Advanced technology and breakthrough physics for 2025 and 2050 military aerospace vehicles

被引:0
|
作者
Froning, D
Czysz, P
机构
关键词
aerospace; propulsion; MHD; aneutronic fusion; cislunar space;
D O I
暂无
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
We are investigating the development of military aerospace planes that would embody advanced technology and break-through physics to revolutionize the capability of the US Air Force to respond in a timely manner to hostile threats facing the United States and its Allies. One plane concept embodied science and technology advances deemed developable by 2025. These advances included: MHD airbreathing propulsion, aneutronic fusion propulsion and light weight and high-strength airframe and propulsion materials-to accomplish Air Force aerospace missions from the ground up to geostationary orbit. The other plane embodied the further advancements in science and technology that were deemed possible by 2050. These advancements included: augmentation of MHD and fusion power with power from the zero-point energies of the quantum vacuum, and augmentation of vehicle jet propulsion with field propulsion to increase vehicle delta V by a factor of more than 2, thereby extending Air Force protective operations beyond earth orbit-into cislunar space. This paper has been approved for public release by the USAF.
引用
收藏
页码:1224 / 1231
页数:8
相关论文
共 50 条
  • [31] Review on Management at Joint Fund for Aerospace Advanced Manufacturing Technology Research
    Li M.
    Shi H.
    Lai Y.
    Huang X.
    Li H.
    Zhao C.
    Ye X.
    2018, Chinese Mechanical Engineering Society (54): : 1 - 8
  • [32] On the advanced milling technology of thin-walled parts for aerospace industry
    Piska M.
    Ohnistova P.
    Piska, Miroslav (piska@fme.vubtr.cz), 1600, Springer Heidelberg : 113 - 139
  • [33] The Applications of Ultra-Thin Nanofilm for Aerospace Advanced Manufacturing Technology
    Xie, Guibai
    Bai, Hongwu
    Miao, Guanghui
    Feng, Guobao
    Yang, Jing
    He, Yun
    Li, Xiaojun
    Li, Yun
    NANOMATERIALS, 2021, 11 (12)
  • [34] Employment of the new advanced structural materials in the military vehicles and heavy equipment
    Slezak, Tomasz
    CHALLENGES TO NATIONAL DEFENCE IN CONTEMPORARY GEOPOLITICAL SITUATION (CNDCGS' 2018), 2018, : 32 - 39
  • [35] Modeling the behaviour of an advanced material based smart landing gear system for aerospace vehicles
    Varughese, Byji
    Dayananda, G. N.
    Rao, M. Subba
    SMART DEVICES: MODELING OF MATERIAL SYSTEMS, 2008, 1029 : 92 - 103
  • [36] Advanced control technology for braking systems in railway vehicles
    Nankyo, Masanobu
    JOURNAL OF JAPANESE SOCIETY OF TRIBOLOGISTS, 2006, 51 (07) : 493 - 498
  • [38] NEW PERSPECTIVE IN SEMICONDUCTOR PHYSICS BASED ON ADVANCED TECHNOLOGY
    PORJESZ, T
    ACTA PHYSICA ACADEMIAE SCIENTIARUM HUNGARICAE, 1982, 53 (3-4): : 411 - 417
  • [39] ADVANCED TECHNOLOGY FOR HEAVY-ION PHYSICS - INTRODUCTION
    MIGNECO, E
    RESMINI, F
    NUCLEAR PHYSICS A, 1983, 409 (NOV) : C329 - C330
  • [40] Physics-Based Distributed Collaborative Design for Aerospace Vehicle Development and Technology Assessment
    Kolonay, Raymond M.
    20TH ISPE INTERNATIONAL CONFERENCE ON CONCURRENT ENGINEERING, 2013, : 198 - 215