Browse Topic: Total life cycle management

Items (193)
Rapid advances in high fidelity modeling and high performance computing capabilities have enabled their routine utilization in support of aircraft design. Analysts are able to generate orders of magnitude more data that must then be turned into actionable intelligence to guide design. Enabling effective application of advanced analysis to design requires a robust end-to-end digital transformation to make the simulation processes reusable, repeatable, traceable, scalable and minimize setup errors. This is achieved through the development of a Computational Fluid Dynamic (CFD) modeling framework where streamlining and automation are inserted within the current CFD workflow that involves model setup, simulation and post processing. Workflow automation techniques have been implemented in simulation pre and post processing that reduce the overall process time or enhance the fidelity of the simulation. To conduct CFD evaluations through flight envelope efficiently, space filling methods that
Bernier, DanielNeerarambam, ShyamHalline, DanaCotton, RebeccaLamb, DonaldColeman, DustinKeomany, StephanieDusablon, LindseyAlexander, MichaelWillmot, RyanEshcol, RituFernandes, Stanrich
This Standard specifies the Habitability processes throughout planning, design, development, test, production, use and disposal of a system. Depending on contract phase and/or complexity of the program, tailoring of this standard may be applied. The primary goals of a contractor Habitability program include: Ensuring that the system design complies with the customer Habitability requirements and that discrepancies are reported to management and the customer. Identifying, coordinating, tracking, prioritizing, and resolving Habitability risks and issues and ensuring that they are: ○ Reflected in the contractor proposal, budgets, and plans ○ Raised at design, management, and program reviews ○ Debated in Working Group meetings ○ Coordinated with Training, Logistics, and the other HSI disciplines ○ Included appropriately in documentation and deliverable data items Ensuring that Habitability requirements are applied to all personnel environments, including operators, maintainers, trainers
G-45 Human Systems Integration
The U.S. Army monitors the structural integrity of its rotary-wing aircraft fleet through annual evaluations and reporting via the Airframe Condition Evaluation (ACE) program. ACE evaluations capture the location and character of structural defects for each aircraft, which are then available for trending and detailed analysis by engineers with the U.S. Army Combat Capabilities Development Command Aviation & Missile Center (CCDC AvMC). As analytic methods are increasingly advanced through the digital thread, CCDC AvMC has sought to improve available trending, modeling, and analysis tools beyond status quo to provide higher fidelity visuals to both aid communication with decision makers, and also to reveal structural defect trends which may not otherwise be evident. This paper will detail the development and utility of the ACE Color Mapping Application within the ACE Mapping Module and its impact on product support of U.S. Army aircraft with regard to airframe structural integrity.
Peltier, JaredChhotu, Prasant
A primary factor for the development of military avionics systems is the requirement for a Modular Open System Architecture (MOSA). The US Department of Defense (DoD) is driving MOSA-compliant systems to achieve benefits in cost and flexibility within their procurements. MOSA definitions are examined in light of advances in computing disciplines that open the interfaces necessary for the aircraft operator to update and manage their fleet's Health Awareness Systems (HAS). Opening the relevant HAS interfaces via software configuration toolsets and MOSA building blocks avoids contracting for costly software changes and gives control of the update to the operator. Two business related factors are presented for consideration in developing the best way forward while using MOSA principles to guide development. These factors are (1) Intellectual Property (IP) and (2) the underlying investments companies make to develop IP. The need to routinely update the HAS to incorporate fleet lessons
Thomson, MarkCaraway, LoganTucker, Brian
This SAE Aerospace Information Report (AIR) reviews technical, operational, and maintenance data being exchanged between key stakeholders in aerospace asset lifecycle and data standards available for such exchanges. It identifies gaps and non-availability of data standards in certain areas. The scope of the current document is limited to aircraft operations, maintenance and disposal stages post-build phase, and does not include the detailed interactions during the aircraft build phase.
G-31 Electronic Transactions for Aerospace Committee
This SAE Aerospace Information Report (AIR) offers an overview of the aspects of intellectual property (IP) protection, legislative compliance, business model, and technologies which need to be considered and addressed to implement a data interoperability, secure business model and technology platform to enable prognostics and health management (PHM) in the digital age. While this information report is restricted to the aerospace domain and also to commercial aviation, the concepts are applicable to any other domain that employs data for supporting health management functionality.
G-31 Electronic Transactions for Aerospace Committee
The Structures Division at the Naval Air Systems Command (NAVAIR) continues to support capital investment in enabling technologies for sustainment of our aircraft which will lower total life cycle costs, ensure safety, and increase operational readiness. This paper presents a general overview of the major improvements which have been made in the area of Structural Health and Usage Management (SHUM), including: usage severity monitoring via regime recognition (RR), gross weight and center of gravity (GW/CG) estimation, local/global damage detection, environmental effects monitoring, damage alleviation, prognostication, and individual asset/component tracking (IAT). Advances in structural analyses have been made in the accuracy of predicted rotorcraft loads using coupled rotor and fuselage interactions. Innovative approaches to fatigue testing at both the component and full scale airframe levels will allow for more accurate introduction of vibratory loading content from operation, reveal
Semidey, RobertoGlucksman-Glaser, MarkPhan, Nam
In the past year, as part of the Administration's thrust to promote Advanced Manufacturing, a solicitation was issued for the establishment of a Digital Manufacturing and Design Innovation (DMDI) Institute. The DMDI Institute will be part of the U.S. Administration's National Network for Manufacturing Innovation (NNMI) initiative. The NNMI initiative is a Federal response to the need for an integrated, well-funded national network of large-scale, industry-led manufacturing innovation centers. Since global competitiveness is driven by the speed at which products can enter the marketplace at a competitive price point, this institute's focus will be on enterprise-wide utilization of the digital thread, enabling highly integrated manufacturing and design of complex products at reduced cost and time. It was stated that responses should clearly link a technology area with a specific concept of how that technology can impact that marketplace. The objective is to take the Department of Defense
Schrage, Daniel
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