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FY14 Business Case - MSDIS
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748 Supply Chain Management Group
Material Support Division Information System (MSDIS)
Business Case
Version 1.6
4 August 2014
Based on Business Case Template Version 3.0, May 2012
Document Revision History
| Version |
| Date |
| Summary of Changes |
| Version 1.0 |
| 19 Aug 2013 |
| Initial Draft for BCL, sections 1-3 as required. |
| Version 1.1 |
| 7 October 2013 |
| Revised Draft Incorporating Tiger Team (SAF/US(M)X Comments |
| Version 1.2 |
| 7 October 2013 |
| Revised DOTMLPF tables; removed section 4.0 and beyond |
| Version 1.3 |
| 08 Oct 2013 |
| Incorporated FA inputs |
| Version 1.4 |
| 15 Oct 2013 |
| Incorporate additional Tiger team input. |
| Version 1.5 |
| 6 Nov 2013 |
| Updated formatting |
| Version 1.6 |
| 4 Aug 2014 |
| Incorporated comments from DoD CIO review. |
Table of Contents
| Section 1. | Executive Summary | 2 |
| Section 2. | Introduction | 2 |
| 2.1. | Purpose | 2 |
| 2.2. | Background | 3 |
| Section 3. | Problem Statement | 4 |
| 3.1. | “As-Is” Analysis | 4 |
| 3.1.1. | The Problem | 4 |
| 3.1.2. | Problem Description and Context | 4 |
| 3.1.3. | Root Cause Analysis | 5 |
| Table 1 – DOTMLPF-P Constraints, “As-Is” State | 6 | |
| 3.2. | “To-Be” Analysis | 7 |
| 3.2.1. | High-Level Outcomes (HLOs) | 7 |
| Table 2a - HLOs | 7 | |
| Table 2b – HLOs and Measurement Criteria | 8 | |
| Business Process Re-Engineering (BPR) | 11 | |
| 3.2.2. | Table 3a – Business Outcomes | 11 |
| Table 3b – Business Outcomes and E2E Alignment (“To-Be” State) | 12 | |
| Table 3c – Business Outcomes and Measurement Criteria (“To-Be” State) | 13 | |
| 3.2.3. | DOTMLPF-P Impact, “To-Be” State | 16 |
| Table 4 – DOTMLPF-P Impacts, “To-Be” State | 16 | |
| 3.3. | Recommended Course of Action | 16 |
| 3.4. | Rough-Order-of-Magnitude (ROM) Cost Estimate | 16 |
Business Case: Material Support Division Information System (MSDIS) Version 1.5, 6 Nov 2013 ii Problem Statement Signature
Functional Sponsor: Date:
Kathryn J. Johnson, Brig Gen, USAF Director of System Integration
HQ USAF/A4I
Problem Statement Approval
IRB Chair: Date:
Elizabeth McGrath Deputy Chief Management Officer Office of the Secretary of Defense
Business Case: Material Support Division Information System (MSDIS) Version 1.5, 6 Nov 2013 1 Executive Summary The Material Support Division Information System (MSDIS) is a suite of seven modules that support Logistics Business Processes across the Air Force (AF) and Defense Logistics Agency (DLA). MSDIS provides an integration force between the Air Force Sustainment Center (AFSC) and Air Force Life Cycle Management Center (AFLCMC). This BCL applies to the following primary modules: Spares Requirements Review Board (SRRB) which supports all MAJCOM cost per flying hour (CPFH) factors, Depot Supply Chain Management (DSCM) which supports Air Force Materiel Command (AFMC) effectiveness, supportability and future outlook forecasting, Planning for DLA Managed Consumables (PDMC) which is the AF enterprise solution for forecasting deviations in historical demand trends, and Enterprise Materiel Solutions (EMS) for additional functionality (e.g., termination tracking, homeless item tracking, offline shipments and inter-service support reporting) used throughout the logistics community.
MSDIS provides a virtual organization that allows for management control and workflow auditability and measurement. MSDIS replaces a variety of site unique tools and capabilities with a robust web-based solution employed across the Enterprise supporting standardization and streamlining initiatives. MSDIS quick deploy and agile development principles meet the business office automation requirements that come from Continuous Process Improvement (CPI) initiatives and changing operating environments.
A lack of transparency and centralized repository exists between Commercial/ Government off-the-shelf (COTS/GOTS) applications (e.g., Microsoft Office Suite) which are not robust enough to handle complex office automation requirements and aged legacy systems (e.g., D200 Requirements Management System) which are too difficult and expensive to modify. MSDIS is designed to bridge this gap. This business need is seen across AF and DLA organizations related to demand/supply planning, engineering, financial management, resource management and materiel support functions. This business case specifically addresses four High Level Outcomes across the fore mentioned modules to solve needs identified in the FY14 Business Process Re-engineering (BPR) Assessment Form[footnoteRef:1]. [1: Non-logistics requirements for three MSDIS modules are separately identified on the AFSC Enterprise Information System (AEIS) BPR Assessment Form and Business Case. Future submissions will combine all logistics and non-logistics enhancements in a single submission.]
Enhancements identified herein will 1) improve demand/supply plans for AF and DLA managed spares, 2) increase analysis capabilities using “what if” and “deep look” functionality, 3) give key logistics processes greater adaptability to operational changes, and 4) replace non-standard processes with an enterprise automated business process built on best practices. Modernization efforts that aim to accomplish these outcomes are planned for the next 36 months and associated costs are reflected in the ROM Cost Estimate.
ROM Cost Estimate: Low: $2.6 million, Expected: $4 million, High: $8 million Introduction Purpose Obtain IRB Chair approval of the described Problem Statement. Full system assessment was conducted during the BPR Exercise for the FY14 National Defense Authorization Act (NDAA) Organizational Execution Plan (OEP) submission.
Background MSDIS has provided standardization and enterprise solutions during the stand-up of Air Force Global Logistics Support Center (AFGLSC) and is continuing those efforts with the new 5-Center construct. The proposed development and standardization initiatives for MSDIS support the usability and interoperability of the MSDIS system to transform DoD/USAF business processes. Headquarters Air Force (HAF) and Air Force Cost Analysis Improvement Group (AFCAIG) processes used to create all MAJCOM CPFH factors are supported through the SRRB module of MSDIS. Materiel forecasting and strategic supportability of depot maintenance activities throughout AFMC are accomplished with the Depot Supply Chain Management Analysis Tool (DSCM AT) module of MSDIS. The PDMC module is a systemic collaboration process between DLA and Air Force for future program changes of DLA managed piece parts and has been identified as the Air Force system of choice for PDMC management. Functionality in the EMS module provides standardization across the Air Force supply chain enterprise for key materiel support processes (e.g., inventory and resource management). In order to sustain the standardization elements of MSDIS on an Air Force Enterprise level, the following are critical elements: standard business rules, document repositories and record archives, financial auditability, and user access controls in a secure web-based and compliant environment. MSDIS continues to utilize modernized software, which is non-proprietary and customizable with focus on Government control, providing flexibility and support to business processes for the future.
Historically, status quo of the current capabilities often represented manual processes that are both time consuming and unreliable as it relates to the required data. MSDIS not only speeds the business process and decreases cost, but also delivers a more secure and agile service with an enhanced quality of process. MSDIS has transformed business processes from an inefficient batch process flow into a synchronized near real-time flow providing quicker access to accurate and near real-time information through streamlined data routing, thereby increasing the quality of decision making. The business processes are more visible, so each process and its operational quality are more transparent, better measured and better managed. While offering the return on investment of an integrated single system, multi-modules (SRRB, PDMC, DSCM AT, and EMS) allow MSDIS Suite to adapt business processes for each module without adversely impacting any of the processes of other modules. Standard interfaces and open standards are used to make it easier to integrate processes. MSDIS allows an accurate and centralized consolidation of information gathered from various sources. Following standard practices and abiding to industry standard processes and application development helps create a better integrated environment. This reduces the need for custom code, but also allows the use of software generic templates and interfaces with only minor configuration changes. An integrated system provides the most effective data and information storage, and thereby, improves the efficiency and reliability of business processes.
MSDIS provides a positive Return on Investment by bringing improvements in capability that are not currently available to the workforce. It provides intangible benefits tied to improved efficiencies at the current personnel staffing level such as:
DSCM AT module enhancements will enable those responsible for working supportability analysis and mitigation efforts to cover a larger number of parts each month, reducing the likelihood of previously unidentified shortfalls negatively impacting depot maintenance, repair, and overhaul operations as well as provide improved depot parts supportability assessments which will enable more efficient operations, and will ultimately decrease indirect depot costs:
· Ensure future parts problems are identified early
· Reduce the likelihood of previously unidentified shortfalls negatively impacting depot maintenance, repair, and overhaul operations
· Decrease the number of instances where a mechanic does not have the part needed on time and reduce the frequency of work stoppages due to missing repair parts/component parts
· Leads to increase rate of on-time deliveries from the depot
· These enhancements will decrease time spent on non-productive (indirect) activities, such as putting an asset into or pulling an asset out of “Awaiting Parts” (AWP) status and resulting in decreased indirect depot costs PDMC module enhancements will establish and automate data currently accomplished by manual processes resulting in a significant time savings:
· Decrease in manual manpower processing time which results in increased availability of personnel resources
· Establishes what-if processes and analysis leading to real time results
· Automated data feeds ensure data integrity by reducing the number of manual errors and entries leading to decrease in manual re-work SRRB module enhancements will provide standardization and increase of critical capability leading to financial and time savings:
· Process standardization and the ability to bring non-fly weapons systems leads to reduction in disconnects between Operations and Maintenance (O&M) funding and Working Capital Fund (WCF) authority projections by 7% and an estimated savings for non-fly obligations of $4.9M annually
· Having a systemic solution causes a dramatic decrease in manual re-work and effort resulting in a reduction of 4.9K man-hours annually EMS module enhancements will drive the standardization of business processes across the AF Supply Chain by implementing current Rapid Improvement Events (RIEs) which will focus on standardization of: budget narratives, termination actions, homeless NSN reporting, Offline Shipment tracking, D200 Computation Signatures, Workload (PR/MIPR/Screening) Assignment and Tracking, and Inter-service Support Reporting. Implementing these RIEs results in elimination of disparate and site unique business process tools across the Enterprise
· Allows for senior leader visibility and tracking to ensure uniformity across the AF Supply Chain
· Eliminates duplication of effort
· Provides real time access to system users across multiple time zones resulting in greater collaboration In one system, MSDIS promotes greater efficiencies by capturing and processing data from across the AF and DLA that would otherwise require significant manpower to analyze and report. MSDIS increases performance as measured by; standardized sustainment processes, time savings, new/improved collaboration, improved data accuracy, greatly improved sustainability forecasts all which support/ facilitate real time decision making across the Sustainment Enterprise.
MSDIS is currently hosted on the Hill AFSC ITS server located in building 1209 at Hill Air Force Base (AFB). The Hill Enterprise Data Center (HEDC) is the recognized Installation Processing Node (IPN) for Hill AFB and is located in building 1211. MSDIS has obtained cost quotes and has an approved CSRD to be re-hosted with the HEDC. The program office had previously requested a quote for re-hosting to Defense Enterprise Computing Center (DECC) located at Hill AFB in building 891, however we did not receive a quote. As a result of this Problem Statement non-concurrence, the program office has re-initiated contact with the DECC to obtain a quote for re-hosting Efforts are underway to complete a re-host of MSDIS to the HEDC by Spring 2015, in accordance with Air Force IT consolidation direction.
Business Case: Material Support Division Information System (MSDIS) Version 1.6, 4 Aug 2014 9 Problem Statement
“As-Is” Analysis The Problem
During the FY14 BPR assessment MSDIS Program Management identified the following problems which drive the need for further development and modernization of this information system: 1) COTS/GOTS solutions are not robust enough to meet the need, 2) aged legacy system are too difficult and expensive to modify, 3) disparate/site unique capabilities need to be replaced by Enterprise solutions for standardization and streamlining, and 4) continuous process improvement and a changing operating environment have created the need for new business office automation tools and capabilities.
Problem Description and Context From a strategic perspective, the problem areas identified negatively impact the Air Force and DLA’s ability to build demand and supply plans and perform critical materiel support functions for spare parts critical to keeping weapon systems operational. MSDIS is a primary analytic support tool and is integral to demand and supply planning functions across Air Force and DLA logistics activities.
The PDMC and DSCM AT modules currently build the End Item (EI) requirement baseline with input from various legacy systems (e.g., Automated Budget Compilation System (ABCS), D200F, Workload Review) and manual input of schedules and requirements for supportability (DSCM) and forecasting (PDMC) purposes. The Air Force does not currently have a single official data source for Bill of Materials (BOMs). As such, the PDMC and DSCM AT modules need functionality to extract BOM data from various systems (G005M, Maintenance Business System Modernization (MABSM), and Lean Depot Management System (LDMS)) and manually built Lists of Material (LOM) and supportability BOMs. Maintenance and supply communities do not effectively communicate organic repair requirements and capacity, including the ability to evaluate proposed changes to depot repair requirements and capabilities. There is no existing standardized process or system to facilitate strategic level supportability analysis for aircraft and whole engines. These conditions relate to the high level outcome of improved demand and supply planning.
The current SRRB application does not allow “what if” analysis throughout the process. This forces manual workarounds that are handled outside of the system which increases the possibility of human error. The current depot supportability environment does not provide the facilitation and automation of the information or processes needed to “deep look” into the primary causes of supportability challenges. These conditions relate to the high level outcome of improved analysis capabilities.
The current SRRB process only captures spares requirements for aircraft. The “non-fly” systems do budgeting based on prior year actuals and cannot be modified for known events. Further, the SRRB module is designed around aircraft that have adopted an organic sustainment philosophy. Introduction of new joint aircraft (e.g., F-35) with potential for hybrid sustainment philosophies (contract/organic/inter-service) will not work in the SRRB process today. These conditions relate to the high level outcome of increased adaptability to change.
There are many non-standardized business processes utilized across the Air Force for materiel management. This has resulted in site unique capabilities and solutions that make it more difficult to standardize processes and achieve needed efficiencies. Obtaining management signatures on D200 requirement computations is a manual, non-standardized business process that is filled with errors and inefficiencies. The workload assignment and tracking of Military Interdepartmental Purchase Requests (MIPRs) and materiel screening actions is a manual intense process that is inefficient and prone to human error. Management is not able to adequately monitor the health of the processes without tracking data. These conditions relate to the high level outcomes of standardized and streamlined operations.
Examination of the problem definitions results in identifying four common causes.
First, process owners’ familiarity with Microsoft Office products has resulted in trying to use these products to solve complex process problems, but being unsuccessful. For example, the SRRB process was originally designed around Microsoft Excel and Outlook. However, a significant amount of manual effort was needed to build the spreadsheets and there were versioning problems when weapon system configuration changes were collaborated across the Air Force. Another example is the tracking of MIPRs and materiel screening actions using Microsoft Access. Multiple problems have been encountered in sharing the databases across locations. .
Second, aged legacy systems cannot be modified to satisfy new processes. When the Air Force developed new processes for depot supportability (DSCM) and consumable support of DLA parts (PDMC), an assessment of existing Air Force legacy systems was accomplished to see if any could accommodate the new processes. It was determined none of the aged legacy systems could accommodate the new requirements.
Third, disparate and site unique solutions were developed to address the same business needs at different locations. As a result, non-standard processes were adopted across the enterprise and duplication of effort drove further inefficiencies. For example, each logistics complex is using different methods for bill of material reporting, workload collaboration and computation signatures.
Lastly, changes brought about by CPI, re-organization, and changes in the operating environment have driven a need to change business automation tools and solutions. For example, fielding new joint fighter aircraft with new sustainment philosophies will require changes in automated business processes. Further, CPI events related to the War on Excess parts drove process changes and corresponding changes in automated solutions.
The following table is shown to clearly articulate the current problem (“As-Is”) and the desired future state (“To-Be”) for MSDIS:
| “As-Is” |
| “To-Be” |
| Cannot build piece part requirements for all AF and DLA managed parts due to limits imposed by manual data feeds, lack of data feeds and limits on time and personnel resources (DSCM AT and PDMC modules) |
| Acquire additional and/or automated data sources and Bill of Materials data |
| Depot workload changes are currently collaborated using manual processes (DSCM AT and PDMC modules) |
| Automate collaboration methods to include “what-if” analysis capability for proposed changes to depot workload |
| Aircraft and whole engine supportability analysis is performed using non-standard processes (DSCM AT and PDMC modules) |
| Automate supportability analysis for depot level maintenance of aircraft and whole engines |
| Causes for piece part non-supportability are currently identified using a timely manual process (DSCM AT and PDMC modules) |
| Automate process to identify causes of piece part non-supportability and provide resolution for commonly identified causes |
| No variables (e.g. flying hours) within the “what-if” function can be modified to analyze real world spares requirement changes (SRRB module) |
| Increase capability to modify variables in spares requirement changes |
| Spares requirements process only captures aircraft and does not include “non-fly” systems (SRRB module) |
| Modify spares requirements to incorporate all “non-fly” weapon systems |
| Spares requirements process only captures weapon systems sustained organically (SRRB module) |
| Modify process to include weapon systems sustained by contract, or inter-service |
| Non standardized business processes utilized across the AF for materiel management (EMS module) |
| As rapid improvement events are held with supply chain users on key materiel management processes, standardized solutions will be developed |
Root Cause Analysis The root causes for the variety of problems seen across all functional activities are as follows:
1. Lack of robustness in COTS/GOTS (e.g., Microsoft Office Suite) applications. Personnel are capable of using many of these applications; however the tools were not designed to support the more complex aspects of USAF mission. Joint use of these applications using share drives is an option, but requires Enterprise Information Technology Data Repository (EITDR) registration, certification & accreditation and significant documentation that far exceed the benefit that could be derived. Further, COTS/GOTS applications were not designed to manage the numerous data sets and millions of records required to adequately support the mission.
2. Difficulty and high expense of modifying aged legacy systems (e.g., D200 Requirements Management System). Many of the Air Force legacy systems are designed on old programming standards and infrastructures that are not easily adapted to the ever changing supply chain processes. These systems cannot be modified to add-on new web capabilities without redesign of the entire system, which is cost prohibitive. Further, standup of Enterprise solutions (e.g., ECSS and LIMS-EV) has resulted in policy that prohibits the modification and further development of these legacy systems that will be subsumed eventually. Personnel in the affected functions/areas do not possess the skill sets or resources needed to design and maintain web-based solutions that cater to their unique requirements as a gap measure until Enterprise solutions develop the full capability to help them perform their mission and support the warfighter.
3. Lack of information technology governance which enabled prevalence of disparate and site unique tools. This has been a long standing problem in the Air Force. Organization changes have been adopted to eliminate non-standard processes and IT solutions, and many of the site unique capabilities are being decommissioned in favor of Enterprise approved solutions. MSDIS is the approved Enterprise solution for many logistics and non-logistic IT requirements.
4. Lack of standardized and streamlined operations due to Logistics transformation initiatives and the ever changing DoD operating environment which result in constant changes to existing business practices. Each of these changes results in requirements for enhancement of the associated automated business solutions. This also creates difficulty in arriving at a resolved state with the information system.
Table 1 – DOTMLPF-P Constraints, “As-Is” State DOTMLPF-P Analysis was conducted at the System level. Analysis specific to an individual module will be annotated separately within the table as needed.
| Category |
| Impact |
| Doctrine: |
| None identified |
| Organization: |
| Geographically separated organizations have extensive operations functioning under “Virtual” structures. Each operating location brings unique operational challenges with stovepipe solutions that are not used across enterprise. This process solution allows for better cross functionality and collaboration across multiple locations. |
| Training: |
| None identified. |
| Materiel: |
| Current Material IT Systems do not provide complete solutions for current problems identified within the BCL. |
| Leadership and Education: |
| None identified |
| Personnel: |
| Strategic personnel changes may allow full advantage of the information /data offered by the system. However, personnel changes alone do not resolve the information and capability gap identified above. This system facilitates and magnifies the impact of proper personnel management but the system impact is not negated or lessened by personnel management. |
| Facilities: |
| None identified |
| Policy: |
| Policy changes alone have not been sufficient to maximize this capability. Current policy that drives requirements include the following by module: |
DSCM AT: AFPD 21-1, AFMCI 21-130, AFMCI 21-101, AFMCI 21-102, AFMCMAN 23-1, Centralized Asset Management's (CAM) Logistics Requirements Determination Process (LRDP) Guide and Handbook; PDMC: AFMCI 23-205; SRRB: AFI 23-120; EMS: AFMAN 23-110, AFMCMAN 23-1, AFMCMAN 23-2, DoD 4140.1R, AFMCI 20-102; AFSC 20-102 Supplement (in draft); DFARS 217.75; & AFI23-101 .
“To-Be” Analysis High-Level Outcomes (HLOs) Table 2a - HLOs
| SMP/DoD Goal or Objective |
| HLO Title |
| HLO Description |
| SMP Goal 4 – Strengthen DoD Acquisition Processes |
| Improved Demand/Supply Planning |
| System enhancements will improve spares demand and supply planning processes for the Air Force and DLA |
| SMP Goal 3 – Build Agile/Secure Information Capabilities |
| Increased Analysis Capability |
| Enhancements will increase analysis capabilities through “what if” and “deep look” functionality |
| SMP Goal 3 – Build Agile/Secure Information Capabilities |
| Increased Adaptability to Change |
| System enhancements will give key logistics process the ability to adapt to changes in the operating environment (new weapon systems, organization changes, new processes) |
| SMP Goal 3– Build Agile/Secure Information Capabilities |
| Standardize and Streamline Operations |
| Replace non-standard processes with an enterprise solution that adopts best practices |
Table 2b – HLOs and Measurement Criteria
| HLO Title |
| Measurement Criteria |
| Benefits |
| Risks |
| Assumptions (A), Constraints (C), Dependencies (D) |
| Measurement |
| Current (Baseline) Value |
| Targeted Threshold Value |
| Targeted Objective Value |
| Improved Demand/Supply Planning |
| End Item requirement data sources |
| Multiple (ABCS, EPM, WLR, Other) |
| Single EI requirement data source |
| Single EI requirement data source |
| Simplified and standardized EI requirement will improve accuracy of piece part requirements and improve parts support to depots |
| APS system cannot be fielded in a timely manner |
| A: New APS system will be fielded during FY14 |
C: Details and formats of APS outputs
D: The solution is dependent upon APS data feed and file structure
| Improved Demand/Supply Planning |
| Bill of Material data sources |
| Multiple (G005M, MABSM, LDMS, LOM) |
| Be capable of accepting BOM data from G005M, MABSM, LDMS and LOM |
| Be capable of accepting BOM data from any additional sources, given standardized data formats |
| Agile use of any BOM data available for a given asset |
| Disagreement over which is the authoritative BOM data source, leading to BOM data integrity issues |
| A: New single BOM data system will be fielded during FY14 |
C: Details and formats of BOM system
D: The solution is dependent up BOM data feed and file structure
| Improved Demand/Supply Planning |
| Percent of Exchangeables End Items collaborated between maintenance and supply; and automated ability to evaluate the impact of changes to depot repair requirements and capacities |
| A very limited number of End Items are collaborated today, all using manual methods; no system exists today to enable automated evaluation of proposed changes to depot repair requirements and capacities |
| 50% of Exchangeables collaborated via automated methods; “what-if” analysis capability available for proposed changes to depot Exchangeables workloads |
| 100% of Exchangeables collaborated via automated methods; “what-if” analysis capability available for proposed changes to all depot workloads, including aircraft, whole engines, etc. |
| Collaborated End Item repair requirements allow for more accurate piece parts forecasts; ability to analyze proposed depot workload requirements enables more accurate decisions on future workloads |
| Maintenance and supply requirement forecasting cycles cannot be synchronized |
| A: Forecasting cycles and processes can be synchronized |
C: Supply uses multiple End Item forecasting methods/tools
D: The solution is dependent upon standardized data feeds and processes
| Improved Demand/Supply Planning |
| Percent of Aircraft and Whole Engines for Supportability |
| Strategic Supportability Analysis for Aircraft/Whole Engines |
| Automated SA can be provided for 75% of aircraft/Whole Engines with organic repair |
| 100% otherwise same as threshold |
| Common supportability perspective for aircraft and Exchangeables |
| BOM and schedule data not kept current |
| A: Sub processes can be standardized and associated supportability can be measured |
C: Non-standard processes across aircraft and whole engines
D: The solution is dependent upon detailed business rules and required data feeds
| Increased Analysis Capability |
| Requirement variables that can be modified for “what if” analysis |
| Zero. No variables can be changed currently. |
| Two variables (flying hours, failure rate) |
| Four variables (flying hours, failure rate, application rate, install/ removal schedule) |
| More accurate and timely requirements forecast based on real world changes |
| Errors in “what if” logic may drive wrong decisions |
| A: “what if” logic can be developed for the very complex algorithms |
C: Limited window between SRRB cycles to develop code
D: The solution requires formation of a “what if” IPT to develop the detailed logic and business rules
| Increased Analysis Capability |
| Percent of Deep Look processes automated in a system available to the enterprise |
| No Deep Look processes are automated in a system today |
| 85% of Deep Look functionality automated |
| 100% of Deep Look functionality automated |
| Identification of the non-supportability primary causes will allow resolution of systemic problems and improved parts support to depots |
| Deep look business rules cannot be developed for the enterprise |
| A: Deep look business rules are documented and approved by all DSCM stakeholders |
C: Non-standard processes across complexes and functions
D: The solution is dependent upon enterprise approved and documented business rules
| Increased Adaptability to Change |
| Number of D200 items computing an OIM rate >0 that are included in SRRB process |
| 9,700 flying hour items |
| 12,000 fly and non-fly items |
| 15,600 fly and non-fly items (total universe) |
| Improved requirements forecast for non-fly parts and synchronization of CSAG-S and O&M budgets |
| Focus on non-fly requirements will draw limited resources away from the fly requirements process |
| A: Non-fly single managers can be identified to meet and develop SRRB templates |
C: Non-fly single managers are not centrally located at complexes with fly single managers
D: The solution requires formation of a non-fly IPT to develop the process and detail business rules
| Increased Adaptability to Change |
| Number of Joint Aircraft included in SRRB process |
| Zero |
| One (F-35) |
| One (F-35) |
| Improved CSAG-S and O&M requirements forecast for joint use aircraft |
| Changing sustainment strategy for applicable aircraft |
| A: Joint aircraft sustainment will be accomplished organically and not by contacting (CLS) |
C: Sustainment strategies still be decided
D: The solution will need data from the OEM for initial requirements forecasting until 8 quarters of actual data is available
| Standardized and Streamlined Operations |
| Number of non-enterprise capabilities in EMS |
| 5/12 EMS capabilities are site unique (non-enterprise) |
| 3/12 EMS capabilities are site unique |
| 0/12 EMS capabilities are site unique |
| Elimination of site unique capabilities will help drive standardization and streamlining of critical processes |
| Users resist change and won’t adopt enterprise solutions |
| A: IPTs are organized to study alternatives and select best practice (enterprise solution) |
C: TDY funds are limited
D: The solution is dependent upon holding the IPT meetings and agreeing upon and enterprise requirement and solution
| Standardized and Streamlined Operations |
| Number of SCM squadrons using Comp Signature Tool |
| None of the 14 SCM squadrons are using the Comp Signature Tool |
| 7/14 SCM organizations use Comp Signature Tool |
| 14/14 SCM organizations use Comp Signature Tool |
| Development and utilization of the Tool will standardize and streamline the process and ensure compliance with regulation on changing signature levels |
| Users will resist giving up old non-standard manual processes |
| A: CSRD is approved in < 6 months |
C: Changes in IT governance are slowing CSRD approval process
D: The solution is dependent upon obtaining an approved CSRD in time to develop in FY14
| Standardized and Streamlined Operations |
| Number of PR, MIPRs and Screening Actions managed/ tracked in WATT |
| 11% currently tracked in WATT |
| 50% tracked in WATT |
| 100% tracked in WATT |
| Web-based tracking standardize/ streamline processes and will give senior leaders visibility of enterprise transactions |
| Users will resist giving up old non-standard manual processes |
| A: CSRD is approved in < 6 months |
C: Changes in IT governance are slowing CSRD approval process
D: The solution is dependent upon obtaining an approved CSRD in time to develop in FY14
Business Case: Material Support Division Information System (MSDIS) Version 1.5, 6 Nov 2013 12 Business Process Re-Engineering (BPR) Table 3a – Business Outcomes
| HLO Title |
| Business Outcome |
| Business Outcome Definition |
| Improved Demand/Supply Planning |
| Improved DLA piece part forecast (EI) |
| The system will collect End Item forecasts from new APS system to apply against BOMs for piece part forecasts |
| Improved Demand/Supply Planning |
| Improved DLA piece part forecast (BOM) |
| The system will collect improved BOM data to apply against EI requirements for improved piece part forecasts |
| Improved Demand/Supply Planning |
| Collaborated repair requirement and enhanced future workload decisions |
| Maintenance and supply stakeholders will review repair requirements against resource constraints to develop a new and improved repair requirement that has been collaborated and approved |
| Improved Demand/Supply Planning |
| Strategic level supportability analysis for aircraft and whole engines. |
| Using Aircraft/Whole Engine BOM/LOM and associated schedules provide a common supportability perspective to all stakeholders. |
| Increased Analysis Capability |
| Revised requirements forecasts built on “what if” analysis and results |
| The SRRB stakeholders will have the ability to change requirement variables and see the impact to the forecast spares requirement. The approved changes will be captured in the system and will update the forecasted requirement for collaboration |
| Increased Analysis Capability |
| Primary causes for supportability problems |
| The deep look process will identify the primary causes of different parts supportability problems so systemic solutions can be identified and deployed |
| Increased Adaptability to Change |
| Collaborated and approved non-fly spares requirement |
| The system will collect schedules and data from non-fly single managers to build a non-fly requirement that will be collaborated with field users to develop a single Air Force spares requirement of non-fly spare parts |
| Increased Adaptability to Change |
| Spares requirements for new joint-use weapon systems |
| The System will collect data inputs for weapon systems based on changing sustainment policies, and generate an associated spares requirement for collaboration with all stakeholders |
| Standardized and Streamlined Operations |
| Standardized and streamlined materiel support processes |
| Deployment of automated business solutions across all complexes will standardize critical process and drive resource efficiencies |
| Standardized and Streamlined Operations |
| Approved/signed D200 Computation |
| Building the web-based comp signature sheets will ensure all comps are properly reviewed, approved and signed in accordance with standards identified in regulations |
| Standardized and Streamlined Operations |
| Standardized and streamlined workload assignment and tracking |
| All PR, MIPR and screening actions will be managed in a web-based solution that will standardize disparate processes and give program visibility to senior leaders |
Table 3b – Business Outcomes and E2E Alignment (“To-Be” State)
| Business Outcome |
| E2E/BEA Perspective |
| Business Flow |
| Business Process |
| Business Capability |
| Improved DLA piece part forecast (EI) |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Forecast Demand |
| Improved DLA piece part forecast (BOM) |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Forecast Demand |
| Collaborated repair requirement and enhanced future workload decisions |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Validate Asset Data Elements, |
Forecast Demand
| Supportability constraints identified for aircraft whole engines |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Validate Asset Data Elements |
Collect and Analyze Requirement
| Revised requirements forecasts built on “what if” analysis and results |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Validate Asset Data Elements |
Forecast Demand
Populate Asset Data Elements
| Primary causes for supportability problems |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Collect and Analyze Requirement |
| Collaborated and approved non-fly spares requirement |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Forecast Demand |
| Spares requirements for new joint-use weapon systems |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Populate Asset Data Elements |
Forecast Demand
| Standardized and streamlined materiel support processes |
| Plan to Stock (P2S) |
| Create Inventory Plan |
Perform Inventory Management Collect and Analyze Requirement Populate Asset Data Elements Update Asset Record
| Approved/signed D200 Computation |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Validate Asset Data Elements |
| Standardized and streamlined workload assignment and tracking |
| Plan to Stock (P2S) |
| Create Inventory Plan |
| Populate Asset Data Elements |
Business Case: Material Support Division Information System (MSDIS) Version 1.5, 6 Nov 2013 15 Table 3c – Business Outcomes and Measurement Criteria (“To-Be” State)
| Business Outcome |
| Measurement Criteria |
| Risks |
| Assumptions (A), Constraints (C), Dependencies (D) |
| Measurement |
| Current (Baseline) Value |
| Targeted Threshold Value |
| Targeted Objective Value |
| Benefits |
| Improved DLA piece part forecast |
| Demand Plan Accuracy |
| 11,316 (13 Aug 13) |
| 52% accuracy |
| 56% accuracy |
| More of the right parts on the shelf in support of depot repair operations |
| Delay in fielding new data sources (APS/BOM) |
| A: Data sources are fielded in a timely manner |
C: Constrained budgets
D: The solution is dependent upon data feeds from new systems
| Collaborated repair requirement and enhanced future workload decisions |
| Fewer End Items inducted with no immediate requirement; better decisions regarding proposed changes to existing workloads or acceptance of new workloads |
| 850 (13 Aug 13 AWP End Items exceeding current + 1 yr. rqmt); no system exists today to enable automated evaluation of proposed changes to depot repair requirements and capacities |
| 10% improvement; “what-if” analysis capability available for proposed changes to depot Exchangeables workloads |
| 20% improvement; “what-if” analysis capability available for proposed changes to all depot workloads, including aircraft, whole engines, etc. |
| Correct quantities inducted for repair; no workload changes accepted that cannot be supported with required parts |
| Constraints in maintenance and supply for capacity and funds |
| A: maintenance and supply data cycles can be synchronized |
C: changing data sources and processes
D: The solution is dependent upon capturing accurate and timely data
| Revised requirements forecasts built on “what if” analysis and results |
| Improved spares requirements accuracy for all spares |
| 3% disconnect |
| 2.5% disconnect |
| 2.0% disconnect |
| More of the right parts on the shelf when ordered by all field customers |
| Changing ops tempo |
| A: It is assumed that ops tempo will remain static through the FYDP |
C: Ops tempo is constantly changing to meet real world events
D: The solution needs variable data that is timely and accurate
| Primary causes for supportability problems |
| Reduced depot backorders |
| 25,160 (13 Aug 13 per D035K) |
| 10% improvement |
| 20% improvement |
| Resolution of systemic problems driving supportability problems today |
| New supportability problems arise as existing problems are solved |
| A: Sufficient manpower will be available to work the deep look process in the system |
C: Constrained manpower budgets
D: The solution is dependent upon human resources to run the deep look process
| Collaborated and approved non-fly spares requirement |
| Improved non-fly spares requirement accuracy |
| Not currently measured |
| < 5% disconnect between CSAG-S and O&M budget forecast |
| < 3% disconnect between CSAG-S and O&M budget forecast |
| More of the right parts on the shelf when ordered by the non-fly customer |
| Non-standard non-fly processes |
| A: Processes can be standardized |
C: Non-standard organizations
D: The solution requires a standard non-fly process
| Spares requirements for new joint-use weapon systems |
| Improved spares requirement for joint-use aircraft |
| Not currently measured |
| < 5% disconnect between CSAG-S and O&M budget forecast |
| < 3% disconnect between CSAG-S and O&M budget forecast |
| More of the right parts on the shelf when ordered by the joint-use aircraft customers |
| Changing ops tempo for joint-use aircraft |
| A: SRRB data (install/removal schedules, flying hours, failure rates, …) for joint-use aircraft is accurate and timely |
C: Program changes associated with a new weapon system
D: The solution is dependent upon good data
| Standardized and streamlined materiel support processes |
| Site unique processes |
| Each complex has a site unique process |
| Two complexes share standardized process |
| All complexes share standardized process |
| Standardized and streamlined processes drive manpower efficiencies |
| Complexes resist change |
| A: Standardization IPTs are formed to drive enterprise approach |
C: TDY funds
D: The solution is dependent upon an agreed upon enterprise requirement
| Approved/signed D200 Computation |
| Number of SCM squadrons using Comp Signature Tool |
| None of the 14 SCM squadrons are using the Comp Signature Tool |
| 7/14 SCM organizations use Comp Signature Tool |
| 14/14 SCM organizations use Comp Signature Tool |
| Development and utilization of the Tool will standardize and streamline the process and ensure compliance with regulation on changing signature levels |
| Users will resist giving up old non-standard manual processes |
| A: CSRD is approved in a timely manner |
C: Changing IT governance delays CSRD approval
D: The solution is dependent on an approved CSRD
| Standardized and streamlined workload assignment and tracking |
| Number of PR, MIPRs and Screening Actions managed/ tracked in WATT |
| 11% currently tracked in WATT |
| 50% tracked in WATT |
| 100% tracked in WATT |
| Web-based tracking standardize/ streamline processes and will give senior leaders visibility of enterprise transactions |
| Users will resist giving up old non-standard manual processes |
| A: CSRD is approved in a timely manner |
C: Changing IT governance delays CSRD approval
D: The solution is dependent on an approved CSRD
Business Case: Material Support Division Information System (MSDIS) Version 1.5, 6 Nov 2013 18 18 DOTMLPF-P Impact, “To-Be” State Table 4 – DOTMLPF-P Impacts, “To-Be” State
DOTMLPF-P Analysis was conducted at the System level. Analysis specific to an individual module will be annotated separately within the table as needed.
| Category |
| Impact |
| Doctrine: |
| To Be system design will continue to support current doctrine. As historical information and lessons learned are gathered by Senior Leadership changes and updates to doctrine may become necessary to reflect the new process and situation. |
| Organization: |
| Geographically separated organizations have extensive operations functioning under “Virtual” structures. . This process solution allows for better cross functionality and collaboration across multiple “virtual” locations. |
| Training: |
| None identified. |
| Materiel: |
| MSDIS will be the Materiel solution. |
| Leadership and Education: |
| None identified |
| Personnel: |
| Strategic personnel changes may allow full advantage of the information /data offered by the system. However, personnel changes alone do not resolve the information and capability gap identified above. This system facilitates and magnifies the impact of proper personnel management, but the system impact is not negated or lessened by personnel management. |
| Facilities: |
| None identified |
| Policy: |
| Implementation and deployment of the proposed To Be requirements will continue to support the following policies by module: |
DSCM AT: AFPD 21-1, AFMCI 21-130, AFMCI 21-101, AFMCI 21-102, AFMCMAN 23-1, Centralized Asset Management's (CAM) Logistics Requirements Determination Process (LRDP) Guide and Handbook; PDMC: AFMCI 23-205; SRRB: AFI 23-120; EMS: AFMAN 23-110, AFMCMAN 23-1, AFMCMAN 23-2, DoD 4140.1R, AFMCI 20-102; AFSC 20-102 Supplement (in draft); DFARS 217.75; & AFI23-101 .
Recommended Course of Action Obtain approval of the Problem Statements by the Investment Review Board (IRB) Chair, allowing implementation and resolution of problems described in Section 3.0 above.
Rough-Order-of-Magnitude (ROM) Cost Estimate ROM Cost Estimate: Low: $2.6 million, Expected: $4 million, High: $8 million image1.jpeg
File details come from the government source that posted it. Updated .