The document discusses supporting flexibility in combat systems for warships. It notes that warships need to be able to rapidly change roles and capabilities. This requires flexibility in areas like the combat system, manpower, and training. The document outlines several challenges in designing for flexibility through a ship's life, including upgrading affordably over time. It provides examples from Type 23 frigates and submarines changing roles. The document argues that human factors should be built into system lifecycles to support flexibility in areas like workspaces, training, and manpower.
Lt General Davis Presentation at Williams Foundation March 17 2016ICSA, LLC
The Deputy Commandant of USMC Aviation, Lt. General "Dog" Davis, provided an important presentation at the Williams Foundation's seminar on new approaches to air land integration on March 17, 2016 at Canberra, Australia. The Chief of Staffs of both the Royal Australian Air Force and the Australian Army were major presenters along with Brigadier General Mills who is in charge of Army Modernization. The presentation was well received as the USMC approach is very much akin to the Plan Jericho approach to force modernization and is recognized as such by the Aussies themselves. The also appreciated the update on the incorporation for he F-35 into the evolving USMC approaches to air-sea-land integration as well
In these excerpts from Jim Strock;s comprehensive look at the evolution of sebasing, we have taken a selection of slides which highlights the JHSV and LCS. Our interview with Strock and his team focuses specifically on JHSV and its role. Credit: USMC Combat Development Command
Feasibility of Route
Third world pitfalls, ie: government regulations, HS codes, physical limitations in regards to size of modules moved Critical interface between forwarders and engineering
Lt General Davis Presentation at Williams Foundation March 17 2016ICSA, LLC
The Deputy Commandant of USMC Aviation, Lt. General "Dog" Davis, provided an important presentation at the Williams Foundation's seminar on new approaches to air land integration on March 17, 2016 at Canberra, Australia. The Chief of Staffs of both the Royal Australian Air Force and the Australian Army were major presenters along with Brigadier General Mills who is in charge of Army Modernization. The presentation was well received as the USMC approach is very much akin to the Plan Jericho approach to force modernization and is recognized as such by the Aussies themselves. The also appreciated the update on the incorporation for he F-35 into the evolving USMC approaches to air-sea-land integration as well
In these excerpts from Jim Strock;s comprehensive look at the evolution of sebasing, we have taken a selection of slides which highlights the JHSV and LCS. Our interview with Strock and his team focuses specifically on JHSV and its role. Credit: USMC Combat Development Command
Feasibility of Route
Third world pitfalls, ie: government regulations, HS codes, physical limitations in regards to size of modules moved Critical interface between forwarders and engineering
Today's Rhumb Lines highlights Navy's primary mission of warfighting and all the efforts to improve current capabilities, further develop our Sailors and Navy civilians, and structure our organizations to be grounded in this fundamental responsibility.
US Undersea Warfare Science & Technology Objectives and US Unmanned Undersea ...chrisrobschu
US Undersea Warfare Science & Technology Objectives and US Unmanned Undersea Vehicles (UUV) Overview
The Naval Undersea Warfare Center Division Newport provides research, development, test and evaluation, engineering, analysis and assessment, as well as Fleet support capabilities for submarines, autonomous underwater systems, and offensive and defensive undersea weapon systems, and stewards existing and emerging technologies in support of undersea warfare.
•Power and Energy Science and Technology Objectives:
1.Develop safe reliable, affordable and high efficiency energy management, generation, transfer, shipment, deployment, and storage for undersea platforms;
2.Develop safe, reliable, affordable and efficient high pulse power management, generation, transfer and employment;
3.Develop the capability to reliably and safely harvest, obtain, store and transfer energy to undersea assets;
4.Develop capability to reliably characterize the failure effects and modes of power and energy sources.
Failing to learn from Australia’s most successful defence projectWilliam Hall
Presents the history of the now defunct Australian defense contractor, Tenix Defence, as a case study in success and failure in managing large engineering projects.
Over its 20 year history, (2) Tenix successfully completed Australia's largest defense ($7 bn) project to build 10 ANZAC Frigates for Australia and New Zealand on-time, on-budget, for a healthy company profit against a stringently fixed price contract; and customers that are still happy with their ships and support 7 years after the last ship was delivered; and (2) failed so miserably on the next largish project to build 7 simpler ships for New Zealand that Tenix's owners decided to auction all of their defence assets. Also, in the 21st Century and despite the ANZAC success, the $8 bn Air Warfare Destroyer (AWD) project to build 3 ships is years behind schedule and billions over budget.
For more than 17 years of this history the author was a knowledge management systems analyst with access to most areas of company operations and thus able to observe sources of the successes and failures (including from the vantage point of Tenix's bid development for the AWD. The presentation shows that most successes and failures related to the ways in which Tenix managed their corporate and human knowledge, and attempts to infer some critical lessons that should be learned from this history.
Today's Rhumb Lines highlights Navy's primary mission of warfighting and all the efforts to improve current capabilities, further develop our Sailors and Navy civilians, and structure our organizations to be grounded in this fundamental responsibility.
US Undersea Warfare Science & Technology Objectives and US Unmanned Undersea ...chrisrobschu
US Undersea Warfare Science & Technology Objectives and US Unmanned Undersea Vehicles (UUV) Overview
The Naval Undersea Warfare Center Division Newport provides research, development, test and evaluation, engineering, analysis and assessment, as well as Fleet support capabilities for submarines, autonomous underwater systems, and offensive and defensive undersea weapon systems, and stewards existing and emerging technologies in support of undersea warfare.
•Power and Energy Science and Technology Objectives:
1.Develop safe reliable, affordable and high efficiency energy management, generation, transfer, shipment, deployment, and storage for undersea platforms;
2.Develop safe, reliable, affordable and efficient high pulse power management, generation, transfer and employment;
3.Develop the capability to reliably and safely harvest, obtain, store and transfer energy to undersea assets;
4.Develop capability to reliably characterize the failure effects and modes of power and energy sources.
Failing to learn from Australia’s most successful defence projectWilliam Hall
Presents the history of the now defunct Australian defense contractor, Tenix Defence, as a case study in success and failure in managing large engineering projects.
Over its 20 year history, (2) Tenix successfully completed Australia's largest defense ($7 bn) project to build 10 ANZAC Frigates for Australia and New Zealand on-time, on-budget, for a healthy company profit against a stringently fixed price contract; and customers that are still happy with their ships and support 7 years after the last ship was delivered; and (2) failed so miserably on the next largish project to build 7 simpler ships for New Zealand that Tenix's owners decided to auction all of their defence assets. Also, in the 21st Century and despite the ANZAC success, the $8 bn Air Warfare Destroyer (AWD) project to build 3 ships is years behind schedule and billions over budget.
For more than 17 years of this history the author was a knowledge management systems analyst with access to most areas of company operations and thus able to observe sources of the successes and failures (including from the vantage point of Tenix's bid development for the AWD. The presentation shows that most successes and failures related to the ways in which Tenix managed their corporate and human knowledge, and attempts to infer some critical lessons that should be learned from this history.
In this briefing by Wing Commander Alison MacCarthy, the CO of the Heavy Air Lift SPO looks at how the RAAF works with industry to maintain its air platforms.
Automated Design Flow for Coarse-Grained Reconfigurable Platforms: an RVC-CAL...MDC_UNICA
pecialized hardware infrastructures for efficient multi-application runtime reconfigurable platforms require to address several issues. The higher is the system complexity, the more error prone and time consuming is the entire design flow. Moreover, system configuration along with resource management and mapping are challenging, especially when runtime adaptivity is required. In order to address these issues, the Reconfigurable Video Coding Group within the MPEG group has developed the MPEG RMC standards ISO/IEC 23001-4 and 23002-4, based on the dataflow Model of Computation. In this paper, we propose an integrated design flow, leveraging on Xronos, TURNUS, and the Multi-Dataflow Composer tool, capable of automatic synthesis and mapping of reconfigurable systems. In particular, an RVC MPEG-4 SP decoder and the RVC Intra MPEG-4 SP decoder have been implemented on the same coarse-grained reconfigurable platform, targeting a Xilinx Virtex 5 330 FPGA board. Results confirmed the potentiality of the approach, capable of completely preserving the single decoders functionality and of providing, in addition, considerable power/area benefits with respect to the parallel implementation of the considered decoders on the same platform.
In this video from the 2014 HPC User Forum in Seattle, Manuel Vigil from Los Alamos National Laboratory presents: Update on Trinity System Procurement and Plans.
Learn more: http://insidehpc.com/video-gallery-hpc-user-forum-2014-seattle/
All the World's a Stage (Unless you are in the Military)Andy Fawkes
Presented at the RAeS "Simulation Based Training: The Key to Military Operational Capability" Conference, London 22 November 2016 - If military mission training, planning, preparation, command and control, and after action analysis/debriefing were life then there would not be one world or “stage” but many. Military personnel are typically required to carry out their activities singularly and together on a number of different training, simulation and C4ISTAR systems that may work together but have different human interfaces, processes, and digital content that may not be easily shared across systems. This puts additional workloads on the personnel and runs the risk of confusion and reduced operational agility. What if there was only one world or “stage” to support the complete mission cycle? This talk will discuss the challenges in achieving one “stage” when most if not all simulation/C4ISTAR component elements are procured and operated by different teams and sourced from different companies. However, if the organisational and technological challenges can be overcome, might there be additional operational benefits going forward?
Similar to Supporting Flexible Combat Systems (20)
All the World's a Stage (Unless you are in the Military)
Supporting Flexible Combat Systems
1. CS&S Naval 115841019/00Y/2204/ Issue 1/220905
Supporting Flexible Combat Systems:
Building HFI into the lifecycles of flexible warships
David Carr
Monica Sen Gupta
John McFarlane
Human Factors Group
2. CS&S Naval 21st
Maritime Combat Systems Conference. 7th
June 2006
Theme
What wider Human Factors support issues do we need
to address to support a flexible combat capability,
through life?
3. CS&S Naval 31st
Maritime Combat Systems Conference. 7th
June 2006
The Need for Flexibility
The Versatile Maritime Force must be:
- Optimised for Joint Power Projection
- Have global reach, sustainability and endurance
- Able to contribute at different scales of effort
- Interoperable with Future Army, Future Airforce and other international and civil partners
- Able to change efficiently and effectively between different levels of readiness
These capabilities to be provided within the (current) limits of 32 warships, 15 submarines,
97 frontline aircraft, one Royal Marine Commando brigade and 36,000 staff
4. CS&S Naval 41st
Maritime Combat Systems Conference. 7th
June 2006
The Enabling Concept: “Swing”
“Swing is defined as the ability to configure a force, formation or unit to
allow it to operate successfully, and cost-effectively, across a range of
mission types and roles. “
Future Navy
5. CS&S Naval 51st
Maritime Combat Systems Conference. 7th
June 2006
Challenges For Supporting Flexibility
Through Life Capability Model:
- Designing to provide an affordable capability through life
- Designing to swing rapidly and cost-effectively between capabilities
- Designing to maintain a high level of readiness: affordable upkeep
- Designing to manage and accommodate changing capabiliities over time: affordable
upgrade
The Combat System is supported by a much wider infrastructure
- People
- Team
- Organisation
- Platform
- Compartments
- Services (for people and equipment)
- Logistics Footprint
- Upkeep
- Training
6. CS&S Naval 61st
Maritime Combat Systems Conference. 7th
June 2006
HFI Enablers for affordable TLCM
- Maintainability and maintenance access for upkeep and upgrade
- Optimising allocation of functions
- At sea / alongside support balance
- Organic / Remote operational capability
- Providing a variable human component
- Flexible complementing. Flexible team design.
- Minimising skills fade. Rapid training in new skill. Rapid training development
- Supporting a variable human component
- Flexibility in operational equipment and facilities
- Flexible accommodation and hotel
- Sustainable personnel model
7. CS&S Naval 71st
Maritime Combat Systems Conference. 7th
June 2006
The Scope of Flexibility
- Flexible missions
- Varying intensities of warfare
- Varying military effects
- Including capability for Operations Other Than War
- Flexible roles
- Varying emphasis on weapons systems
- Autonomous vs Force
- Flexible manpower
- Varying requirements for skill
- Varying manpower requirements
- Flexible platform
- Incremental Acquisition / Room for Growth
- Ability to effectively integrate systems (new, legacy, etc.)
- Flexible support
- Autonomous vs Specialist maintenance
- Rapid upkeep/ upgrade
- Maximised state of readiness
- Affordable TLCM
8. CS&S Naval 81st
Maritime Combat Systems Conference. 7th
June 2006
Type 23 Example
• Conceived as an Anti-Submarine
Warfare platform, with towed-array
sonar. It was initially proposed that they
would not carry AAW missiles.
• Post Falklands, design scope increased
to include:
– Seawolf
– Medium Calibre Gun for NGS
– Harpoon.
• Generally used as a ‘general purpose’
frigate
– Force AAW cover
– Stop-and-Search
– Disaster relief
– Etc.
• Strain on manpower and
accommodation.
9. CS&S Naval 91st
Maritime Combat Systems Conference. 7th
June 2006
Submarine Roles
Cold War
• Nuclear Deterrent
• ASW / ASuW
Current
• As above, plus:
– Land attack Tomahawk
– Littoral intelligence gathering
– Support for SF Ops
Maritime Underwater Future
Capability
• Multi-role, possibly including SSBN.
10. CS&S Naval 101st
Maritime Combat Systems Conference. 7th
June 2006
Future Manpower Requirements
Warfare
- Higher skill levels (supervisory/management level), with automation of lower-level tasks
- But: for flexibility and local control, lower skill levels need to be retained.
- Weapons suite management (as compared with single-weapon specialisms)
- Highly variable team/organisational structures
Note that CS requires support from non-warfare disciplines:
Engineering
- More requirements for artificers-level, less for lower skills
- New ‘System Manager’ roles
- Increasing number of equipments requiring highly specialised maintenance
- Increasing CLS support – but noting the sensitivities of much CS equipment
Whole Ship/ Other
- Continuing need for whole-ship roles
- Continuing need for ‘general manpower’ – with additional demands in some ship roles
- Some scope for workload reduction – but many tasks fundamentally manual
11. CS&S Naval 111st
Maritime Combat Systems Conference. 7th
June 2006
Flexible Manpower Considerations
- Increased organisational flexibility at the operational level
- ‘Skills Swing’ can be provided by training
- Equipment training vs Operational training
- Individual vs Team vs Force training
- Career paths must allow for skills to become widened/generalised
- There will still be a need for multi-skilling, especially given ever smaller complements
- Potential for sharing some skills across a force/ across the RN through Network Enabled
Capability
- Complement augmentation as a possible solution for specific operations?, E.g.
- Specialist maintenance teams that fly from ship to ship
- Specialist combat teams dependent on mission
- Harmony challenges (potentially met by ‘Squading’ systems).
12. CS&S Naval 121st
Maritime Combat Systems Conference. 7th
June 2006
ShoreShore
Flexible Manpower
Potential approaches:
- Core complement +
warfighting augment
- Roulement amongst partly
shore-based ‘squads’.
- Network Enabled Capability
to share functionality ship-
ship and ship-shore
- Specialist maintenance by
troubleshooting teams
13. CS&S Naval 131st
Maritime Combat Systems Conference. 7th
June 2006
Changing missions and roles require platform flexibility
Role
Combat/
Mission
Systems
Warfighting
Team
Skills/ Numbers
of personnel
Mission
Force
Structure
Facilities and
compartments
Accommodation
and Hotel
14. CS&S Naval 141st
Maritime Combat Systems Conference. 7th
June 2006
Flexibility in Command and Control Information Systems
Enablers for flexibility
– Interoperable components
– Open Systems
– Multi-function workstations
– Multi-channel display technologies
(eg 3d audio)
– Network Enabled Capability:
Ownship
– Network Enabled Capability:
Functionality enhanced inter-asset.
HMI Enablers
– Policies for information management
– Common Look and Feel
– Task-centred configurability – e.g.
‘wikis’
– Role-based access
Ownship LAN
WAN
Common workstations
Common HMI
Common HMI
15. CS&S Naval 151st
Maritime Combat Systems Conference. 7th
June 2006
Impact at Operator Level – Workload & Situation Awareness (SA)
- Number of operators going down yet the number and capability of sensors going up.
- Equipment complexity and number of choices to be made under stress run the risk of
operator overload – more training required to alleviate.
Example: Single Integrated Air Picture (SIAP)
- Key Aspiration for Air Warfare
- Linking up numerous pictures can reduce SIAP quality.
- While picture quality may be down the SA will be up -- at Operator’s expense however!
(increased workload to filter unnecessary info)
- Tools for associating objects, decision aids, better sensors to improve picture quality will
help mitigate workload while increasing SA
16. CS&S Naval 161st
Maritime Combat Systems Conference. 7th
June 2006
Flexible Working Spaces
Benefits:
• Team composition and
teamworking arrangements are
role-dependent
• Equipment arrangement governed
by team needs
• Modern “flexible office” concept
Enablers:
• Raft mounting across
compartments
• Modular equipment
• Services modularity
• Flexible comms – especially wire-
free
• Virtual teams supported by NEC
‘telepresence’
17. CS&S Naval 171st
Maritime Combat Systems Conference. 7th
June 2006
Flexible Hotel and Accommodation
Issues:
• Varying complement size and composition
• Augmentation
• Growth
• Civilian passengers
• Meeting Def Stan 02-107
Design Requirements
• Modularity
• Segregation
– By rank
– Male/ Female
– Complement/ Non-complement
– Occupied/ Empty spaces
• Design for max/min hotel load:
– HVAC
– Fresh water, waste and sewage
– Galley
– O2 and CO2 (Submarines)
18. CS&S Naval 181st
Maritime Combat Systems Conference. 7th
June 2006
Flexible Training
Training issues
- Changes in personnel policies mean increasing need
for training both the individuals and teams to OPS
whilst the platform is deployed
- Decreasing the response times as platforms are re-
rolled for developing events/conflicts around the
world
- Mitigating skill fade – both at sea and while re-roleing
- Short cycles for progressive upkeep
Training solutions
- Rapid development of training materials
- Equipment, individual and team training.
- WIN WIN WIN (What I Need, When I Need it, Where
I Need it)
- Integrated federated & confederated training
capability, with reach back to specialists ashore
Maritime Composite Training System:
an example of a flexible approach to
training provision.
19. CS&S Naval 191st
Maritime Combat Systems Conference. 7th
June 2006
HFI in CADMID Lifecycle
System
Viewpoint
s
Establish
System
Reqts
Design/
Define
System
Develop
System
Assess
System
Concept
Demonstration
ManufactureIn-ServiceDisposal
Assessment
After DTC HFI Handbook
Develop HFI
Strategy Identify HFI
Issues
Develop HFIP
HFI Reqts and
Acceptance
HFI Aspects of
Acceptance
HFI
Assurance
Mission
Analysis
Target
Audience
Description
Functional
Analysis
Allocation of
Function
Safety Analysis/ HRA
Automation
Job Design
User Interfaces/
Workspace Design
Usability
Assessment
20. CS&S Naval 201st
Maritime Combat Systems Conference. 7th
June 2006
Lifecycle Implications for Flexible Platforms
Concept
Assessment
Demonstration
Manufacture
In Service
Disposal
Conventional focus for HFI
System
Viewpoint
s
Establish
System
Reqts Design/
Define
System
Develop
System
Assess
System
HFI Management
Task Analysis
HFI Issues Management
Manpower Analyses
Training Analyses
Human Engineering
Progressive
Upkeep
Continued Systems Engineering
Emerging
Operational
Requirements
21. CS&S Naval 211st
Maritime Combat Systems Conference. 7th
June 2006
Through Life Support Issues for Flexible Combat Systems
- HFI issues need to be addressed beyond the strict scope of the Combat System
- Continuity of analysis/ design effort throughout the CADMID cycle with greater emphasis
on through life support.
- Effective HFI design and management to result in acceptable workload and increased
SA.
- Fewer detailed task requirements known up front: design for flexibility/swing.
- Shorter, more frequent updates requiring rapid assessment of HFI issues.
- Providing cost-effective means of addressing HFI within an affordable TLCM.
- Continued maintenance of HFI Issues Log beyond the prime contractor’s involvement.
- HFI needs to take a TLCM approach to address the need for flexibility in operations and
support.
22. CS&S Naval 2215841019/00Y/2204/ Issue 1/220905
Contact
David Carr
e-: d.carr@baesystems.com : +44 (0)141 957 2173
Monica Sen Gupta
e-: monica.sengupta@baesystems.com : +44 (0)1252 384498
John McFarlane
e-: john.mcfarlane@baesystems.com : +44 (0)141 957 4526
Human Factors Group
Editor's Notes
The VSF will fulfil a multiplicity of roles – this will change over time – some roles are not even fully known yet.
Obviously in our size of fleet, we won’t be able to have specialist platforms for each role. They will need to be flexible.
The Future Navy report has highlighted “Swing” as an enabling concept for flexibility.
Note the inclusion of ‘cost effectively’. We need to look at ways of designing flexibility into ships to achieve flexibility efficiently and inexpensively.
We need to be conscious of what ‘flexibility’ implies.
Platforms will be engaged over time upon missions of different types and length, within which they will fulfil different roles.
Different roles will require different personnel skills and numbers
The platform need to have the flexibility
to support the varying crews, with adequate growth margins
To integrate a varying equipment fit
Different mission types and different systems will require a flexible approach to support but within an affordable Total Lifecycle Cost Model – ie we need to design for affordable swing.
Let’s take an example of the issues that are raised when a platform is used flexibly, without having been designed that way.
A similar picture can be expected to emerge for submarines which have also changed roles considerably over time.
In the future (ie the putative Maritime Underwater Future Capability) it would be wise to build in the flexibility from the start.
As well as looking at the platforms, we should look at the way demands on RN personnel is heading.
Flexibility has these implications (above) for manpower requirements
(Last bullet under ‘warfare’ – flexibility implies a need for more ad-hoc ways of working within teams)
(In Engineering there will be an issue of how to train to maintain upgraded equipment – and also to manage Systems, rather than equipment)
(But there’ll still be a residual need for baseline manpower)
Given varying manpower demands over time, we need to look at where the different types of crew can be delivered
Thinking is moving away from long-term, platform-based complementing towards approaches that can deliver flexibility, while maintaining a coherent personnel structure across the RN.
It may be useful to think in terms of complementing in units greater than a single platform
How to build up skill resources and allocate them throughout the fleet as demand changes.
Getting back to platforms…flexible the need for equipment and flexible complements impacts on the way platforms need to be designed.
If we consider a ship swinging between roles
The ship will be fitted with a combat system, according to its role.
The facilities such as operational compartments must match the team structures optimised to carry out that role with that equipment
And the ship must support the people in those teams – which might be of varying sizes and composition.
The central point to be made is that we can’t simply talk of the CS as the fighting parts of the ship: there are knock-on effects upon other areas of design.
If we taka a more detailed look at CS…
changing technology offers potential for flexibility
The flexibility brings with it various HMI challenges
With NEC, the CS may be wider than the platform. What are the issues for Common Look and Feel? Similarly…as equipment changes over time
Optimising UI for different role-dependent tasks: We may need to build in greater flexibility at the end-user level. The technologies are becoming more common…eg Linux GUI options; ‘My Google’; Wiki web pages.
If we’re re-designing teams, someone (a System Manager) will have to be able to control who is able to access what functionality.
If we look at the impact of the flexible CS on operators…
Although automation has great benefits, operator workload and maintaining SA will still be issues. If we reconfigure the system, we want to be sure that we are not willy nilly placing a new demand upon a role.
Some of the answer may be in having greater flexibility in the dynamic allocation of functions.
We need to look at how the CS (and other systems) and their teams are integrated into platforms.
Workspaces should be designed for effective intercommunication within teams.
If the teams are flexible, so should compartment layouts be.
cf modern office concepts – nobody has a fixed desk any more
various design measures will have to be built in to the platform and equipment
Traditionally the design of the accommodation spaces is as far away from the CS as you can get. But it is essential for supporting certain critical CS components.
Ships will have to be built to flex according to crew size.
They will also have to flex for different crew/ augmentee
The issue goes far beyond accommodation. Variable hotel load is a significant challenge. For example – bioactive sewage treatment plants can handle a certain maximum load…but also require a minimum to keep them ticking over.
Flexibility implies various issues for training
(first and third bullet means more training onboard)
(2nd and 4th– less time to develop training)
Solutions
CBT authoring systems. Links with electronic documentation, etc.
2nd bullet
Equipment training – ideally embedded in the equipment itself.
Individual training need to be build up a basic skillset that can be adapted to / built upon specific equipments
Team training – federated across the platform. Confederated, via NEC across the fleet
WIN WIN WIN (A quote from someone – check with Kevin Leech – emphasises rapid delivery, at point of need onboard – whether it’s a pre-trained individual, or training delivered to an existing crewmember)
NEC a key enabler. It allows specialist tariners to support onboard training from shore
We’ve outlined a lot of HFI issues. There are a lot of different emphases compared to the present.
Arguably we need to take a fresh look at how HFI integrates into the CADMID lifecycle.
Here it is, as expressed in the MoD Acquisition handbook – HFI is heavily involved right through development, up to the in-service date.
HOWEVER Flexibility implies incremental acquisition, progressive upkeep…and more fundamentally a change in the vary human tasks we are designing for.
We need to loo at HFI stretching to cover the development activity will be ongoing as operational requirements change over time.
But it can’t be done piecemeal, equipment by equipment. As with other systems engineering, we need to look at how changes to the parts affect the platform/systems as a whole.
So HFI has the following challenges
(TLCM bullet – this implies such things as
Designing a platform that will accept easy reconfiguration
Providing a personnel/ training infrastructure that has the flexibility to match changing equipment/ manpower demands. PEOPLE ARE MOST EXPENSIVE COMPONENT