S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e m e m e m nc Technology Wa c tch Report: Genneral Atomics E c MS n r r r e e e o o o t t t M M M l l l o 1. Core Technology Portfolio o o i i i l l l i i i gt t g t g a a a General Atomics Electromagnetic Systems (GA-EMS) operates as a specialized group within yr r y r y y the broader General Atomics enterprise, foycusing on the research, design, and manufacture of y .T T . T . ce first-of-a-kind electromagnetic and electric pow e er generation systems for cdefense and e c oc commercial applications. While its portfolio is divcerse, a technical assessmenot reveals two c o S h S h S h foundational, interlocking capabilities that form the core of its advanced military hardware mn n m n m e oofferings: emilitary-grade pulsed power systems and theo high-energy-density capacitors that e o c enl oable them.c These technologies are the critical enablerlso for a range of next-generation c l o r weapgon systemsr, including electromagnetic launchers and gdirected energy weapons. r g e y e y e y . . . c c c t S Military Pu o lsed PotwSer Systems o S t o M M M e m e m e m c c c The cornerstone of GA-EMS's military portfolio is its demonstrated mastery of high-energy i r ir r i l e pulsed power systems. Thesele systems are engineered to accumulate vast amountse of electrical l i i i t t M energy over a period of seconds ttM and then discharge it in a precisely controlled, high-c t uMrrent t a a a i pulse lasting only milliseconds. Thisi capability is fundamental to powering electromagnetici r l i lri l i r y t a weapons that cannot be driven by contvya entional prime power sources. The company's t a y T r y architectural philosophy and technical acrhTy ievements in this domain are well-documented. r y T T A defining characteristic of GA-EMS's approTach is the development of modular, containerized T e e e e pulsed power architectures. These systems aree not designed as static laboratory instruments e c c cc c c but as ruggedized, deployable assets intended for integration onto military platforms. This is h h h h h h nmost clearly demonstrated by the development of thne High Energy Pulsed Power Container n n o (HEPPC), a system designed to fit within standard 10- o fnoot and 20-foot shipping containers. This o n l l l o o o o modularity provides significant operational flexibility, allowoing the systems to be configured for o g g g l shipboyard, fixed-land, and mobile tactical applications. ly y l o The com.pcany has also proven its ability to scale these system o s. cacross a wide spectrum of . c o S g energy clasoses to mee S t distinct mission requirements. Over the pagost decade, S GA-EMS has o g e m e m e m y designed, built, and tested systems for the U.S. Navy and Army's eleyctromagnetic railgun y c c c r . programs at multiple power lrevels, including the 3 megajoule (MJ) "Blitz.er" test assret, a mobile . e e e c c c t 10 MJ system, and a 32 MJ systtem for advanced testing. This demonstrates a maturet M o M o M o S engineSering capability to design the underlying components—capacitors, switches, and conStrol i i i l i msystems—to meet specific energy, vol ilume, and repetition-rate targets. This expmertise has itlsi m e t e t te a roots in earlier, large-scale programs likae the Navy's Electromagnetic Aircraft Launch System a c r c r rc y (EMALS), which requires immense pulsedy power to launch carrier-based aircraft. y r T r T Tr e e e e ee c High-Energy-Density Capacitors c c t t t h h h M M M n n n The critical enabling technology that underpins GA-EMS's dominance in pulsed power is its o o o i inl-house capability to designi and manufacture advancedl, high-energy-density capacitors. The li l o l o ol i perfogrmance of the capacitor bianks dictates the ultimate pegrformance and, crucially, the size g i t t t a and weyight of the entire pulsed poawer system. GA-EMS is recyognized as the leading U.S. ya . . . r developerc and manufacturer of theser specialized components focr defense applications, c r S o S o S o y y y e positioning it mas a criticale node in the national security industrial basem. e m T c c T c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e The companym's product leiterature details a range of capacitor familiems tailored foer demanding m nc c n c n military applications, such as the CMX and CMF series of self-healing, metalized film energy r r r e e e o storage capacitors. These components are characterized oby exceptional performance metrics, o t t t M M M l including volumetric energy densities of up to 3.0 joules per clubic centimeter (3.0~J/cc), voltage l o o o i l ratings from under 1 kV to over 100i klV, and extremely long operational lifetimes, with somiel i i i gt t g t g a designs rated for over one billion (1 \timaes 10^9) charge-discharge cycles. This combination oaf yr high energy density and military-grade rerliability is essential for systeyms that must perform r y y y y .T repeatably in harsh environments. T . T . ce e c e c A key aspect of GA-EMS's strategy is the deep, application-specific integration of its capacitor oc c o c o S hdesignS process with military requirements. A 2009h technical paper co-authored by GA-EMSS h mnengineers Fred MacDougall and Joel Ennis explicitlyn notes that capacitor lifetim m es are designed n m e e e o o o to match the operational needs of the intended weapon system. For example, a capacitor for an c l o c l o c l o electromagnetic gun system may be specified to survive 10,000 shots, a figure that "roughly g g g r r r e matcheys the life ex e pectancy of a Navy gun system". This demyonstrates a mature design e y . . . philosophcy where the fundamental component technology is devceloped from the outset to meet c t S o tS o S t o M a specific warfighter reqMuirement, rather than being adapted from a commercial product. M e m e m e m c The relationship between GcA-EMS's capacitor technology and its system-level prcoducts is i l r e symbiotic and reveals a clea irrl edevelopmental pipeline. Public announcements of syrsetem-level i l i i i t t M breakthroughs, such as increastte M d power density or reduced footprint, are lagging indict M ators of t a a a prior, more fundamental achievements at the component level. For instance, the 2017 i i i r l i announcement of the HEPPC, which lr idoubled the energy density of their pulsed power syst l eims, r t t t y a ya a y was not an isolated design achievement. The company's own press release explicitly stated that r r r T y the system "utilizes GA-EMS' world-recor T dy-breaking high energy density capacitors". This y T T T T e followed earlier announcements where the coempany detailed its success in increasing the e e e e c c energy content of a single large-platform capacitccor from a previous record of 340 kJ to over 415 c c h h h h kJ. This progression shows that advances in materihals science and manufacturing at the h n n n n ocapacitor level directly enable the more visible, systemon -level capabilities of miniaturization and o n inlcoreased power. Therefore, monitoring GA-EMS's capalcoitor research and development l o o o o provigdes a predictive window into the future performance ofg their integrated weapon systems. g l y ly y l o . o. . o c c c S g 2. Key Te o chnicalS Personnel & Recent Activity (20 go 20-PresSent) o g e m e m e m y y y c c c To establish a current technical capabilities fingerprint, it is necessary to move beyond corporate r . r . r . e e e c product sheets and identify the key engineers and scientists responsible fcor driving innovation. c t t t M oAnalysis of recent patents and teMchnical announcements reveals a cohort ofo technical lMeads o S S S i actively advancing the state-of-the-airt in directed energy and advanced power systems. i l m l m l m i i i e t e t te a a a c r Dr. Michaelc Perry (High Energy Lasrer Systems) rc y y y r T r T Tr e e Dr. Michael Perry eis identified as the Vice Preseident for Lasers and Advanced Sensors at ee c c c t GA-EMS. In an Octobter 2021 press release concerning a contract to develop a 300 kW-class t h h h M M M nlaser weapon for the U.S. Army, Dr. Perry provided snpecific technical details on the system's n o o o maturity. He described the laser as "a packaged version of the 7th Generation of our Distributed i l i l li l o l o ol i Gain Design already demonstriated," and noted that "architectural improvements have enabled i g g g t t t a our sinygle-beam DG Lasers to ac a hieve comparable beam quaylity to fiber lasers in a very simple ya design w.icthout the need for beam combination". His title and de.tcailed statements confirm his . c r r r y S role as the osenior tech S nical lead for they company's entire laser weoapon portfo S lio. His o y e m e m e m T c commentary indicates a m c ature, iterative Tdesign process (7th generation) and a f c ocus on T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e achieving higmh performanece (fiber-laser-equivalent beam quality) in ma compact eand ruggedized m nc c n c n package suitable for military applications. r r r e e e o o o t t t l M Dr. Geoff Staines and Dr. BrMian Paul Cluggish (High lPower Microwave SysMtems) l o o o i i i l l l i i i gt a These two scientists are the co-inventtoars on U.S. Patent 11,946,7g26, "Synchronization of higtha g yr power radiofrequency sources," granted orn April 2, 2024. The patenty describes a novel methodr y y y y .T for synchronizing multiple High Power MicroTwave (HPM) sources with s.ub-nanosecond timing T . ce e c e c accuracy. This is achieved by using a laser pulse reflected from a target to trigger the firing of oc c o c o S heach HSPM emitter in an array, ensuring that the indhividual microwave pulses arrive on targeSt and h mncombine coherently. Dr. Geoff Staines is a long-tenunred expert in power electronmics at GA-EMS, n m e e e o o o with technical presentations on power conversion for EMALS and railguns dating back to at c l o c l o c l o least 2007, establishing him as a foundational figure in this domain. Dr. Brian Cluggish brings a g g g r r r e cross-dyisciplinary e background that includes work on nuclear syystems simulation, suggesting a e y . . . deep bencch of expertise in modeling complex physical phenomecna. Their collaboration on this c t S o tS o S t o M patent points to a highlMy advanced, next-generation directed energy program focused on M e m e m e m c overcoming the range andc power limitations of single HPM emitters. c i r ir r i l e le e l i i i t t M Gilberto Fernando Rodrigutte M z, Boris Tyrol, Scott Brian Mahar, Gordon F. Stm M ith II, t a a a and Corey John Jaskolski (Advanced Battery Systems) i i i r l i lri l i r t t t y a ya a y This team of engineers are the co-inventors on U.S. Patent 12,203,998, "Single cell fault r r r T y tolerant battery system architecture," gran T tyed on January 21, 2025. The patent details a battery y T T T T e module architecture designed to mitigate the eeffects of a single-cell thermal runaway event. The e e e e c c design incorporates a diffuser plate to channel hccot gases and molten material away from c c h h h h adjacent cells, preventing a catastrophic cascadingh failure of the entire battery pack. This work h n n n n odirectly addresses a critical safety and reliability challeon nge for deploying high-energy lithium-ion o n bal otteries on military platforms, where battle damage or cleoll failure could be mission-ending. l o o o o Openg-source data identifies Gilberto Rodriguez as an Engingeering Manager at General Atomics, g l y ly y l o confirmin . g a leadership role within this design team. o. . o c c c S g The followin o g table proSvides a consolidated summary of these key go technical Sleads and their o g e recent, publicmly documeneted contributions. This serves as a quick-remference "weho's who" of the m y y y c c c key innovators at GA-EMS, linking individuals directly to specific technological breakthroughs. r . r . r . e e e c Name(s) Assessed Role / Title Key Activity (Date) Tcechnical Significance c t t t M oDr. Michael Perry VP, LaseMrs & Advanced Public statement on Conofirms leadeMrship o S S S i l m Sensors i l 300kW laser prototype over a mmature, i l m i i i e t e t te a a (Oct 2021) 7th-generation a c r c r Distributed Gain Laser rc y y y r T r T technology, pushing Tr e e e e ee toward higher power c c c t h t h classes for Army air h t M M M n n defense. n o o o i D l r. Geoff Staines & Dr. Prinicipal Scientists / Co-inve l ntors, Patent Developed a method li l o l o ol i Brian P. Cluggish R&D Eingineers (Power 11,946,726 (Apr 2024) for sub-nanosecond i g g g t t t a y Electronicas) y synchronization of ya . . . c c multiple HPM sources, c r r r S o S o S o y y enabling a new class of y e m e m e m T c c T c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e Name(s) m eAssessed Role / Title Key Activity (Date) mTechneical Significance m nc c n c n r r coherent, rlong-range e e e o o directed energy o t t t M M M l l weapons. l o o o i i i l Gilberto F. Rodriguez, Engineeringl Manager & Co-inventors, Patent Designed a l i i i gt t g t g a et al. Design Team (aBattery 12,203,998 (Jan 2025) fault-tolerant battery a yr r y r y y Systems) y architecture to prevent y .T T . T . cascading failures, a ce e c e c critical step for oc c o c o S h S h ruggedizing S h mn n m n m e e high-energy batteries e o o o c l o c l o for military platforms. c l o 3. Agnalysis of R&D Vectors g g r r r e y e y e y . . . c c c t S Synthesizin o g the datat Sfrom GA-EMS's technology portfolio and the o recent acStivities of its key t o M M M e personnel revmeals severael clear and persistent R&D trajectories. Themse vectorse indicate a m c strategic focus on making cadvanced electromagnetic and directed energy systemcs smaller, i r ir r i l e more resilient, and more broaledly applicable to the modern battlefield. e l i i i t t M ttM t M t a a a i Vector 1: Aggressive Miniaturiization via Increased Power Density i r l i lri l i r t t t y a ya a y r A primary and sustained R&D vector at GrA-EMS is the drive to increase the energy density of r T y Ty y T T core components to reduce the overall size, Tweight, and power (SWaP) of its military systems. T e e e e This trend is not merely incremental; it is a cenetral pillar of their technology strategy, aimed at e c c cc c c enabling the deployment of high-power systems on platforms that were previously too small to h h h h nsupport them. The most direct evidence of this is thhen development of the High Energy Pulsed n h n oPower Container (HEPPC). The company explicitly staontes that the HEPPC "provides twice the o n l l l o enoergy density than existing railgun pulsed power solutioonos," allowing them to pack the power of o o g g g a 20-foot container into a 10-foot form factor. This system-level achievement was directly l y ly y l o enabled .by component-level breakthroughs, specifically the deov.elopment of capacitors with an . o c c c S g energy conotent exceedSing 415 kJ per unit, a greater than 20% incgroease overS their previous o g e m e m e m y record of 340 kJ. This vector is a critical enabler for expanding the apyplicability of their systems y c c c r . from large naval platforms tor mobile land-based vehicles and, potentiall.y, airborne rapplications, . e e e c c c t significantly broadening their adtdressable market within the Department of Defense. t M o M o M o S S S i i i l mVector 2: Maturation and Ruggeldization for Operational Environmenmts l m i i i e t e t te a a a c r c r rc y GA-EMS is demonstrably moving beyond ylaboratory prototypes to develop and test components y r T and systems desrigned to survive and functio T n in harsh military environments. This vector Tr e e e e ee indicates a focus on technology maturation and qualification. A prime example is the March c c c t t t h2022 test series for their gun-launched projectiles.h In this series, projectiles containing h M M M n n n "integrated gun-hardened guidance electronics" were fired from both an electromagnetic railgun o o o i anld a conventional 120 mmi powder gun. The explicit golal was to prove the survivability and li l o l o ol i functgionality of the electronics iand control systems under thge extreme G-forces (in excess of g i t t t a 30,000y Gs) and hypersonic velocaities of gun launch. Similarlyy, the 2025 patent for a "single cell ya . . . r fault toleracnt battery system" is focusred on operational resiliencec, aiming to prevent a single c r S o S o S o y point of failure from destroying an entirye energy storage system during a mission. This trajectory y e m e m e m T c c T c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e suggests thatm several of etheir core technologies are reaching a high mTechnologye Readiness m nc c n c n Level (TRL), likely TRL 6-8, making them viable candidates for integration into formal Programs r r r e e e o of Record. o o t t t M M M l l l o o o i l Vector 3: Strategic Pivot from Ki linetic to Directed Energy and Hypersonic i l i i i gt t g t g a Enablers a a yr r y r y y y y .T While the company's reputation in pulsed poTwer was built on the high-p.rofile Navy railgun T . ce e c e c program, its recent public-facing activity shows a significant diversification and potential pivot in oc c o c o S hits primSary application focus. Public communicatiohns regarding the development of railgun S h mnlauncher systems were most frequent in the 2016-20n18 timeframe. In contrast, r m ecent n m e e e o o o announcements and patents from 2020-2025 are heavily focused on High Energy Lasers (HEL), c l o c l o c l o exemplified by their partnership with Boeing to develop 100-300 kW class systems, and g g g r r r e advancyed High Po e wer Microwave (HPM) systems, as evidencyed by the 2024 patent on HPM e y . . . synchroniczation. Concurrently, the hypervelocity projectile techncology originally developed for c t S o tS o S t o M the railgun is now beingM tested and adapted for use in conventional powder guns, indicating a M e m e m e m c de-risking or diversificationc strategy. This pattern suggests a strategic realignmenct where the i l r e immense investment in puls i er lde power and hypervelocity projectile technology is beirneg leveraged i l i i i t t M to support a broader portfolio oftt n M ext-generation weapons. The core competencies aret M being t a a a applied to the demanding power and energy systems required for HELs and as a technology i i i r l i feeder for conventional hypersonic p lrriograms. l i r t t t y a ya a y r r r T y 4. Indicators & Warnings Ty y T T T T e e e e e e c c Analysis of GA-EMS's public R&D activities agaiccnst the established baseline reveals several c c h h h h anomalies and deviations. These inconsistencies cohuld serve as indicators of undisclosed or h n n n n oclassified program activity, where public-facing work pron ovides a partial or misleading picture of o n thleo company's full capabilities. l o l o o o o g g g l y ly y l o Indicato . r: Programmatic Decoupling and Strategic Siol . ence on Railgun Launchers . o c c c S g o S go S o g e A conspicuoums anomaly eexists in the public communications regardimng the elecetromagnetic m y y y c c c railgun program. While GA-EMS continues to announce progress on the guided, hypersonic r . r . r . e c projectiles originally designede for the railgun, with a major test series annocunced in Mearch 2022, c t t t M othere has been a notable absencMe of public announcements regarding progroess on theM railgun o S S S i launcher systems (the 10 MJ and 32i MJ platforms) since approximately 2018. The 2022 teist l m l m l m i i i e t notably inveolved firing the projectiles frtom conventional powder guns, publicly decoupling thet e a a a c r projectile fromc its original electromagneticr launcher. rc y y y r T This public separration of the two core compoTnents of the weapon system is highly significant. It Tr e e suggests one of tweo possibilities. The first, ande more benign, explanation is that the railgun ee c c c t launcher program protved to be a technological dead end, and GA-EMS is salvaging its t h h h M M M nsignificant investment in projectile R&D by adapting nit for use in existing artillery systems. The n o o o second, more compelling hypothesis is that the launcher program reached a sufficient i l i l li l o l o ol i Technology Readiness Level toi be transitioned into a formal, classified program of record. i g g g t t t a Under ythis scenario, the continue a d, public-facing testing of they projectiles in powder guns serves ya as an ex.ccellent cover. It allows GA-EMS and its government pa.rctners to continue maturing the . c r r r y S projectile's oguidance, c S ontrol, and datay link systems in an unclassiofied enviro S nment, while the o y e m e m e m T c true launcher platform—the c more sensitivTe and revolutionary part of the system— c remains "in T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e the black." Thmis is a comemon modality for compartmentalized develompment, deseigned to protect m nc c n c n the most critical aspects of a new capability while still leveraging open-air test ranges for less r r r e e e o sensitive subsystem maturation. o o t t t M M M l l l o o o i l Indicator: Advanced Capabilityi l Revealed in Niche Patent (HPM Synchronizatiioln) i i i gt t g t g a a a yr The April 2024 patent for "Synchronizatiorn of high power radiofrequeyncy sources" by technical r y y y y .T leads Staines and Cluggish describes a capTability that appears far more. advanced than a T . ce e c e c simple HPM weapon for point defense. The patent's core innovation is a method for the oc c o c o S hcohereSnt phasing of multiple, distributed HPM emihtters with sub-nanosecond accuracy, allowSing h mntheir pulses to combine on a target to achieve a greanter effect at longer range. Tmhis is the n m e e e o o o technological equivalent of a phased-array radar, but for directed energy weapons. c l o c l o c l o This patent reveals a research vector into a highly advanced, potentially offensive directed g g g r r r e energyy capability t e hat is not a prominent feature of GA-EMS'sy public marketing, which tends to e y . . . focus on icts missile defense portfolio. A "phased-array" HPM sysctem represents a significant c t S o tS o S t o M leap in complexity and Mmilitary utility, enabling effects to be focused at a distance with greater M e m e m e m c precision and power. The ecxistence of this patent, filed in mid-2022, indicates a dcedicated R&D i r effort that began years prior i .r The lack of public discussion around this specific netwrorking i l e le e l i i i t t M capability, coupled with its profottu M nd military implications, suggests it may be the subjetc M t of a t a a a sensitive, customer-funded program that requires a low public profile. i i i r l i lri l i r t t t y a ya a y Indicator: Anomalous Cross-Disciplinary Expertise on Core Hardware Patents r r r T y Ty y T T T T e A significant anomaly was identified in the inveentor list for the January 2025 patent for a e e e e c c fault-tolerant battery system. One of the co-invencctors is Corey John Jaskolski. His public profile c c h h h h is not that of a typical battery or power electronics ehngineer. He is the founder and CEO of h n n n n oSynthetaic, a leading synthetic data company, a Nationon al Geographic Fellow, and an expert in o n aplplying artificial intelligence to complex sensor data, wilth a documented history of work for l o o o o o o DARgPA and U.S. Special Operations Command (SOCOM).g g l y ly y l o The pres . ence of an elite AI and synthetic data expert on a pateo. nt for a fundamental hardware . o c c c S g component o like a batteSry is a strong indicator of a highly sophistic g a o ted, multi-Sdisciplinary R&D o g e approach. Thme patent is enot about battery chemistry, but about the pmhysical arcehitecture for m y y y c containing a failure. This scuggests the associated Battery Management System (cBMS) is not a r . r . r . e c simple controller but is likely aen AI-driven system that uses predictive modcels to maneage battery c t t t M ohealth, optimize power delivery uMnder extreme combat conditions, and modeol failure scMenarios. o S S S i It is plausible that GA-EMS is leveraiging Jaskolski's company's synthetic data capabilities ito l m l m l m i i i e t model ande simulate thousands of thertmal runaway or battle damage scenarios—events that taree a a a c r too expensivec or dangerous to test physicrally. This would allow them to rapidly iterate and rc y y y r T validate the desirgn of the physical safety feaTtures described in the patent. This level of R&D Tr e e sophistication, comebining advanced hardware edesign with cutting-edge AI and synthetic data ee c c c t generation, is a hallmtark of well-resourced, high-priority programs that often carry a high t h h h M M M nclassification. n n o o o i l i l li l Woorks cited l o ol i i i g g g t t t a y a y ya 1. Electro.magnetic Systems Group - General Atomics, https://w.ww.ga.com/about/ems 2. . c c c r r r S General Atoomics - WikSipedia, https://en.wikipedia.org/wiki/Generaol_Atomics 3S. General Atomics o y y y e m e m e m Delivers New Pulsed-power Container System to Navy, T c c T c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e https://www.gma.com/geneeral-atomics-delivers-new-pulsed-power-conmtainer-systeem-to-navy 4. m nc c n c n Pulsed Power - General Atomics, https://www.ga.com/pulsed-power 5. Railgun - Wikipedia, r r r e e e o https://en.wikipedia.org/wiki/Railgun 6. General Atomics Aonnounces Next Generation Railgun o t t t M M M l Pulsed Power Containers, l l o o o i l https://www.ga.com/general-atomicsi l-announces-next-generation-railgun-pulsed-power-coinltaine i i i gt t g t g a rs 7. General Atomics introduces improaved pulsed power container for US Navy's railgun, a yr https://www.navaltoday.com/2017/03/10/greneral-atomics-introduces-yimproved-pulsed-power-cor y y y y .T ntainer-for-us-navys-railgun/ 8. MULTI-MISSTION RAILGUN WEAPON S.YSTEM MULTI-M T . ce e c e c WEAPON - General Atomics, oc c o c o S hhttps:/S/www.ga.com/images/products/defense/misshile-defense/Mobile-Railgun-Weapon-SysStem_ h mnArmy_DS_1018E.pdf 9. Railgun Weapon Systems - nGeneral Atomics, m n m e e e o o o https://www.ga.com/railgun-weapon-systems 10. General Atomics Awarded Army Contract to c l o c l o c l o Advance Railgun Weapon System Technology, g g g r r r e https://ywww.ga.com e /general-atomics-awarded-army-contract-yto-advance-railgun-weapon-syste e y . . . m-technoclogy 11. General Atomics Railgun Projectiles Achieve Scuccess in New Series of c t S o tS o S t o M Critical Open Range TeMsting, M e m e m e m c https://www.ga.com/generacl-atomics-railgun-projectiles-achieve-success-in-new-cseries-of-critical i l r e -open-range-testing 12. GA- irEleMS Test Firings Advance Projectile Interceptor Desigrne - General i l i i i t t M Atomics, https://www.ga.com/gatt- M ems-test-firings-advance-projectile-interceptor-designt M 13. t a a a General Atomics Continues Testing of Railgun System - DSIAC - dtic.mil, i i i r l i https://dsiac.dtic.mil/articles/general- lraitomics-continues-testing-of-railgun-system/ 14. Gene l rial r t t t y a ya a y Atomics Completes Successful Open Range Testing of Railgun Projectile Guidance Electronics r r r T y Unit, Ty y T T T T e https://www.ga.com/general-atomics-completees-successful-open-range-testing-of-railgun-project e e e e c c ile-guidance-electronics-unit 15. Military (Mil-Speccc) Capacitors - General Atomics, c c h h h h https://www.ga.com/capacitors/military-mil-spec-caphacitors 16. Staines I, h n n n n ohttps://www.nist.gov/document/2007staines-ipdf 17. Hion gh Voltage Capacitors - General Atomics, o n htltops://www.ga.com/images/products/ep/capacitors/pdf/2l4o08_CAPACITORS_E.pdf 18. HIGH l o o o o VOLTgAGE CAPACITORS - General Atomics, g g l y ly y l o https://w.ww.ga.com/images/products/ep/capacitors/pdf/Capacoit.or_BC_0123E.pdf 19. Capacitor . o c c c S g Product Gu o ide - GeneSral Atomics, https://www.ga.com/capacitors/ go product-guSide 20. High energy o g e density capacmitors for puelsed power applications - SciSpace, m e m y y y c c c https://scispace.com/pdf/high-energy-density-capacitors-for-pulsed-power-applications-tomdo7l r . r . r . e e e c 370.pdf 21. High Energy Density Capacitors for Pulsed Power Applicationcs - DTIC, c t t t M ohttps://apps.dtic.mil/sti/tr/pdf/ADAM520257.pdf 22. (PDF) High energy density ocapacitorsM for o S S S i pulsed power applications - ResearichGate, i l m l m l m i i i e t a https://wwew.researchgate.net/publicatitoan/237593292_High_energy_density_capacitors_for_pt aules c r ed_power_apcplications 23. Advanced Carpacitors Double Railrun Energy Density - News - rc y y y r T EEPower, https:r//eepower.com/news/advancTed-capacitors-double-railrun-energy-density/ 24. Tr e e GA-EMS and Boe e ing Team to Develop 300kWe-class HELWS Prototype for US Army, ee c c c t hhttps://www.ga.com/gta-ems-and-boeing-team-to-dhevelop-300kw-class-helws-prototype-for-us-ar h t M M M nmy 25. Patents Assigned to General Atomics, n n o o o https://patents.justia.com/assignee/general-atomics 26. US Patent 11946726 Synchronization of i l i l li l o l o ol i high power radiofrequency, i i g g g t t t a https://ygolden.com/wiki/US_Patenat_11946726_Synchronizatioyn_of_high_power_radiofrequency ya . . . _sources-cKNG4EB8 27. [email protected] | Topics, c c r r r y S https://grouops.io/g/Rac S ingHistory/topicsy?page=393&after=122632o630600000 S 0000 28. Geoffrey o y e m e m e m T c W. Staines Inventions, Patcents and PatenTt Applications, c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m S S S S S S e e e e c e c c e r r r c e c e e c r t M r t M t M r e e e i i i l l l t i t i i t t t t M a M a a M r r r y y y i T i T T i l l l i e i e e i t t t c c c a a a h h h r n r n n r y o y o o y l l l T o T o o T g g g e y e y y e . . . c c c c c c S o S o S o h h h e https://patentsm.justia.come/inventor/geoffrey-w-staines 29. Merit draft mfact sheet e- OSTI, m nc c n c n https://www.osti.gov/servlets/purl/1046706 30. Proceedings of the High Megawatt Converter r r r e e e o Workshop - National, https://www.nist.gov/document/proceoedings-summarypdf 31. Session 4b - o t t t M M M l Staines II, https://www.nist.gov/system/files/documents/pml/hligh_megawatt/2007_Staines-II.pdf l o o o i l 32. Low-Insertion HVDC Circuit Breialker - ARPA-E, i l i i i gt t g t g a https://arpa-e.energy.gov/programs-anda-initiatives/search-all-projects/low-insertion-hvdc-circuait- yr breaker 33. Simulation of General Atomicrs Legacy GF-4 Capsule Irraydiation Test - American r y y y y .T Nuclear Society, https://www.ans.org/pubs/trTansactions/article-57051/ 3.4. General Atomics T . ce e c e c 30441R00022, Rev. B, "Reactor-Based, https://www.nrc.gov/docs/ML1713/ML17132A243.pdf oc c o c o S h35. GiSlberto F. Rodriguez Inventions, Patents and hPatent Applications, S h mnhttps://patents.justia.com/inventor/gilberto-f-rodriguenz 36. Fernando Rodriguez I m nventions, n m e e e o o o Patents and Patent Applications, https://patents.justia.com/inventor/fernando-rodriguez 37. c l o c l o c l o Поиск патентов, https://docsearch.ru/inventor/KR%C3%9CDENER%2C+Boris.html 38. g g g r r r e cpc=H0y1M2200/00 e Patents | PatentGuru, y e y . . . https://wwcw.patentguru.com/search?q=cpc%3DH01M2200%2F0c0&page=8 39. Gilberto c t S o tS o S t o M Rodriguez | General AtMomics, Inc. | Email, Engineering Manager, @ga.com, M e m e m e m c https://www4.lead411.comc/Gilberto_Rodriguez_56962007.html 40. General Atomcics New 10 MJ i l r e Railgun System Moves to D i ur lgeway for Testing, r e i l i i i t t M https://www.ga.com/general-atottm M ics-new-10-mj-railgun-system-moves-to-dugway-for-tte M sting 41. t a a a General Atomics Completes Guided Railgun Projectile Test - The Defense Post, i i i r l i https://thedefensepost.com/2022/03/ lr1i7/general-atomics-railgun-test/ 42. General Atomics t l oi r t t t y a ya a y Perform Additional Railgun Pulse Power Work, r r r T y https://www.ga.com/general-atomics-to-pe Tyrform-additional-railgun-pulse-power-work 43. y T T T T e General Atomics, Boeing Partner on High Eneergy Laser Weapon System, e e e e c c https://www.ga.com/general-atomics-boeing-partccner-on-high-energy-laser-weapon-system 44. c c h h h h General Atomics Electromagnetic Systems Highlighhts Its Missile Defense Portfolio at the 2025 h n n n n oSpace and Missile Defense Symposium, on o n htltops://www.ga.com/ga-electromagnetic-systems-highlighl ots-its-missile-defense-portfolio-at-the-2 l o o o o 025-gspace-and-missile-defense-symposium 45. General Atgomics Partners with Rafael to Build g l y ly y l o Precision.-Guided Missile for U.S. Defense Customers, o. . o c c c S g https://www o .ga.com/gaS-partners-with-rafael-to-build-precision-guid go ed-missileS-for-us-defense-cus o g e tomers 46. Comrey Jaskoleski - XPRIZE Foundation Bio, m e m y y y c c c https://www.xprize.org/about/people/corey-jaskolski 47. Mr. Maeda's Cozy AI Kitchen - AI & r . r . r . e e e c Exploration, with Corey Jaskolski - YouTube, c c t t t M ohttps://www.youtube.com/watch?Mv=e2W7AXHKEcs o M o S S S i i i l m l m l m i i i e t e t te a a a c r c r rc y y y r T r T Tr e e e e ee c c c t t t h h h M M M n n n o o o i l i l li l o l o ol i i i g g g t t t a y a y ya . . . c c c r r r S o S o S o y y y e m e m e m T c c T c T r r r e e e e e e t t t c M M c M c h i l i l h i l h i i i t t t n a a n a n r r r o y y o y o T T T l l l o e e o e o c c c g h h g h g n n n y y y o o o . l l . l . o o o c c c g g g o y y o y o . . . m c c m c m o o o m m m