SRR and PDR Charter & Review Team. Linda Pacini (GSFC) Review Chair

Similar documents
Space engineering. System engineering general requirements. ECSS-E-ST-10C 6 March 2009

PROJECT MANAGEMENT AND SYSTEM ENGINEERING HANDBOOK

TECHNICAL REVIEWS AND AUDITS

NASA Systems Engineering Processes and Requirements

PRACTICE NO. PD-ED RELIABILITY February 1996 PRACTICES PAGE 1 OF 7 COMMON REVIEW METHODS FOR ENGINEERING PRODUCTS

USING PILOTS TO ASSESS THE VALUE AND APPROACH OF CMMI IMPLEMENTATION. Goddard Space Flight Center (GSFC)

Safety Framework for Nuclear Power Source Applications in Outer Space

SYSTEMS ENGINEERING REQUIREMENTS AND PRODUCTS

Space engineering. Control engineering handbook. ECSS-E-HB-60A 14 December 2010

Report of the Reliability Improvement Working Group (RIWG) Volume II - Appendices

International Space Station Program

Margins and Contingency Module Exploration Systems Engineering, version 1.0

GAIA. GAIA Software Product Assurance Requirements for Subcontractors. Name and Function Date Signature 15/09/05 15/09/05 15/09/05 15/09/05 15/09/05

Space project management

Use of the Capability Maturity Model Integration (CMMI ) in software engineering management on NASA missions

AGI Software for Space Mission Design, Analysis and Engineering

Risk Module: Risk Management, Fault Trees and Failure Mode Effects Analysis Exploration Systems Engineering, version 1.0

TECHNICAL REVIEWS AND AUDITS FOR SYSTEMS, EQUIPMENT AND COMPUTER SOFTWARE

Independent Verification and Validation (IV&V)

Military Specifications Current and Future Trends Larry Harzstark Distinguished Engineer The Aerospace Corporation 1 November 2012

SYSTEMS DESIGN ANALYSIS APPLIED TO LAUNCH VEHICLE CONFIGURATIONS

WORK PLAN AND IV&V METHODOLOGY Information Technology - Independent Verification and Validation RFP No IVV-B

Der virtuelle Entwurfsprozess (Virtual Spacecraft Design VSD)

National Aeronautics and Space Administration Washington, DC 20546

Top 10 Signs You're Ready (or Not)

Systems Engineering, Program Management conjoined Disciplines over the Project Life Cycle

COMPLIANCE WITH THIS PUBLICATION IS MANDATORY

Osprey Technologies, LLC. Quality Manual ISO9001:2008 Rev -

Integrated Systems Engineering and Test & Evaluation. Paul Waters AIR FORCE FLIGHT TEST CENTER EDWARDS AFB, CA. 16 August 2011

Requirements Module: Writing Requirements

TEST REQUIREMENTS FOR GROUND SYSTEMS

Human-Rating Requirements and Guidelines for Space Flight Systems

CMMI-DEV V1.3 CMMI for Development Version 1.3 Quick Reference Guide

8 Mission Design and Mission Analysis

Scoping & Concept of Operations (ConOps) Module

SYSTEMKARAN ADVISER & INFORMATION CENTER QUALITY MANAGEMENT SYSTEM ISO9001:

IBM Integrated Product Development (IPD)

SSL Payload Orbital Delivery System (PODS) FedEx to GTO/GEO

Space project management

Paper Session II-A - International Space Station Alpha Integrated Product Team/ Analysis and Integration Team Process

International Space Station Program

DATA ITEM DESCRIPTION

Common Criteria Evaluation and Validation Scheme For. Information Technology Laboratory. Guidance to Validators of IT Security Evaluations

3 PART THREE: WORK PLAN AND IV&V METHODOLOGY (SECTION 5.3.3)

Sample Reliability Language for DoD Acquisition Contracts

Highlights of CMMI and SCAMPI 1.2 Changes

Model Driven Systems Engineering: Linking the Vee

Guidance for the Tailoring of R&M Engineering Data

New Reliability Prediction Methodology Aimed at Space Applications. Briefing Meeting with Industry

MECHANICAL EQUIPMENT AND SUBSYSTEMS INTEGRITY PROGRAM

DEPARTMENT OF DEFENSE HANDBOOK MECHANICAL EQUIPMENT AND SUBSYSTEMS INTEGRITY PROGRAM

Electronic Data Sheets at ESA: Current Status and Roadmap

Design and AIV for New Space New Rules (components for nano/micro satellite)

ISO 9001:2008 Quality Management System QMS Manual

Paper Session I-A - Space Shuttle, Human Space Transportation for the Next Thirty Years

Project Managers Guide to Systems Engineering Measurement for Project Success

Table of Contents. Article 7 -- Management Aspects of the Space Station Program Primarily Related to

Test Requirements for Space Equipment

New Opportunities for System Architecture Measurement

CHAPTER 1 Introduction

Successful Cost Estimation with T1 Equivalents

7/26/2016 ARETE-ZOE, LLC 1

Model-Based Concept Development

Assessment of Technology Readiness Level of a Carbon Dioxide Reduction Assembly (CRA) for Use on International Space Station

GLAST Large Area Telescope. Risk Mitigation Trades. LAT Risk Mitigation Test Trades. End to End Performance Verification

JTI-CS CFP06-REG-01-09

Table of Contents. Article 7 -- Management Aspects of the Space Station Program Primarily Related to Detailed Design and Development 16

DRAFT. Effort = A * Size B * EM. (1) Effort in person-months A - calibrated constant B - scale factor EM - effort multiplier from cost factors

Space Vehicle Testbeds and Simulators Taxonomy and Development Guide

Space engineering. Ground systems and operations. ECSS-E-ST-70C 31 July 2008

Introduction Module: What is Systems Engineering? Exploration Systems Engineering, version 1.0

SECTION C - DESCRIPTION / SPECIFICATIONS / STATEMENT OF WORK

CMMI-SVC V1.3 CMMI for Services Version 1.3 Quick Reference Guide

DATA ITEM DESCRIPTION

MSR Planning Presentation to the Planetary Science Subcommittee 23 June Lisa May MSR Program Executive

COMPLIANCE WITH THIS PUBLICATION IS MANDATORY

Writing Good Requirements. (A Requirements Working Group Information Report)

Systems Engineering Challenges for an Army Life Cycle Software Engineering Center

Exploration Missions to Host Small Payloads

Correspondence Between ISO 13485:2016 and 21 CFR Part 820 QMS Requirements

DEPARTMENT OF DEFENSE STANDARD PRACTICE FOR CALIBRATION AND MEASUREMENT REQUIREMENTS

Report. Quality Assessment of Internal Audit at <Organisation> Draft Report / Final Report

Section M: Evaluation Factors for Award HQ R LRDR Section M: Evaluation Factors for Award For HQ R-0002

DATA ITEM DESCRIPTION TITLE: TRAINING SITUATION DOCUMENT Number: DI-SESS-81517C Approval Date:

Desk Audit of. Based on Federal Transit Administration (FTA) Quality Assurance and Quality Control Guidelines FTA-IT

19 Thermal Testing. J. W. Welch*

Latest Reliability Growth Policies, Practices, and Theories for Improved Execution

CODE: FD10 Rev: A Date: 9/24/2008 CONFIGURATION MANAGEMENT

Introduction to Software Engineering

On the management of nonfunctional requirements

SYSTEMS ENGINEERING REQUIREMENTS AND PRODUCTS

0 Introduction Test strategy A Test Strategy for single high-level test B Combined testing strategy for high-level tests...

ARTICLE 4 SPECIFICATIONS AND SCOPES OF WORK

Internal Audit Charter

Evolutionary Differences Between CMM for Software and the CMMI

Use of PSA to Support the Safety Management of Nuclear Power Plants

Software Acquisition Best Practices for Ground Systems

Transcription:

SRR and PDR Charter & Review Team Linda Pacini (GSFC) Review Chair

Review Requirements Review requirements are taken from the following documents: GSFC STD 1001 Criteria for Flight Project Critical Milestone Reviews NPG 7120.5B NASA Program and Project Management Processes and Requirements LRO AO The requirements for each review may be tailored by the Review Chair based on specific instrument design, heritage, associated risk, etc As of this time, there has been no tailoring of the review process for any instrument 2

Instrument Review Team Discipline A typical review team for instruments consists of the following disciplines: Chair, Co-chair Linda Pacini, Brian Keegan Science Chief Engineer Office Systems Engineering Electrical/Power Systems C&DH Mechanical Thermal SW Mission Assurance (risk management, reliability, safety, TBD) Operations Integration and Testing Specialty: Optics, Contamination, UV, TBD 3

Review Overview The reviews are a combined Instrument Systems Requirements Review (SRR) and Instrument Preliminary Design Review (PDR) A brief overview of the LRO Mission should be presented, along with top level requirements The review will focus on the instrument, and should include requirements and constraints from LRO There will be a brief overview of schedule and cost, however, this is not the focus of the review. 4

System Requirements Review (SRR)

SRR Review Objectives The System Requirements Review evaluates the completeness, consistency, and achievability of the instrument requirements necessary to fulfill the mission, project, science, operations, flight system and ground system requirements. The project shall present the flowdown of the project level requirements to a complete set of system, subsystem and assembly level requirements from instrument level 1 to level 3. A successful PDR establishes that the project has completed the requirements and the traceability is provided. 6

SRR Success Criteria The success criteria are established as follows: A full set of system requirements and associated system, subsystem, and assembly or specifications for development and operations have been documented. The requirements tractability has been established. The requirements, fulfill the mission needs within the estimated cost and schedule. 7

Requirements Flowdown Note During SRR specifically call out: Requirements from S/C that are driving your design Your requirements that are driving S/C design. For example: Instrument Requirement Pointing accuracy <0.1 deg Spacecraft Requirement Vibration isolate payload Presentation on requirements flowdown should be presented in showing the parent requirement, and how this drives the lower level requirement for the instrument. For example: Measurement Requirement: Functional Requirement Design Requirement Sample along track surface elevation wavelengths to > 500m Laser along track footprint spacing <175m Laser footprint 70m +/-10 m with Gaussian char (to avoid surface roughness) Laser PRF >40 Hs (orbit velocity 7km/sec) Laser Divergence 100microrad encloses 85% of beam energy 8

Preliminary Design Review (PDR)

Review Objective PDR The Preliminary Design Review evaluates the readiness of the project to proceed with detailed design. The project shall present a credible and tractable design solution that complies with requirements, performance, NASA processes, functional and interface requirements. The overall technical approach, the specific design, and the hardware/software will be evaluated for soundness, achievability, resiliency, design performance margins and technical maturity. A successful PDR establishes that the project has completed a credible and acceptable formulation phase, is prepared to proceed with the detailed design, and is on track to complete system development. 10

PDR Success Criteria The success criteria are established as follows: The proposed design meets the instrument level 1 through level 3 requirements and measurement goals. The design meets interface requirements and constraints. Plans to resolve open issues are complete and consistent with available resources and the risk policy of LRO. There are adequate margins at this stage of the design. Integration and test approach and plans are adequate. The mission assurance and safety plans and processes are consistent with mission risk and NASA policy. The project has defined and implemented plans, processes, tools, and has in place the organization for managing and controlling the development and operation of the mission. 11

Backup Material PDR

Risk Types Risk can be broken down into three elements: Inherent, Programmatic and Implementation Inherent Risks are risks that are unavoidable due to the investigation for example: Launch environment Space environment Mission duration Programmatic Risks are uncertainties due to matters beyond project control. For example: Budget uncertainties Environment assessment approvals Political impacts Implementation Risks are associated with implementing the investigation: Development approach Funding Management 13

Review Objectives Review Objective: Evaluate the readiness to proceed with detailed design. The purpose of design reviews is to provide a thorough, objective, and independent assessment of the degree of readiness to proceed to the next phase. This assessment should address the following questions: Requirements Are the requirements clearly stated and understood? Does the design satisfy the requirements? Have requirements been allocated to lower levels in a logical and consistent manner? Are the I/F requirements complete within existing constraints? Are the driving requirements, functional and interface description of the proposed design compatible? 14

Review Objectives (cont.) Technical Maturity and Design Has the technical maturity of the design been described (by TRL level)? Is the technical maturity sufficient to proceed to implementation? Has the design been analyzed in sufficient depth? Has new technology been discussed along with backup plans with scheduled decision criteria if those technologies cannot be achieved? Have the breadboards, prototypes, models, and simulations provided an adequate degree of understanding of the design and reduced the uncertainty to an acceptable degree? Have the resource margins and the rationale for margin allocations been discussed 15

Review Objectives (cont.) Mission Assurance and Safety Have the reliability, safety, and security requirements all been covered? Have the processes by which the product quality is assured to meet specification and the parts selection strategy been defined and implemented? Is the Mission Assurance Plan, including plans for problem/failure reporting, inspections, quality control, parts selection and control, reliability, safety assurance, and software validation been defined, agreed and implemented? Have a safety assessment been completed? Does the design meet the safety requirements? Has the use of the appropriate engineering standards been adequately addressed? 16

Review Objectives (cont.) Integration and Test Are the planned tests adequate to verify the design? Has the approach, techniques, and facilities planned for integration, test and verification been described? Does the I&T plan define requirements, as well as the planned process for physically and analytically integrating them with the flight system? Margins and Reserves Are the technical performance margins and management resource reserves in balance with the current uncertainties in scope of work, technical performance, and schedule estimates? 17

Review Objective (cont.) Risk Have the top risks for the project been identified along with a risk reduction plan for each risk? Pre- Review Actions Have the action items from lower-level reviews - pre reviews - been responded to/closed adequately? What are the plans to resolve open issues? 18