamming through the software interface. The software shall report this as a receiver fault within seconds of the event. Receivers shall report the signal strength of every tag transmission to the software. 1.2 Active Tags The Tags for both Objects as well as Display cases shall be of an Active RFID design and function in the 433MHz band. They shall have both FCC and EC approval certificates. They shall include a battery that offers long life times of 5 years or more. They shall be capable of transmitting a health message once in each 15-second period for this lifetime. They shall have the ability to be supplied with other transmission intervals such as 1.5s or 30s. Tags shall come in various designs, specific to detection of Movement on artworks, Door Open on cabinets, duress or panic for personnel through a key-fob design and various other integration options as detailed below. Tags shall be able to distinguish movement and vibration from non-motion and report this as a “Motion” event. The tags shall have the option of ‘orientation specific sensitivity’ allowing the operator to mount the tags with sensitivity suitable for the specific application. Other sensitivity control shall be available through the monitoring software. Tags shall optionally have the ability to detect Tamper when fitted with a magnetic device. Removal of the magnet shall cause the Tag to transmit a burst of messages reporting “Tamper” event. Both ‘Motion’ and ‘Tamper’ events shall be capable of being reported both separately and simultaneously. The software shall treat this as separate events. The Tags shall record internally their age (e.g. the number of transmissions), the number of alarm events and the number of tamper events. This shall be reported upon each transmission to the monitoring software. Where Tags are used to protect cabinets, the state of the magnetic switch shall be reported to the software as OPEN or CLOSED and thus the software shall monitor the State of EVERY cabinet door independently, reporting any and all OPEN states. Where Tags are used to protect cabinets, they shall be attached by a method that does not pose any risk to the artwork contained in said cabinets and shall be mounted in a device of a



design that facilitates the easy removal and replacement of tags when their lifetime is exceeded. The tags shall be capable of being uniquely identified to this project. Thus, they should have a unique code or site code with sufficient permutations for this (more than 10 million possible codes are expected). The Tags shall have the ability to be programmed with up to 2 billion unique IDs. No other person other than the original hardware manufacturer and system integrator shall have the ability to produce tags that could be detected by the proposed system. The Tag to Receiver message structure shall be such as to prevent cloning of messages for the purpose of subversion. The software shall monitor the integrity of each message and discard anomalous or potentially cloned messages. The system shall report any attempts to block or jam the radio transmissions between tag and receiver or the electrical communication signals between receiver and software. It shall not be possible to disable tags locally or remotely. Suppression of alarms shall be possible only through software manipulation with authorised access. 2. Specifications

1. Reader (Receiver) • 433 MHz • Modulation: OOK • Bandwidth: ±1.7MHz • External Antenna options using plug in BNC connector • Receivers to be covert (Small for discreet location) • Input/Output connections: 2 x RJ45 sockets • LAN connection (optional) • Controllable through Remote COMMS • Up to 500 Messages per second in Self-poll mode (Unidirectional) • Up to 100 messages per second in Software-Poll mode (Bidirectional) • Wired on CAT5 or CAT6 (UTP or FTP) cable • Operational Temperature: -10°C to +60°C • Storage Temperature: -20°C to +70° • Humidity: 5% to 90% (non-condensing)

2. Convertor

• RS232 protocol to RS485 standard convertor

3. Power Supply • Network Power supply 2 Amp with 7 Amp battery



4. Network Switch Port • 10/100 Mbps switch

5. I/O Unit

• The I/O units (with 4 input and 8 outputs) shall be used to communicate directly with the software to operate third party systems such as door control, CCTV, PIR sensors and audio-visual alarms. • Software controlled through COMM port • Scalable

- 1 to 10 units per COMM port - Up to 16 input and 16 output lines per unit - Input lines can function as Tag Alarms (Specific Type)

• Output lines shall be able to trigger on - Reader detection of events - Any or All readers can trigger 1 or more output lines - Tag Events (1 or more tags can trigger 1 or more lines)

• Can connect to Camera or other systems via NO/NC connections

6. Object Tag (with polyester wallet with magnets)

• 433MHz frequency • Battery powered • Operational temperature -10º C to +60º C • Storage temperature -20º C to +70º C • Humidity 5% to 90% (non condensing) • Tags to be ultrasonically sealed • Tags to conform to IP65 regulations • FCC Approval, CE Marked • Power output: -14dBm, 72db µV, 4300 µV/m, 38µW • Modulation: OOK, ASK • Bandwidth: 20 – 30 KHz • Dimension: Approx: 86mm x 54mm x 5mm • Weight: Approx: 20 grams

7. Display Tag (with case tag clip with housed magnet)

• 433MHz frequency • Battery powered • Operational temperature -10º C to +60º C • Storage temperature -20º C to +70º C • Humidity 5% to 90% (non condensing) • Tags to be ultrasonically sealed • Tags to conform to IP65 regulations • FCC Approval, CE Marked



• Power output: -14dBm, 72db µV, 4300 µV/m, 38µW • Modulation: OOK, ASK • Bandwidth: 20 – 30 KHz • Dimension: Approx: • Weight: Approx: • Dimension: Approx: 61mm x 30mm x 9 mm • Weight: Approx: 22 grams

8. Adhesive roll

• 33 mm x 25 mm adhesive roll for attaching tags 9. Monitoring Software The software shall be Windows based, functioning under Windows XP operating systems. It shall have a high degree of flexibility allowing for further expansion and customisation needs. The software shall be configured to automatically commence on boot-up of the PC. The software shall have password-protected access and shut down. It shall have at least 4 levels of authorisation allowing various levels of access and functionality. It shall not be possible for a security controller to shut down the software. The software shall manage the entire RFID Receiver Network, all RFID Tags and all external devices such as I/O Devices, Pagers etc. The software shall record all relevant events in the day-to-day functioning of the system. The software shall record and present all Alarm events to the operator. These Alarms shall be user configurable. Alarm events shall have user configurable colour coding. They shall have user configurable colour codes for alarm types in alarm window. They shall have user-configurable security controller instructions. The software shall be able to require the security operator to fill in a report before clearing any alarm events. This shall be a two-step process with preset responses and free text entry where necessary. The software shall record both the time and date of each event as well as the finishing time of the event and when the security controller dealt with the event. The Alarm Graphical User Interface (GUI) shall include the following items:

• graphical bitmap images of display cabinet • graphical bitmap images of individual artworks • graphical bitmap images of gallery or room • graphical bitmap images of gallery personnel • different alarm tones for artwork or personnel alarm



• receiver details and location • comprehensive details on artwork or display cabinet in alarm

In addition, there shall be a Dynamic Tracking ability through a one-click system. This shall allow a security controller to easily monitor which receivers are currently seeing any given tag and display a floor plan showing that area in real time. The software shall have the ability to report these alarms remotely through either software or hardware methods.

• There shall be an I/O Device where the software can be configured to open or close a given switch depending on Alarm parameters such as: Tag ID, Receiver ID, Type of Event and Location. The length of time the switch is opened or closed shall be configurable.

• There shall be a built in E-mail facility that will allow multiple users or groups of users to receive e-mails ‘on alarm’, ‘on completion of alarm’ and ‘on security controller clearing alarm’. This shall be configurable on a per user basis, so that different classes of users and reporting are possible. The e-mail shall include all relevant data around the event and optionally around the artwork and security controller’s action and responses.

All Alarm Events shall be cleared to a History. This shall be presented in a form rendering easy search, filter and sort facilities. It shall comprehensively record such events for a user specified period of time. It shall be possible to go from the event records to a detailed report of the item and event. The software shall have a user-configurable time for Receiver ‘Offline’ status, which detects receiver failure or detects RF jamming. The software shall have user-configurable software settings for alarm sensitivity for individual artworks based on elapsed time. The software shall have a user-configurable time for detecting ‘Missing Tags’ of any type; artwork, cabinets, personnel. This shall be in the form of an audit. The software shall report Warnings on its main screen, preferably in a status bar format. This shall include:

• tag battery low icon on main display window • receiver errors icon as well as true alarms caused by such an event • warnings of ‘missing tags’ when Artwork, Cabinet, or Plinth Tags are not seen for a

user-configurable amount of time • warnings of ‘missing personnel tags’ when personnel and/or duress tags are not seen

for a user-configurable amount of time The software shall have the ability to exclude artwork and personnel tag messages from software permanently.



The software shall have the ability to suppress alarms from artwork and/or personnel tags for a period of time with automatic reactivation at a specified future date. The software shall have

• A graphical and statistical ‘analysis window’ for tag movement and alarms within user-configurable time parameters.

• A graphical ‘alarm analysis’ window within user-configurable time parameters • A graphical and statistical analysis of ‘system wide’ events over a period of time

The software interface shall provide:

• comprehensive data fields for artwork • individual search window for artwork details based on Tag ID, Artist, Artwork,

Location or Accession number • individual search window for personnel details based on Tag ID, Forename,

Surname, Location, Title or Employee number • individual search window for all other classes of assets: e.g. cabinets, PIR etc

The software shall have the ability to program receivers dynamically and change read range, switch on or off and request RF or voltage analysis The software shall be user-configurable to manage its own backup functions:

• automatic database back-up to remote server daily • periodic automatic purge of history event log after successful database back up • database synchronisation with main server in real time or as needed

The software shall have

• A Print Report function in all relevant windows • Drill down search capability in all data windows

The software shall be scalable. It shall be principally running on one machine but other PCs shall be supported for extra processing of tag message traffic. In the event of a failure on the main PC, the remote processors shall be able to store up to the 5000 most recent messages per receiver network for processing when the main PC comes back on line. There shall be a central database with a record of all events from the processing machine(s). This shall be accessed through a password protected ASP.NET interface which can be accessed via a Browser on any authorized machine.

10. Control PC • Ability to scale system by using more than one PC to process message traffic • Windows XP operating system • Pentium 4 2.8 GHz or higher CPU • 1 GB RAM



• Optional CD-RW backup device • 80GB HDD • 17” Monitor • Network enabled • 2 PCI slots for Multi-COMM cards

VI. Guard Tour System This system shall be used to track movement of security guards guarding the premises. Patrol Tour Data Collection Terminal based on RFID technology shall be provided to each security guard. Its function is to scan RFID tags located at various points within the campus premises and store their ID-codes in a journal memory, together with the Data/Time stamp. After installation of a set of electronic tag at the checkpoint of the patrol route, the patrolman will be able to read the tag at the designated checkpoint by tour guard reader. Information such as route, staff, address, time and events, etc. for reading the tag will be recorded in tour guard reader, and be connected with PC by special data transmission wire. The recorded data will be automatically uploaded to PC and intelligently treated by the System software to examine patrolman and patrolling progress. Specifications

1. Portable RFID Reader

Display : LCD Operating Voltage : 3.6V Communication Interface : USB Operating Temperature : -20° C -- 60° C Storage Temperature : -25° C -- 70° C Memory : 512KB Scan Distance : 0 -7cm Reading standards : EM4001 and EM4100, ISO14443 LF standards. Battery : 850mAH Li Battery Standby Current : <1m A Dimensions : Approx. 142(L)x40(W)x20(H)mm Weight : Not more than 175 grams

2. RFID Tag

Type : Contactless Read Only Operating Frequency : 125 ± 6 kHz. (LF-Low Frequency) Capacity : 64 bits Data Coding Type : Manchester, Biphase, PSK Standard Deployment : Attached to object or placed on object Tested Read Range : 2-6 cm (1 - 3 in.) Multi-Detection : No Max read quantity : 1 tags/sec



Size : Approximate Diameter: Φ30mm Material : Plastic or other resin material Weight : Around 3.0 grams Compliance : EM4100 or other compatible RFID tags Operating Specifications : Waterproof, Resistance to immersion in salt water, oil, Resistant to Shock and Vibration Temperature : Storge upto100°C, Operating upto to 85°C 3. Software Software shall be able to generate various reports relaing to the movement of the security guards time-wise, guard-wise, date-wise, and so on. VII. Other Security Gadgets & Devices 1. Door Frame Metal detector Features

• Door frame metal detector is microprocessor based & PC compatible. • Six Zone detection. • AUTO Calibration. • Keypad provided for all program settings. • Infra Red occupancy sensors for traffic Counter. • Detector is continuously active. No metal can be tossed without being detected. • Self Test program, system FAULT indicator provided. • Display of time, counter, program setting, sensitivity during setting. • Multi mode counters i.e. IN, OUT, total IN & OUT. • Digitally controlled sensitivity, threshold, & volume. • Independent sensitivity setting of each zone. • Battery backup for memory protection. • Zone Display on Side Panel of the frame along the length.

Specification

• Floor space required: : 0.661 SQ. m. • Passage Clearance: : 750 x 500 x 2000mm • Overall arch assembly: : 870 x 760 x 2175mm • Power: : 230V AC ± 15%, 50Hz, 50VA

2. Motorola 2-way radio

• Frequency: (MHz) 136 - 174 (VHF) • Channel Capacity: 16 Channels • Power Supply: Provided through rechargeable battery - 7.5V • Sealing: Withstands rain testing per MIL-STD 810 C / D / E and IP54



• Shock and Vibration: Protection provided via impact resistant • Dust and Humidity: Protection provided via environment resistant housing • Battery: 1450mAH NIMH • Heliflex antenna • Coverage: 4-5 kms radius (line of sight)

3. Motorola Base Station with accessories

• Frequency Range: 136-174MHz (VHF) • Channel Capacity: 128 channels • Power Supply: 13.2 VDC (10.8 - 15.6 VDC) • Channel Spacing: 12.5/20/25 kHz • Operating Temperature: - 30 to +60° C • Sealing Passes rain testing to IP54 • Shock and Vibration Meets MIL-STD 810-C,D&E and TIA/EIA 603 • Dust Meets MIL-STD 810-C,D&E and TIA/EIA 603 • Humidity Meets MIL-STD 810-C,D&E and TIA/EIA 603 • Display: 14 Characters 1-line Alphanumeric Display • Microphone: Palm microphone • Coverage: Approx. 8 kms radius (on line of site) • Accessories for Base Station

i. RG - 213 COAXIAL cable with end connectors ii. 12V Power supply unit 10Amo with battery revert iii. 3db gain VHF ground plane antenna for Base station iv. BNC male to UHF female adaptor

4. Portable X-Ray machine The compact portable digital x-ray system shall allow remote detection and investigation of suspect articles in applications such as Bomb disposal, Suspect package investigation, etc.

Key features

• search and examine suspicious packages or unattended bags on the spot • portable and easy to set up and use • image analysis includes zoom, reverse black and white, pseudo-colour, pseudo 3D

and measure, show gradients, rotation, distance, contrast enhancement and more • works with most portable x-ray sources • image print and email. archive in excess of 32,000 images on pc or cd • annotation tools • full database management tools



PC Control unit minimum specifications

• Processor: Pentium IV, 2 GHz minimum • Drives: Hard Disk 40 GB min • CD/DVD RW • Memory: 128 Mb RAM expandable • Operating System: Windows XP • Image Storage: Exceeds 32,000 stored images in .bmp or .jpg • Power Source: 220VAC 50 Hz or Rechargeable Battery • Record & Export Facility: Video, Audio & Data, Fax, LAN & Modem 56K • Image Enhancement: Rotate, Zoom, Invert b/w, etc.

X-ray generator

• XR200 standard generator • 150kV maximum energy • Penetration: 15 mm steel

5. Bomb Suppression Blanket

Bomb Blanket provides emergency protection against blasts and fragments in the event of an explosive device detonating before it can be neutralized Protection Level: National Institute of Justice (NIJ) III-A Fragmentation Resistance: 300 m/s Size: Approx 1.5 x 2.0 m 6. UPS 10 KVA With 2 hours backup Rated Capacity 10KVA/7000W Input Voltage 176Vac~276Vac Termination Single Phase, two wire with Earth Frequency 50Hz±5% Power Factor Accord with EN60555-2(≥0.95) Output Voltage 220Vac±3% Frequency 50Hz±0.5% Power Factor 0.7 Lag Wave Form Pure Sine Wave Distortion factor Linear (<4%), Nonlinear (<5%) of Waveform Protection Electronic Protection for output Overload, Shortcut, Battery Low & Overcharge Transfer Time Zero Interruption DC Voltage 240 V Battery Sealed Lead Acid Maintenance Free Battery



Suitable For 2 hours of backup Battery Display LCD/LED Display for system status

With separate load and battery Charge % over indicators Enviornment Temperature 0~40 C Relative Humidity 0~95% Altitude <1500m Communication Interface 9Pin D Type Connector (RS232) SNMP Compatible Certification FCC, EN 7. UPS 6 KVA With 2 hours backup Rated Capacity 6KVA/4200W Input Voltage 176Vac~276Vac Termination Single Phase, two wire with Earth Frequency 50Hz±5% Power Factor Accord with EN60555-2(≥0.95) Output Voltage 220Vac±3% Frequency 50Hz±0.5% Power Factor 0.7 Lag Wave Form Pure Sine Wave Distortion factor Linear (<4%), Nonlinear (<5%) of Waveform Protection Electronic Protection for output Overload, Shortcut, Battery Low & Overcharge Transfer Time Zero Interruption DC Voltage 240 V Battery Sealed Lead Acid Maintenance Free Battery Suitable For 2 hours of backup Battery Display LCD/LED Display for system status

With separate load and battery Charge % over indicators Enviornment Temperature 0~40 C Relative Humidity 0~95% Altitude <1500m Communication Interface 9Pin D Type Connector (RS232) SNMP Compatible Certification FCC, EN



VIII. Fire Suppression System 1. General The system shall be installed to protect the Strong Rooms (2 rooms including mezzanine room) at Rabindra Bhavana, each room having dimensions of approximately 31' x 18' x 12' The system shall be an INERGEN total flooding, gaseous, clean agent, fire suppression system designed to provide a uniform concentration of INERGEN for the protected area. The INERGEN system shall be automatically actuated by either counting zone detection circuits or cross-zoned detection circuits and shall be of the engineered, permanently piped, fixed nozzle type with all pertinent components. All agent storage cylinders shall be centrally located as vertical, free-standing cylinders with wall and/or floor mounted retaining brackets. Where multiple cylinders are required for the same hazard, a common manifold shall be employed. On multiple cylinder arrangements, one cylinder shall be designated as the pilot cylinder and employ the restorable electric actuator, and mechanical manual actuator, or both. All remaining cylinders shall be pneumatically operated from the INERGEN agent. Manifolded cylinders shall employ a flexible discharge hose to facilitate installation and system maintenance. Each cylinder on a manifold shall also include an agent check valve installed to the manifold inlet. All electrical enclosures, raceways and conduits shall be employed in accordance with applicable codes and intended use and contain only those electrical circuits associated with the fire detection and control system and shall not contain any circuit that is unrelated to the system. All mechanical and electrical components shall be tested according to the manufacturer's recommended procedure to verify system integrity. Inspection shall include a complete checkout of the detection/control system and certification of cylinder pressure 2. Extinguishing Agent The agent shall be INERGEN with the following Physical properties:

• Specific gravity: 0.085 lbs./cu. ft. (1.36 kg/m3) • Vapor pressure: 1925 psi @ 32 °F (132.7 bar @ 0 °C), 2175 psi @ 70 °F (149.9 bar

@ 21 °C), 2575 psi @ 130 °F (177.5 bar @ 54 °C) • Vapor density: 1.1 (Air = 1) • Approximate molecular weight: 34 • Agent listed and approved by Underwriters Laboratories, Inc. (UL)



3. Inergen Storage Cylinders

• Cylinder assemblies shall be of steel construction with a standard RED epoxy paint finish. Each cylinder shall be equipped with a pressure seat-type valve and gauge. Each valve shall be constructed of forged brass and shall attach to the cylinder providing a leak tight seal. Each valve shall also include a safety pressure relief device which provides relief at 3000-3360 PSI per CGA test methods. • Filling of the cylinder assembly shall be by an authorized INERGEN systems

distributor in conjunction with a factory authorized INERGEN agent filling station. 4. Cylinder Bracket

• Each cylinder assembly shall be furnished with a bracket made from welded steel. The bracket shall hold the cylinders in a saddle with a front bracket piece that secures the cylinders. The brackets shall be modular in design to allow added bracketing or stacking of cylinders depending on installation requirements.

• Cylinder brackets shall be UL listed and/or FM approved for use with the INERGEN system.

5. Pipe Material

• System piping shall be of non-combustible materials having physical and chemical characteristics such that its integrity under stress can be predicted with reliability.

• As a minimum, piping materials shall be black steel pipe conforming to ASTM A-53A ERW or ASTM A-106A seamless.

• Piping joints shall be suitable for the design conditions and shall be selected with consideration of joint tightness and mechanical strength.

• As a minimum, fittings beyond the orifice union/nipple shall be black, 300 lb. class fittings conforming to ANSI B-16.3. Ordinary cast iron fittings shall not be used.

• The system manifold up to the orifice union/nipple must be constructed of Schedule 80 piping and 2000 lb. or 3000 lb. forged steel fittings.

• All piping shall comply with NFPA 2001. • Piping shall be bracketed within 12" (.3 m) of all discharge nozzles. • Multi-outlet fittings, other than tees, shall not be permitted. • Assembly of all joints shall conform to the appropriate standards.

6. Valve Actuators

• Electric valve actuators shall be of brass construction and stackable design with swivel connections to allow removal of actuators for maintenance or testing.

• Operation of actuators shall not require replacement of components. No Electroexplosive Devices may be used to actuate the valve assembly.

• Electric actuators shall be continuous duty type. • Actuation devices shall be UL listed and/or FM approved for use with the

INERGEN system.



7. Discharge Hose/Check Valve

• When manifolding, all cylinder assemblies shall include a flexible discharge hose and check valve for connection to the manifold inlet.

• All hose/check valves shall be UL listed and/or FM approved 8. Discharge Nozzles

• Discharge nozzles shall be of two-piece construction and sized to provide flow rates in accordance with system design flow calculations.

• Orifice(s) shall be machined in the nozzle body to provide a horizontal discharge pattern based upon the approved coverage arrangements.

• Nozzles shall be permanently marked with the manufacturer's part number. The nozzles shall be threaded directly to the discharge piping without the use of special adapters.

• Nozzles shall be UL listed. 9. Orifice Union/Nipple Assemblies

• An orifice union/nipple shall be included in the manifold to reduce pressure in the downstream pipe network.

• Orifice union/nipple assemblies shall be rated at 2000 lb. Class minimum. • Orifice union/nipple assemblies shall be permanently marked with the

manufacturer's orifice code. The orifice union/nipple shall be threaded directly to the manifold piping without the use of special adapters.

• Orifice union/nipple assemblies shall be UL Listed and/or FM Approved. 10. Sequence Of Operation A. Activation of any single smoke detector in any detection zone shall:

• Cause a first-stage alarm. • Energize a lamp on the activated detector and control panel (and graphic

annunciator, if included). B Activation of a second smoke detector shall:

• Transmit an alarm signal to remote monitoring or building alarm panel. • Cause a second-stage (pre-discharge) alarm to operate. • Initiate a programmable time delay (INERGEN agent release).

C. Upon completion of the time delay the INERGEN system shall: • Cause a discharge alarm to be activated. • Operate auxiliary contacts for emergency power off of all electrical equipment

(excluding lighting and emergency circuits for life safety). • Activate visual alarms (strobe) at protected area entrance. • Energize control solenoid for INERGEN cylinders releasing gaseous agent into the

protected area.



IX. Manpower Technical Operators

• Shall be a permanent employee of the tenderer • Shall man the Control Room (CMS) 24 hours a day on a rotational basis. • Shall be a graduate/diploma holder preferably • Shall be well conversant with Computers • Shall be well conversant & trained for operation of ISS system • Shall co-ordinate with Visva-Bharati staff/security guards in case of any incident

through wireless communication device • Shall report to technical supervisor

Technical Supervisor

• Shall be a permanent employee of the tenderer • Shall co-ordinate with Visva-Bharati staff/security personnel in all security matters

and in case of any breach/lapses in security. • Shall co-ordinate with the equipment manufacturer in case of improper functioning

of equipment • Shall be from electronics/electrical background preferably B. Tech/Diploma holder

in electronics/electrical/communication • Shall have an experience of a minimum of 3 years in similar system/industry • Shall be well trained on the technical aspects of the ISS system • Shall be able to handle minor maintenance works to ensure smooth operation of the

system, as and when required • Shall perform preventive maintenance of the ISS system to ensure minimum

downtime • Shall have thorough knowledge of WAN/LAN networks and other system protocols • Shall be able to assist and train the technical operators on the system as and when

required • Shall be stationed in the control room during duty hours and also attend to any

technical issues on field as and when required • Shall maintain logs of the system, drawings, manuals of the ISS system

X. Civil Work for Laying Underground Cables As per specifications given in Commercial bid document XI. Supply of Cables & Laying Work As per specifications given in Commercial bid document



MAKES OF EQUIPMENTS CCTV System: 1. Cameras : Bosch/ Honeywell / Pelco/ Sony / Vicon 2. DVR : Bosch/ Honeywell / Pelco/ Sony / Vicon 3. Matrix Switcher : Bosch/ Honeywell / Pelco/ Sony / Vicon 4. Monitors : Bosch/ Honeywell / Pelco/ Sony / Vicon Access Control System: 1. Smart Card Reader : Bosch/Honeywell/HID/Nextwatch 2. Access Control Software : Bosch/Honeywell/Nextwatch/GE-Casi/Lenel 3. Access Controllers : Bosch/Honeywell/Nextwatch/GE-Casi/Lenel Intruder Alarm System: 1. Panel : Ademco/Bosch/DSC/Honeywell 2. Sensors : Ademco/Bosch/DSC/Honeywell Fire Alarm System: 1. Panel : Bosch/Honeywell/Notifier/Tyco 2. Detectors : Bosch/Honeywell/Notifier/Tyco Object Alarm &Tracking System : Products from U.S.A./U.K./E.U. having large installation base in similar institution Fire Suppression System : Ansul PC/Server/Workstation : IBM / HP / Dell / HCL Other equipment : International/domestic make of repute having large installation base Cable / Wires : Delton / Finolex/ Polycab/ Havells Conduits : ISI Mark PVC/HDPE Conduit : ISI Mark


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