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2-Saddle CNC Lathe

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Page 1: 2-Saddle CNC Lathe - Bulmakmetal Ltd. – Premium CNC ...bulmakmetal.com/wp-content/uploads/2016/10/LU-S1600-E-3a-400Oct... · 1 2 2-Saddle CNC Lathe Wide variety of processes, from

2-Saddle CNC Lathe

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1 2

2-Saddle CNC Lathe

Wide variety of processes, from continuous cutting to boring

Improved productivity in mass-production machining with flexible automation system

High-accuracy machining achieved even in long-run, continuous operationA new standard for compact 2-saddle turning centers,

achieved by taking our many past achievements to a higher level Photos shown in this brochure include optional equipment.

Collision AvoidanceSystem

MachiningNavi

Thermo-FriendlyConcept

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Shaft and also flanged workpieces

Huge productivity improvements in mass-production machining

Shorter machining times with simultaneous machining on upper and lower turrets. Faster parts machining contributes greatly to

improved shop �oor QCD.

3 4

Much shorter lead time for shaft workpieces

Okuma proposes the best automation systems for customers’ machining needs, including all peripheral devices, from work tables to gauges. The highest productivity with stable quality is achieved through all-out pursuit of speed, cost, and quality in mass-production parts machining.

1-machine 1-loader applications to full-scale production lines

The Thermo-Friendly Concept plays a principal role in our

machine design. With simple machine designs and construction

that equalize ambient temperatures, deformation is predictable,

and complex torsion or tilting is controlled.

Moreover, Highly Accurate Compensation Technology (Okuma

control [OSP] award winning innovation) effectively responds to

deformation caused by changes in room temperature, frequent

spindle speed changes, and non-coolant cutting.

With the Thermo-Friendly Concept (Manageable Deformation-

Accurately Controlled), Okuma products provide unrivaled

dimensional stability.

The unique approach of "accepting temperature changes." Manageable Deformation—Accurately Controlled Thermo-Friendly Concept

Diverse machining range with simultaneous 4-axis machining

Effective use of simultaneous 4-axis control enables machining suited to the user’s workpiece.

Prevents chatter during steady rest work

High-efficiency machining from simultaneous 4-axis turning

Machining Example

Size : ø35 mm × L350 mm

Material : FCD600

● Get outstanding flexibility from

1-machine/1-loader to multi-

machine lines, with optimum

cycle times, operation mix, work

flow, floor space and the like.

● Selection of work tables, part

turnover stands, post- process

gauges and other peripherals,

can provide an ideal system

arrangement to meet your

needs.

■ Fewer dimensional compensations, higher machine utilization

Loader Specs

2-machine/2-loader cell2-machine/1-loader

Part turnoverGauge

1-machine/1-loader cell

*Blanks and �nished parts can be stacked on one work table. (Not possible with 2-machine/2- Ioader.) *2-machine/2-loader cell machines can be laid out in parallel.

Thermo-FriendlyConcept

Compensation due to ambient temperature changes and temporary midday or evening machine stops is performed fewer times thanks to outstanding dimensional stability. This leads to better machine utilization, improving ef�ciency especially for mass-production machining.

Accurate control in a wide range of usage situations, including

use of coolant and travel stop during noon break.

Benefits

● Ambient temperature change: 8 ˚C● Cutting conditions: Cold start, coolant used● Operating conditions: Spindle speed 3,200 min-1, 24 hr● Material: BsB

■ Fewer tool compensation checks ■ Minimizes dimensional changes from thermal deformation■ OD turning including continuous cutting

Cycle time: 1 min 28 sec

* The “actual data” referred to above for this brochure represent examples, and may not be obtained due to differences in specifications, tooling, cutting, and other conditions.

ø10 μm (Upper turret) ø14 μm (Lower turret)

543210

-30

-40

-20

25 ˚C

20 ˚C

30 ˚C

-10

0

10

20

6 7 8 9 10 11 12 13Time [hr]

14 15 16 17 18 19 20 21 22 23 24 25

Def

orm

atio

n [X

: ø μ

m]

ø14 μm

ø10 μm

Dimensional change (actual)

Work table

Gauge

Loader

Work table

Gauge

Work table

Loader

Loader

High dimensional stability

Machining restart

Room temp change

Machine startup

8 ˚C

Steady rest

Balanced cutting prevents chatter during machining of long workpieces

Part turnover

(OSP only)

Shaft and also flanged workpieces

Huge productivity improvements in mass-production machining

Shorter machining times with simultaneous machining on upper and lower turrets. Faster parts machining contributes greatly to

improved shop �oor QCD.

3 4

Much shorter lead time for shaft workpieces

Okuma proposes the best automation systems for customers’ machining needs, including all peripheral devices, from work tables to gauges. The highest productivity with stable quality is achieved through all-out pursuit of speed, cost, and quality in mass-production parts machining.

1-machine 1-loader applications to full-scale production lines

The Thermo-Friendly Concept plays a principal role in our

machine design. With simple machine designs and construction

that equalize ambient temperatures, deformation is predictable,

and complex torsion or tilting is controlled.

Moreover, Highly Accurate Compensation Technology (Okuma

control [OSP] award winning innovation) effectively responds to

deformation caused by changes in room temperature, frequent

spindle speed changes, and non-coolant cutting.

With the Thermo-Friendly Concept (Manageable Deformation-

Accurately Controlled), Okuma products provide unrivaled

dimensional stability.

The unique approach of "accepting temperature changes." Manageable Deformation—Accurately Controlled Thermo-Friendly Concept

Diverse machining range with simultaneous 4-axis machining

Effective use of simultaneous 4-axis control enables machining suited to the user’s workpiece.

Prevents chatter during steady rest work

High-efficiency machining from simultaneous 4-axis turning

Machining Example

Size : ø35 mm × L350 mm

Material : FCD600

● Get outstanding flexibility from

1-machine/1-loader to multi-

machine lines, with optimum

cycle times, operation mix, work

flow, floor space and the like.

● Selection of work tables, part

turnover stands, post- process

gauges and other peripherals,

can provide an ideal system

arrangement to meet your

needs.

■ Fewer dimensional compensations, higher machine utilization

Loader Specs

2-machine/2-loader cell2-machine/1-loader

Part turnoverGauge

1-machine/1-loader cell

*Blanks and �nished parts can be stacked on one work table. (Not possible with 2-machine/2- Ioader.) *2-machine/2-loader cell machines can be laid out in parallel.

Thermo-FriendlyConcept

Compensation due to ambient temperature changes and temporary midday or evening machine stops is performed fewer times thanks to outstanding dimensional stability. This leads to better machine utilization, improving ef�ciency especially for mass-production machining.

Accurate control in a wide range of usage situations, including

use of coolant and travel stop during noon break.

Benefits

● Ambient temperature change: 8 ˚C● Cutting conditions: Cold start, coolant used● Operating conditions: Spindle speed 3,200 min-1, 24 hr● Material: BsB

■ Fewer tool compensation checks ■ Minimizes dimensional changes from thermal deformation■ OD turning including continuous cutting

Cycle time: 1 min 28 sec

* The “actual data” referred to above for this brochure represent examples, and may not be obtained due to differences in specifications, tooling, cutting, and other conditions.

ø10 μm (Upper turret) ø14 μm (Lower turret)

543210

-30

-40

-20

25 ˚C

20 ˚C

30 ˚C

-10

0

10

20

6 7 8 9 10 11 12 13Time [hr]

14 15 16 17 18 19 20 21 22 23 24 25

Def

orm

atio

n [X

: ø μ

m]

ø14 μm

ø10 μm

Dimensional change (actual)

Work table

Gauge

Loader

Work table

Gauge

Work table

Loader

Loader

High dimensional stability

Machining restart

Room temp change

Machine startup

8 ˚C

Steady rest

Balanced cutting prevents chatter during machining of long workpieces

Part turnover

(OSP only)

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Smooth, powerful machining

■ Machining capacity(15/11 kW spindle [Opt] actual data)

● Turning: 2 mm2 (S45C)

● Cutting speed: 150 m/min

● Infeed: 4 mm

● Feed: 0.5 mm/rev

Powerful turning

Roller guides are used on all axes for ready handling of

continuous cutting, which places a large burden on the

machine. Rugged structure from placement of multiple

ribs within the bed gives substantial construction while

maintaining a compact size.

Tough structure stands up easily to continuous cutting

60° slant bed construction ensures superior visibility of

the tool edge and machining status, as well a working

chamber sufficient for loader handling. Operator burden

is also decreased with workability considerations

including workpiece loading/unloading position and tool

change position for working ease.

Machine configuration for outstanding workability

Mounting the spindle motor outside the bed minimizes

the effect of thermal deformation on machining

accuracy. Outside motor placement also makes

maintenance work easier.

The LU-S1600 handles shafts from ø60 mm up to ø160 mm. The LU-S1600 is also compatible

with boring bars up to ø32 mm, for powerful machining of inner diameters of CVJ outer rings and

other workpieces. Various other machining processes are also possible, including balanced

simultaneous 4-axis cuts on upper and lower turrets, inner and outer diameters.

Broad range of workpieces, wide variety of operations

● Turret indexing time:

0.15 sec per station

(both upper and lower)

Fast turret movement

Stable machining of long workpieces with

highly rigid tailstock that uses a MT No. 5

revolving center.

Achieves stable machining

XB double wipers are used on the lower

turret where chips accumulate, while a

chip flusher is used on the saddle top.

Chip discharge is greatly improved by

using a single stainlessteel sheet for the

guideway cover on the spindle side and

other modifications, for continuous

mass-production machining without stops.

The best possible chip removal based on

our solid record of 2-saddle turning center

deliveries.

Smooth, continuous operation with complete chip handling

* Data listed in the catalog are actual data. These values may not be obtained depending on specifications, tooling, and cutting conditions and other factors.

Motor placement for little thermal deformation

Lineup with both OSP and FANUC

specifications lets you choose the

controller you are familiar with. Smooth

startup of production lines after machine

installation can be achieved by sharing

machining programs from other machines.

Select the controller youare familiar with

OSP-P300L FANUC Oi-TF

60°

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Cost reduction—shorter cycle times and higher productivity—is required to compete in today’s global market. Machining Navi, with clear visuals of complex cutting conditions, is a breakthrough tool that enables the machine operator to navigate the machine and tool capabilities to their best performance levels.

Cutting conditions search

Machining Navi (OSP: optional)

Find the best cutting condition for your application

MachiningNavi

Chatter in a lathe can be suppressed by changing spindle speeds to the ideal amplitude and wave cycle.

Machining Navi shows its maximum effect in mass-production machining.The following example is a shaft workpiece that is very susceptible to chatter. With the use of Machining Navi four operations are reduced to two, producing many positive effects in mass-production machining.

● Workpiece size: ø22 (thinnest ø8) × 320 mm ● Material: S45C

Boring bar with 5 times the extension for chatter-free internal diameter boring

● Tool: Boring bar (steel) Diameter: ø20 mm Extension: 100 mm● Cutting speed: 180m/min● Workpiece material: S45C

Efficient, small OD shaft turning without steadyrest

● Workpiece: Drive shaft Diameter: ø17 mm Length: 400mm● Workpiece material: S45C

● Cutting conditionsCutting depth: 0.1mmFeedrate: 0.12mm/revCutting speed: 170m/min

ø56

ø110

(27)

Standard steel

boring bar400

ø17

"Machining Navi" L-g (guidance) Chatter-free applications for lathes

Higher productivity with process-intensive machining of engine parts

Workpiece turnover Workpiece turnover

4Process

2Process

● Reclamping time cut in half● Setup time reduced● Machining accuracy improved

Effect

Previous Machining Navi used

Machine Specifications

* OSP specifications only

Standard chucks

Swing over bed

Max. turning diameter

Max. turning length

Maximum workpiece weight (including chuck weight)

XA, XB axis travel distance

ZA, ZB axis travel distance

Spindle speed

Spindle nose profile

Spindle front bearing dia.

Spindle bore dia

Turret type (both upper/lower)

No. of tools (both upper/lower)

Tool shank height

Max. boring bar size

Turret indexing time

Rapid feedrate

Movable tailstock

Tailstock tapered bore type

Tailstock travel

Tailstock quill diameter

Tailstock quill travel

Spindle drive [OSP]

Spindle drive [FANUC]

Machine height

Floor space (machine only)

Spindle center height

Machine weight

Inch

mm (in.)

mm (in.)

mm (in.)

mm (in.)

mm (in.)

min-1

mm (in.)

mm (in.)

tool

mm (in.)

mm (in.)

sec/index

m/min (fpm)

mm (in.)

mm (in.)

mm (in.)

kW (hp)

kW (hp)

mm (in.)

mm (in.)

mm (in.)

kg (lb)

Item Unit

Capacity

Travel

Spindle

Turret

Feedrate

Tailstock

Motor

Machine size

CNC

550 DBC [480 DBC]

550 (21.65) [480 (18.90)]

570 (22.44) [500 (19.69)]

300 (11.81) [340 (13.39)]

2,045 (80.51)

2,440 × 1,980 (96.06 × 77.95)

5,000 (11,000)

8

ø500 (19.69)

ø160 (6.30)

Single support: 120 kg Double-centered support: 200 kg

100

40 to 4,000: OSP/FANUC [50 to 6,000: OSP only]

JIS A2-6 [ø140 flat]

ø100 (3.94)

ø62 (2.44)

6 angles

6

25 (1)

ø32 (ø1-1/4)

0.15

X: 20 Z: 30 (X: 65.62 Z: 98.43)

Handle [NC]

ø90 (3.54)

120 (4.72)

Side discharge : 1,145 (45.08)

OSP-P300L, FANUC Oi-TF

LU-S1600

1000 DBC

1,000 (39.37)

1,100 (43.31)

700 (27.56)

2,247 (88.46)

3,235 × 2,282 (127.36 × 89.84)

6,200 (13.640)

[ ]: Optional

MT No. 5 (revolving center) [MT No. 4 (built-in center)]

11/7.5/7.5 (15/10/10) (15 min/60 min/cont) [15/11/11 (20/15/15) (15 min/60 min/cont)]

4,000 min-1: 11/7.5 (15/10) (30 min/cont) [15/11 (20/15) (30 min/cont)]

[Integral motor 6,000 min-1: 11/7.5 (15/10) (20 min/cont) 15/11 (20/15) (15 min/cont)]

Standard Specifications & Accessories Optional Specs & AccessoriesSpindle

Turret (both upper and lower)

Tailstock

Accessory

equipment

JIS A2-6 40 to 4000 min-1

OSP: 11/7.5 kW (30 min/cont)

FANUC: 11/7.5 kW (15 min/cont)

V6 turret bolt clamp

MT No. 5 (revolving center)

Hydraulic unit

Coolant system

Full-enclosure shielding

Work lamp (LED)

Foot switch for chucks

Foot switch for tailstock sleeve

Lubrication monitor

XB axis double wiper

Standard high power spindle

High spindle speed

High power spindle speed

Turret (both upper and lower)

For front cover

For chucking

For tailstock

For face driver

For air blower

For coolant blower

Dustproo�ng measures

For gauging

Touch setter

For automation

Stopper in spindle

For coolant

Steadyrest

Mist collector

Optional high accuracy

speci�cations

Raised machine height

JIS A2-6 40 to 4,000 nin-1 OSP: 15/11 kW (30 min/cont) FANUC: 15/11/11kW (15 min/60 min/cont)

OSP only: ø140 flat 50 to 6,000 nin-1 11/7.5 kW (20 min/cont)

OSP only: ø140 flat 50 to 6,000 nin-1 15/11 kW (15 min/cont)

V6 turret, wedge clamp

Automatic full door (safe tape SW, area sensor), two-hand cycle start button

Chuck auto open/close con�rm, chuck high/low pressure switch

(re-gripping), chucking miss detection

Auto tailstock quill advance/retract con�rm, tailstock thrust high/low switch,

tailstock quill position detection (multi-sizing, high accuracy sizing),

2-speed tailstock quill, low tailstock thrust.

High thrust spindle, face plate, labyrinth protective cover

Chuck air blower, tailstock air blower, spindle ID air blower,

turret air blower (internal piping, common coolant nozzle)

Shower coolant (A, B), spindle ID coolant (A, B)

Spindle air purging, X-axis double wiper (XA:-side 10 mm travel limit), Z-axis double wiper (ZA + ZB)

In-process work gauging

M (manual), A (automatic)

Workrest, parts catcher, bar feeder

High pressure coolant unit, coolant high/low pressure switch (upper/lower turret),

coolant sensors (level sensor, ¢ow sensor)

Tailstock slideway SLU-A1 vertical travel 45 mm, lower slideway,

lower cross-slide

AbsoScale (XA, XB, XA + XB), coolant temperature regulator,

hydraulic oil temperature regulator

20 mm, 45 mm, 70 mm, 95 mm

Steadyrest (Optional)

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ø32

Boring bar ø32

Drill sleevesMT No.1-H32MT No.2-H32MT No.3-H32

Boring bar sleevesBS 8-H32 BS 10-H32 BS 12-H32

BS 16-H32 BS 20-H32 BS 25-H32

10050 1,000

100

50

10

300

1

0.1

5

10

30

40 750 4,000

Spindle speed min-1

kW

Out

put

N-m

Torq

ue

5,000500

11 kW (30 min)7.5 kW (cont)

95.5 N-m (cont)140.5 N-m (30 min)

10050 1,000

100

50

10

300

1

0.1

5

10

30

40 750 4,000

5,000500

15 kW (30 min)11 kW (cont)

140 N-m (cont)191 N-m (30 min)

140 N-m (15 min)95.5 N-m (60 min)

10050 1,000

100

50

10

300

1

0.1

5

10

30

40 750 4,0002,250

5,000500

11 kW (15 min)7.5 kW (cont)

7.5 kW (60 min)

71.5 N-m (cont)

10050 1,000

100

50

10

300

1

0.1

5

10

30

40 750 4,000

5,000500

11 kW (cont)15 kW (15 min)

11 kW (60 min)

105.5 N-m (cont)

191 N-m (15 min)140.5 N-m (60 min)

1,750

Spindle speed min-1

kWO

utp

utN-m

Torq

ue

Spindle speed min-1

kW

Out

put

N-m

Torq

ue

Spindle speed min-1

kW

Out

put

N-m

Torq

ue

OD tool25 x 25

Spindle output/torque diagram

OSP-P300Lø100 spindle

● Spindle speed:4,000 min-1

● Output:11/7.5 kW

(30 min/cont)● Torque:

140.5/95.5 N-m

(30 min/cont)

OSP-P300Lø100 spindle/Highpower specs

● Spindle speed:4,000 min-1

● Output:15/11 kW

(30 min/cont)● Torque:

191/140 N-m

(30 min/cont)

FANUC Oi-TFø100 spindle

● Spindle speed:4,000 min-1

● Output:11/7.5/7.5 kW

(15 min/60 min/cont)● Torque:

140/95.5/71.5 N-m

(15 min/60 min/cont)

FANUC Oi-TFø100 spindle/Highpower specs

● Spindle speed:4,000 min-1

● Output:15/11/11 kW

(15 min/60 min/cont)● Torque:

191/140.5/105.5 N-m

(15 min/60 min/cont)

Tooling System

Chip conveyor: typical shapes and applications

ID Turning OD Turning

Inside tool holder base Upper V6 turret

(220 across flats)

Magnet

* Machine platform may be necessary depending on the type of conveyor.

Name Hinge type Scraper type Hinge scraper type

● For steel ● For castings ● For castings ● For steel, castings, nonferrous metal

● Magnet scraper for sludge processing

● Easy for maintenance ● Blade scraper

● General use ● Suitable with sludge ● Not suitable for

nonferrous metals

● Filtration of long and short chips and coolant

Magnet scraper type

Application

Features

Shape

OSP-P300L Okuma Sampling Path Control

Easy Operation

Okuma Control <for Lathes>

A simple function key operation is all it takes to shift a zero offset to either the left or right end of a workpiece. The required zero offset will be calculated automatically based on jaw and workpiece lengths. (when the tool offset is set with reference to the turret tool mounting surface)

Templates like this make it easy to set required jaw shape, tool, and cutting conditions.

Part programming not required to do this.

Operation screen split into four displays

Forming soft jaws Zero offsets

Simultaneous display includes setup work, current position needed in con�rming movement in trial machining, NC program, and graphic simulation.

Tool registration

Register data for all of your tools. Since the registered tool data is also used by Okuma auto programming (Advanced One-Touch IGF) and a collision check function (Collision Avoidance System), this screen will complete the entire registering process.

When loading a tool in the machine, simply select it from among the registered tools.ATC manual operation does not require inputting the tool number. Just select the tool from the list and press the function key.

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Monitor function

Machine operation

Program input

Automation

Other

Yellow, red, triple lamp

Okuma software Spare tool jump

Spindle + feed

4 points (M19, 119, 129, 139)

Quantitative compensation method (5 steps, 7 steps)

Digital switch with 2-digit display

6 sets

2, 4, 8

Temperature regulator, dehumidi�er

Operation panel, in control panel

OSP-P300L FANUC Oi-TF

Tool counter

Workpiece counter

Multi-counter

Hour meters

Status indicator

Tool life management

Abnormal load detection

Oriented spindle stop

Post-process work gauging interface

Auto power shutoff

Earth leakage circuit breaker (ELCB)

External program selection

Workpiece coordinate system selection

Additional RS-232-C channels

Program restart

Spare M code

Robot loader interface

Bar feeder interface

Control panel lamp

Control panel air conditioning

AV100V 1A socket

Basic Specs

Operations

Communications/NetworksHigh speed/accuracy

ControlPosition feedbackMin / Max inputs

FeedSpindle control

Tool compensationDisplaySelf-diagnosticsProgram capacityEasy Operation

Programing

Machineoperations MacMan

Turning: X, Z simultaneous 2-axis + 2-axisOSP full range absolute position feedback (zero point return not required)8-digit decimal, ±99999.999 ~0.001 mm (±3937.0078~0.0001 in.),0.001° Decimal:1 µm, 10 µm, 1 mm (0.0001,1 in.) (1º, 0.01º, 0.001º)Override: 0 to 200%Direct spindle speed commands, Override 50~200%Constant cutting speed, optimum turning speed designateTool selection: 32 sets, tool offset: 32 sets15-inch color display operational panel, touch panel Automatic diagnostics and display of program, operation, machine, and NC system problemsProgram storage: 2 GB, operation buffer: 2 MB“Single-mode operation” to complete a series of operationsAdvanced operation panel/graphics facilitate smooth machine control

Program management, edit, multitasking, scheduled programs, �xed cycles, special �xed cycles, tool nose R compensation, M-spindle synchronized tapping, �xed drilling cycles, arithmetic functions, logic statements, trig functions, variables, branch statements, auto programming (LAP4), programming help

MDI, manual (rapid traverse, manual cutting feed, pulse handle), load meter, operations help, alarm help, sequence, return, manual interrupt & auto return, data I/O, spindle orientation (electric)Machining Management: machining results, machine utilization, fault data compile & report, external outputUSB ports, Ethernet, RS232C interface (1 channel)

Hi-G control, TAS-C: Thermo Active dimension Stabilizer—Construction

Standard Specifications

Optional SpecificationsNew Operations

Advanced One-Touch IGF-L *2

Programming

Circular threading

Program notes

User task 2 I/O variables

Common variables 1,000 sets (Std: 200 sets)

Thread matching (spindle orientation required)

Threading slide hold (G34, G35)

Variable spindle speed threading (VSST)

Inverse time feed

Inch/mm switch

Monitoring

Real 3-D simulation

Cycle time over check

Load monitor (spindle, feed axis)

Load monitor no-load detection (load monitor ordered)

Tool life management

Tool life warning

Operation end buzzer

Chucking miss detection

Work counters

Hour meters

NC operation monitor (counter, totaling)

NC work counter (stops at full count with alarm)

Status indicator (triple lamp) Type C [Type A, Type B]

Measuring

In-process work gauging

Z-axis automatic zero offset by touch sensor

Gauge data output

Touch setter [M, A]

Item

10 sets

50 sets

100 sets

Tool compensation 64 sets

Tool compensation 96 sets

Tool compensation 200 sets

Tool compensation 999 sets

Kit Specs *1

Optional Specifications

Included in machine specs

Included in machine specs

Included in machine specs

NML 3D OT-IGF

Post-processwork gauginginterface

Count only

Cycle stop

Start disabled

Power ON

Spindle rotation

NC operating

File output

Set levels (5-level, 7-level)

BCD

RS-232-C (dedicated channel)

Work coor-dinate systemselect

Tool compen-sation(Std: 32 sets)

E D E D E D Item

External Input/Output and Communication Functions

Additional RS-232-C channel

2 channels (Std 1 channel)

DNC link

USB (additional)

FL-net

Automation/Untended Operation

Auto power shutoff MO2, alarm

Warmup function (by calendar timer)

Tool retract cycle

Okuma loader (OGL) interface

Bar feeders

Cycle time reduction *3

High-Speed/High-Accuracy Functions

0.1 µm control *3

Pitch error compensation

Other Functions

Collision Avoidance System (CAS)

One-Touch Spreadsheet

Machining Navi L-g

Harmonic spindle speed control (HSSC)

Spindle dead-slow cutting

Spindle speed setting

Manual cutting feed

Spindle power peak cutting

Short circuit breaker

External M signals [2 sets, 4 sets, 8 sets, ( )]

Edit interlock

OSP-VPS (Virus Protection System)

*1. NML: Normal, 3D: Real 3D simulation, OT-IGF: One-Touch IGF, E: Economy, D: Deluxe

*2. Real 3-D Simulation included

*3. Engineering discussions required.

DNC-T3

DNC-C/Ethernet

DNC-DT

2 additional ports possible

Externalprogramselections

Third party robotand loaderinterface *3

A (pushbutton) 8 types

B (rotary switch) 8 types

C (digital switch) BCD, 2-digit

C2 (external input) BCD, 4-digit

Type B (machine)

Type C (robot and loader)

Type D

Type E

Bar feeder

Interface only

Operation time reduction

Chuck open/close during spindle rotation

Spindle rotating auto tailstock advance/retract

DE D E D E

NML 3D OT-IGFKit Specs *1

Included in machine specs

Including loader specs

Number of control axes

Interpolation system

Command system

Minimum input increment

Minimum command value

Operating panel

Monitor function

Machine operation

Simultaneous 2 axes (X, Z)

Positioning, linear, arc, threading, taper

Polar coordinate interpolation, cylindrical interpolation

With absolute incremental

X, Z axes both 0.001 mm

±99999.999 mm decimal point input

10.4 inch color TFT

Display language English/Japanese

Operating time, no. of parts display

Electronic buzzer

Graphic display

Tool life management

Constant cutting speed control

Oriented spindle stop (1 point M19)

Continuous threading function

Program input

Compensation function

Program memory: 512 KB

No. of registered programs: 400

Chamfering, corner R

Complex shape �xed cycle (I + II)Extension program editing

RS-232-C input/output interface

Custom macro

Additional custom macros, common variables (total 600)

Programmable data input

High-speed skip

Program protection key switch

Background editing

Drilling �xed cycle

Inch/metric switch

Thermal deformation compensation

Tool nose radius compensation

Memory type pitch error compensation

Tool shape and wear compensation

No. of tool compensations: 128

Advance control

Standard Specifications

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Tail stock

Turret interference drawing

Dimensional / installation Drawings

Working Range

(opened doordimensions)

150 side tank removal space

Power inlet

Side tank removal space

Coolant pump

Rear coolant pump

Hydraulic unit

NC control

Status indicator (3-color type)(option)

Chip conveyorSide disposal,L type(option)

Lube tank

operation panel

V6 turret

Spindle

TailstockPressure adjustment valveHydraulic chuckPressure adjustment valve

Chip conveyor removal space

(opened door dimensions)Lube tank

Coolant pump

Hydraulic unit

NC control

Power inlet

Side tank removal space

Status indicator (3-color type)(option)V6 turret

Spindle

TailstockPressure adjustment valveHydraulic chuckPressure adjustment valve

Operationpanel

Tailstock

Chip conveyorSide disposal,L type(option)

Chip bucket (option)

Maintenance spaceMaintenance space

Chip conveyorRear discharge type (option)

Chip bucket (option)

Chip bucket(option)

13 14

<DBC 550>Turret interference drawing

Dimensional / installation Drawings

Working Range

<DBC 1000>

MMD ø160

ø375

ø375 ø254

100 travel

100 travel35

35

Max swing ø435

ø200ø210

ø210

ø254 ø32

ø32

ø200

<DBC 550 (DBC480)> Direct OD <DBC 550> With steadyrest tailstock guide <DBC 1000> Direct OD <DBC 1000> With steadyrest tailstock guide

5

173380 (310) 2917

97 197 (87)120

Quill travel300 (340) Tailstock travel 294 (184) 106 46

152

ZB travel 570 (500)

( ):480DBC

115

N-08A0601A

714 (644)50

XA

tra

vel 1

00

ZA travel 570 (500)

ø58MT No.5

7

45 3510

9010

ZA/ZB : travel 570

MIN : 296MAX : 596

139 131

50 115 181270

14 12

296Steadyrest travel 300Steadyreast arm width 26

Tailstock travel 300

Quill travel

Steadyrest (SLU-A1-Z)

24 120

714

294 120

19797

152

227

N-08A0601A

ø58

MT No.5

1,42

555

045

0

1,98

0

473

380

500393

1,27

010

543

4.681

785

057

544

342

1 (254)47368

3,580 (4,020)1,140 (1,580)

599 (853)667 (1,107)2,060

2,440

66095

597 708[ ] H chip conveyors.

1,74

5

2,05

4

1,14

560

093

3

347

(800)

393

600

1,070 (1,404)921 (1,153)

866

(1,3

64)

700

(1,0

00)

1,300 1,8006801,980

812

(800)600

ø352

100 travel

100 travel100 travel

100 travel50 35 3590 90

10 135110 110 110 110 50

160 235 235 160

135

167.

5

8.5

29.5

197

ø254

ø32

MMD ø160

ø375

ø325

ø254

ø210

ø210

10

75.9

ø200

ø200

350.

5270.

535

75.5

230

13.4

27.1

ø32

50 115 ZA travel 1,100

227152

97

115

327424

173 17

120 Tailstock travel 700

Quill travel

ZB travel 1,100

N-08A0601A

ø58

MT No.5

22173

7

90

10 9035

801010

17

N-08A0601A

MT No.5

ZA/ZB : travel 1,100

374 186.5*

50 115560.5

139 235

ø58

Tailstock travel 700Quill travel

(50) 120

1,244

424 12032797

152

Steadyrest (SLU-A1-Z)

MIN : 322MAX : 835.5

181

14 12

322Steadyrest travel 513.5Steadyreast arm width 26

227

513850 2,005

500

1,27

0

192

605

(407

)

575

850

550

450

817

1,42

5

1,137755 963

380

4,415

2,8553,235 513 667

69 2505982,532

2,2821,300

1,74

550

21,

145

600

274

2,24

7

2,09

62,

004

92

982

Inside tool holder base

Inside tool holder base

Inside tool holder base

Inside tool holder base

Max swing ø435

Max swing ø435

Max swing ø435

ø210 (8-inch chuck)

Lower saddle

----Different than with distance between centers of 550---Interference will occur between the inside toolholder boring bar (with diameter ø32, length ≥50 mm) and screen ¡xed cover if the turret rotates at the negative ZA axis end (shaded area)

*No interference between the inside toolholder and the screen ¡xed cover (avoided in Z axis direction)*No interference even with travel up to the negative ZA axis end with the inside toolholder in an indexed state (there is interference if the turret rotates)

XB

tra

vel

100

XA

tra

vel 1

00X

B t

rave

l 1

00

Measuringsystemtravel

*By moving the tailstock to the spindle side, it is possible to offset the steadyrest travel (offset with measuring system)

Page 9: 2-Saddle CNC Lathe - Bulmakmetal Ltd. – Premium CNC ...bulmakmetal.com/wp-content/uploads/2016/10/LU-S1600-E-3a-400Oct... · 1 2 2-Saddle CNC Lathe Wide variety of processes, from

When using O

kuma p

roducts, alw

ays read the safety p

recautionsm

entioned in the instruction m

anual and attached

to the prod

uct.

� The sp

eci�cations, illustrations, and d

escriptions in this b

rochure vary in different m

arkets and

are subject to change w

ithout notice.P

ub.N

o. LU-S

1600-E-(3a)-400 (O

ct 2014)

2-Sad

dle C

NC

Lathes

This product is subject to the Japanese government Foreign Exchange and Foreign Trade Control Act with regard to security controlled items; whereby Okuma Corporation should be noti�ed prior to its shipment to another country.

, OGUCHI-CHO, NIWA-GUN, AICHI 480-0193, JAPAN • TEL (0587) 95-7825 • FAX (0587) 95-6074

To protect your factory and equipment from �re and assure continued safe operation, observe the following �re safety precautions whenever you operate machinery. Whenever possible, avoid the use of oil-based coolants for cutting operations. Sparks caused by hot chips, tool friction, and grinding can cause �res. Always observe the following safety measures to ensure safe operation when machining �ammable materials or when performing dry machining.

Before machining any material designated by law as a �ammable substance, e.g., plastic, rubber, wood, acquaint yourself with the special characteristics of the material in terms of �re prevention, and observe the precautions given in (2) above to ensure safe operation. Example: When machining magnesium, there is a danger that magnesium chips and water- soluble coolants will react to produce hydrogen gas, resulting in an explosive �re if any chip should ignite.

Dry machining is a �re hazard because workpieces, tools, and chips are not cooled. To ensure safe operation, do not place any �ammable objects near the machine and do not allow chips to over accumulate. In addition, be sure to check cutting tools to make sure of their service life and the condition of the tool edge, and observe the precautions regarding oil-based coolants given in (2) above.

(1) Use non�ammable cutting �uid coolant. (2) When the use of an oil-based coolant is unavoidable:

Before you begin machining, check cutting tools to make sure of their service life and the condition of the tool edge, and choose cutting conditions that will not cause a �re. Periodically clean the coolant �lter to maintain suf�cient coolant discharge, and frequently verify that coolant is discharging normally. Take measures to control the outbreak of �re: Place a �re extinguisher near the machine, have an operator constantly monitor operation, and install an automatic �re extinguishing system. Do not place �ammable materials near the machine.Do not allow chips to over accumulate. Periodically clean the inside of the machine and the area surrounding it.Check that the machine is operating normally. Never run the machine unattended. Since an automatic �re extinguishing system and other peripherals are needed, please let us know as soon as possible if you plan to perform such operations.

Fire Safety Precautions

1. Oil-based coolant

2. Precautions regarding machining of potentially �ammable materials

3. Dry machining