ncsx systems engineering management plan peer review bob simmons may 15, 2003
TRANSCRIPT
NCSX NCSX Systems Engineering Systems Engineering
Management Plan Peer Management Plan Peer ReviewReview
Bob Simmons
May 15, 2003
May 15, 2003 2
NCSX Data Management Plan NCSX Data Management Plan Peer ReviewPeer Review
Review Committee– Charlie Neumeyer, Chair– Bob Simmons, Cog– Wayne Reiersen, RLM– Judy Malsbury– Mike Williams– Larry Dudek– Brad Nelson
May 15, 2003 3
Review ObjectivesReview Objectives Have the appropriate systems been established for
the implementation of an effective systems engineering management program for NCSX?
Do these systems provide an appropriate level of detail, yet are sufficiently flexible to meet the tailored approach philosophy for NCSX ,including the work being accomplished at ORNL?
What plans are in place to train the NCSX personnel in the various systems engineering programs and systems (e.g., configuration management, interface control, document management, etc.)? Still work in Progress
May 15, 2003 4
Relationships to Other NCSX Relationships to Other NCSX Plans and ProceduresPlans and Procedures
The NCSX NCSX Systems Engineering Management Plan (SEMP) is consistent with the requirements of the Project Execution Plan (PEP) and the Quality Assurance Plan (QAP)
The SEMP is the top-level engineering plan and all other NCSX Engineering Project Plans support and expand the programs and systems outlined in the SEMP
– Configuration Management Plan (CMP)– Interface Control Management Plan (ICMP)– Data Management Plan (DMP)– Document and Records Plan (DOC)– Pro/INTRALINK Users Guide
May 15, 2003 5
Systems Engineering (SE) is Systems Engineering (SE) is Central to the NCSX Central to the NCSX
Engineering ProcessesEngineering Processes
Defines the processes for technical planning and control
Defines the systems engineering processesDefines the engineering specialty integration
processes
May 15, 2003 6
How Does the Systems How Does the Systems Engineering Program Fit?Engineering Program Fit?
ORNL has committed to follow NCSX plans and procedures
Unless specifically modified or supeceded by NCSX-specific plans and procedures, NCSX is committed to following existing DOE and PPPL plans and procedures– In no instances are the NCSX plans and procedures in
conflict or a dilution of the existing PPPL plans and procedures
– Where NCSX is more rigorous, specific note will be made
May 15, 2003 7
Technical Program Planning Technical Program Planning and Controland Control
Work Breakdown Structure (WBS) provides the overall architecture for the systems engineering work– NCSX team structure has been aligned with the WBS
NCSX Engineering Manager has overall responsibility for implementing the SE program on NCSX– Systems Engineering Support Manager and Design
Integration Manager provide staff support to the Engineering Manager
May 15, 2003 8
Technical Program Planning Technical Program Planning and Controland Control
Four Project Engineers report directly to the Engineering Manager in the line organization– Stellarator Core (WBS 1)– Ancillary Systems (WBS 2-6)– Assembly Operations (WBS 7)– Operations (Testing, Ops and Maintenance
Procedures, Prep for Ops)
May 15, 2003 9
Technical Program Planning Technical Program Planning and Controland Control
Systems Integration Team (SIT)– Consists of project personnel to facilitate integration of
project work– Provides a forum for discussion of requirements
interpretations, potential areas of risk, system level trade studies, coordination of processes, and resolution of issues
– Intended to facilitate obtaining decisions through line management that are best for the project as a whole
May 15, 2003 10
Technical Program Planning Technical Program Planning and Controland Control
Work is organized Work is planned and costs and schedules are
estimated and integrated– Use of SEML more rigorous during design process than
existing PPPL procedures (e.g., WP as specified in ENG-032)
– WP will govern any site work
Work is authorized Work is tracked
May 15, 2003 11
Work Authorization ProcessWork Authorization ProcessT h e jo b es tim ate is a b r ie f n ar r a tiv ed es c r ip tio n o f w o r k to b e p er f o r m edan d a jo b p lan id en tif y in g a ll ac tiv it iesin c lu d in g th e ir
lo g ic a l s eq u en c etim e d u r a tio n sr es o u r c e r eq u ir em en tslin k ag es to o th er ac tiv it iesm iles to n es an d d e liv er ab les
R eq u ir esM o d if ic a tio n to an
E x is tin g S y s teman d /o r F ac ility ?
P r ep ar e a J o b E s tim ate( J o b M an ag er )
As s ig n J o b N u m b er & E n terD ata I n to P 3 D atab as e
( N C S X P C M )
G en er a te W AF( N C S X P C M )
W AFAp p r o v ed ?
R ev is eW AF
Yes
G en er a te W o r kP lan n in g D o c u m en t
p er E N G - 0 3 2Yes
S tar t W o r k( J o b M an ag er )
N o
N o
P C M - P r o jec t C o n tr o l M an ag er
P r ep ar e S E M L( E n g in eer in g M an ag er )
May 15, 2003 12
Cost Performance ReportingCost Performance Reporting
O R N L L ab o r an dM & S Ac tu a ls /Ac c r u a ls
( AC W P )( O R N L P C M )
P P P L L ab o r( T im es h ee ts )
P P P L M & SAc tu a ls /Ac c r u a ls
( N C S X P C M o r I n v o ic es )
P P P L Ac c o u n tin gS y s tem
J o b C o s t R ep o r ts( AC W P )
M o n th ly S ta tu s M eetin g( 1 ) J o b % C o m p le te b y T as k( 2 ) J o b C h ar g es( 3 ) E s tim ate to C o m p le te( 4 ) P r o b lem Ar eas an d R ec o v er y P lan s
P 3 D atab as e
P P P L AC W PAC W PO R N L AC W P
BC W P ( ear n ed v a lu e) ,BC W S , AC W P
M o n th ly C o s t P er f o r m an c e R ep o r tC o s t Var ian c e ( BC W P - AC W P )S c h ed u le Var ian c e ( BC W P - BC W S )E s tim ate to C o m p le te ( E T C )P er f o r m an c e C u r v esS ta tu s ed S c h ed u le Bar C h ar t
L eg en dP C M - P r o jec t C o n tr o l M an ag erAC W P - Ac tu a l C o s t o f W o r k P er f o r m edBC W P - Bu d g eted C o s t o f W o r k P er f o r m ed ( ear n ed v a lu e)BC W S - Bu d g eted C o s t o f W o r k S c h ed u leP 3 - P r im av er a P r o jec t P lan n in gC P R - C o s t P er f o r m an c e R ep o r t
May 15, 2003 13
NCSX Project CycleNCSX Project Cycle
S ubs ys te m
C o nfig ura tio n Ite m (C I)
D O E C rit ica l D e cis io n s A ppro v e M is s io n Ne e dC D -0
A ppro v e B a s e lin e R a n g eC D -1
A ppro v e Pe rfo rm a n ce B a s e lin eC D -2
A ppro v e S ta rt o f C o n s tru ct io nC D -3
Pre -C o n ce ptu a l D e s ig n C o n ce ptu a l D e s ig n Pre lim in a ry D e s ig n Fin a l D e s ig nFa brica t io n , A s s e m bly ,I n s ta lla t io n , a n d Te s t O pe ra t io n s
C D RPV R O R AD O E R e v ie ws
A ppro v e S ta rt o f O pe ra t io n sC D -4
S y s temS p ec if ic a tio n ( G R D )
M is s io nR eq u ir em en ts
De c om
p o s it io n &
De fin ition
S y s tem C o n c ep t D ef in it io n
S u b s y s tem S p ec if ic a tio n
F u n c tio n al A llo ca tio n
S u b s y s temC o n c ep tD ef in it io nF u n c tio n al Allo c atio n
C I C o n c ep tD ef in it io n
"D es ig n - to " s p ec if ic a tio n sp u t u n d er c h an g e c o n tr o la t C I P D R s
C I "D es ig n - to "S p ec if ic a tio n s
C IP D R
C I "Bu ild - to "D o c u m en ta tio n
C IF D R
C I D eta iledD es ig n
C IF ab /A s s y /T es t
I n teg ra tedS y s tem sT es tin g
Su b s y s t emT es t in g
S u b s y s temT R R
I n teg ra tio n
S y s temT R R
S y s tem v er if ic a tio n p lan sb as e lin ed in P D
Inte
g ra t
ion &
Ver
ifica
tion
I n teg ra tio n
C I v er if ic a tio n p lan sb as e lin ed a t C I P D R
"Bu ild - to " d o c u m en ta tio np u t u n d er c h an g e c o n tr o la t C I F D R s
Ph a s e
C o n ce pt B a s e lin e Fu n ct io n a l B a s e lin e A llo ca te d o r " D e s ig n - to "B a s e lin e
" B u ild- to " B a s e lin e Pro du ct o r " A s -bu ilt"B a s e lin e
L e g e n dPV R - Ph y s ics V a lida t io n R e v ie w, C D R - C o n ce ptu a l D e s ig n R e v ie w, O R A - O pe ra t io n a l R e a din e s s A s s e s s m e n t , TR R - Te s t R e a din e s s R e v ie w,PD R - Pre lim in a ry D e s ig n R e v ie w, FD R - F in a l D e s ig n R e v ie w
S ys te m
May 15, 2003 14
Requirements Documentation Requirements Documentation HierarchyHierarchy
S y s temR eq u ir em en ts
"D es ig n - to "R eq u ir em en ts
"Bu ild - to "R eq u ir em en ts
BUI L D E R S P r o d u c t/S er v ic e
May 15, 2003 15
Specification TypesSpecification TypesSPECIFICATION PURPOSE SYSTEM • Establishes the requirements for the system/project and characteristics of
lower level WBS elements. The GRD will be the system specification. DEVELOPMENT (“Design to”)
• Allocation of development requirements to the subsystem and CI from the GRD specification (e.g., to SRDs and then to lower level CI’s)
• Defines the methods used to verify the requirements have been met PRODUCT (“Build to”)
• Defines product acceptance requirements
PROCESS • Prepared for manufacturing techniques that require a specific procedure in order that a satisfactory result may be achieved.
MATERIALS • Prepared to control the development of a material.
May 15, 2003 16
Systems Engineering Systems Engineering ProcessesProcesses
Design Definition and Integration– Point where a design concept is created to satisfy a given
set of requirements– Includes evaluation of alternatives– Eventually culminates in a final design for the entire
NCSX Risk Management
– Responsibility lies with NCSX line management– SIT will facilitate the identification of areas of risk,
coordinating the development of risk mitigation plans, and the monitoring of performance against those plans
May 15, 2003 17
Systems Engineering Systems Engineering ProcessesProcesses
System Build– Starts with a concept and evolves in detail until the
system is constructed and ready for integrated systems testing
– Naturally an extension of the requirements analysis and design tasks for all components and subsystems
– Intend to utilize construction techniques familiar to PPPL technicians
System Test and Verification– Combination of inspection, demonstration, test, and
analysis techniques
May 15, 2003 18
Systems Engineering Systems Engineering ProcessesProcesses
Configuration Management, Interface Control, and QA already subject of peer reviews
Design Reviews– External design reviews conducted by DOE in
support of Critical Decision milestones– Internal design reviews scheduled and planned
in accordance with ENG-033 – usually at the subsystem level
May 15, 2003 19
Engineering Specialty Engineering Specialty IntegrationIntegration
Reliability, Availability, and Maintainability (RAM) – RAM Plan will be prepared prior to final design
review
Value Engineering/Management (VE/VM)– Will apply to NCSX using a graded approach– Already have implemented several VE/VM
studies
May 15, 2003 20
Engineering Specialty Engineering Specialty IntegrationIntegration
Parts, Materials, and Process Standardization and Control– Plan to develop a Master Parts List and
Vacuum Materials List – by time of PDR
Manufacturability– Manufacturing, Inspection, and Test Plan
(MITP) shall be produced for each configuration item
May 15, 2003 21
Engineering Specialty Engineering Specialty IntegrationIntegration
Constructability– Under the leadership of the Assembly Operations
Project Engineer, although all WBS Managers have this responsibility
Space allocations Access for assembly Required assembly sequence Early identification and mitigation of constructability issues Design features to reduce construction costs
Training– Safety and project-specific
May 15, 2003 22
Engineering Specialty Engineering Specialty IntegrationIntegration
Technical Publications (O&M Manuals, etc.)– Electronic or hard copy data bases available
(depending on material)
ES&H– ISM policies and practices followed– ES&H review of technical documentation
throughout the life of the project
May 15, 2003 23
SEML (PROC-004)SEML (PROC-004)
The Systems Engineering Master Logic is the key planning document during the design phase– Defines the logic for design development and the
necessary activities and deliverables for the Preliminary and Final Design Reviews
– Used as guide when developing the WAFs
Work Planning (WPs) shall be used for planning all field work, including on-site R&D during the design phases
May 15, 2003 24
SEML (PROC-004)SEML (PROC-004)
This procedure lays out the process for– Identifying configuration items (CI) and for
aligning the specifications, design reviews, and acquisition plans with that CI
– Developing the SEML (generic example) for both Preliminary and Final Design Reviews
May 15, 2003 25
Item Requirement Success Criteria Configuration Identification
Identify configuration items (CIs). Include software, support equipment, and tooling. Align specifications, design reviews, and acquisition plans with CI identification. Acquisition plans should address build v. buy issues.
Spec tree, design review schedule, and acquisition plans updated and posted on Web. Project detailed schedule updated by PC Mgr.
Specifications Performance requirements are finalized and documented in approved development ("design-to") specifications , which are under change control. No TBDs allowed.
Approved specification(s).
Design vs. Requirements Document design approach. Demonstrate how the design concept satisfies requirements and design constraints in the relevant development specifications.
Documented in Design Basis Document prior to PDR. Approved by cognizant Project Engineer.
Resolution of Design Recommendations
Document resolution of chits from prior design reviews. Resolution of chits from prior design reviews documented on Web. Action items completed.
Interface Identification Signed scope sheets for all primary interfaces. No TBDs allowed. Approved by Systems Engineering Support Manager
Signed ICDs for all primary interfaces. TBDs allowed with closure plans. Approved by Systems Engineering Support Manager
Models and Drawings Sufficient drawings to support developmental design and analytical evaluation of the inherent ability of the design to attain the required performance. The drawings shall be sufficient to develop manufacturing approaches and cost estimates. All models and drawings promoted to Preliminary Design Release. Drawings shall be provided which define where the equipment will be located in the facility. Preliminary Design Release models and drawings should form a self-consistent package and provide the basis for cost and schedule estimates.
Models and drawings approved for promotion by the cognizant Project Engineer
Develop a drawing tree with at least enough detail to identify all components necessary to support final design and production planning.
Approved by the cognizant Project Engineer
May 15, 2003 26
Item Requirement Success Criteria Analysis Design criteria to establish limits for acceptability are in place. Sufficient analysis shall
be provided to establish that the proposed design is feasible and meets established design criteria. Analyses must be documented in an auditable way – in analysis reports, not viewgraph presentations. The following analyses shall be accomplished as appropriate: structural, thermal, seismic, eddy current, radiation, and circuit analyses. Other analyses shall be included as appropriate.
Design criteria documented. Material properties characterized and documented. Analysis reports reviewed by cognizant Project Engineer, summarized in Design Basis Document.
Manufacturability Provide evidence (if necessary) from R&D activities that the design is manufacturable and has been optimized for manufacturability.
Manufacturing studies conducted as appropriate and results documented in Design Basis Document.
Qualification and Acceptance Testing
Qualification and acceptance test plans consistent with verification requirements in the development specifications. Identify when these tests would be performed. These plans provide the basis for subsequently developing test procedures.
Qualification and acceptance test plans documented and approved.
Constructability Document plans for assembly, installation, and test. Provide evidence that risk-related issues have been satisfactorily addressed. These plans provide the basis for subsequently developing assembly, installation, and test procedures.
Assembly, installation, and test plans documented and approved.
Value Engineering Determine what design areas would likely benefit from additional value engineering at the beginning of Preliminary Design. Conduct and document results of value engineering studies (if any).
Results of value engineering studies (if any) documented in Design Basis Document.
RAM Provide FMECA per ENG-008 identifying potential failure modes and recovery provisions. Explain how design has been optimized for reliability, maintainability, and safety through systematic evaluation of design options and application of proven design approaches.
FMECA documented. Summary of findings and design recommendations provided in Design Basis Document.
May 15, 2003 27
Item Requirement Success Criteria ES&H Provide a hazard analysis that address the following:
1. Descriptions of the environment, safety and health (ES&H) features of structures, systems and components, as applicable. 2. Identification of hazards associated with anticipated operation of the structure, system or component and methods employed for their mitigation. 3. Some description of the ES&H aspects of operations, e.g., access controls, setting of hardwired interlocks, operator actions, etc. The depth of the discussions of these topics should be commensurate with the potential severity of the specific hazards, and with the maturity of the designs. The hazard analysis report should address ES&H issues identified in the FMECA. Review existing NEPA documentation. Submit new NEPA Planning Form if new hazards are identified.
Report documenting hazard analysis. Approved by NCSX ES&H Manager.
COTS and Legacy Equipment
Identify use of COTS commercial, off-the-shelf (COTS) or legacy equipment. Describe plan for testing the performance of legacy equipment.
Documented in Design Basis Document.
Human Engineering Demonstrate that sound human engineering principles have been followed in the design. Documented in Design Basis Document.
Standardization Considerations
Identify how design has been optimized for standardization, including a list of standardized components
Documented in Design Basis Document.
Software and Firmware Identify and describe all planned software and firmware, including the functional requirements allocated to them, how they will be validated and verified. (May be part of a MITP).
Documented in Design Basis Document.
Preliminary Weight and Size Data
Demonstrate that weight and sizes are compatible with structural supports and size constraints
Documented in Design Basis Document.
Risk Management Identify areas of significant risk and mitigation plans Documented in Design Basis Document.
Baseline Maintenance Update cost and schedule estimates in P3 database consistent with proposed technical baseline as defined by Preliminary Design Release Level models and drawings and other documentation. Cost and schedule updates should generally be of a higher quality than the prior estimate with increased input from industry.
Approved by the cognizant Project Engineer. Coordinated with Engineering Manager. Incorporated in P3 database by Project Control Manager.
Provide input to omnibus ECP to reflect proposed changes to the technical, cost, and schedule baselines. ECP will be processed after chits that have significant design, cost, or schedule impacts have been addressed. New baselines will be established upon approval of ECP and implementation of approved changes.
Approved by the cognizant Project Engineer. Coordinated with the Engineering Manager.
May 15, 2003 28
Questions?Questions?