Fusion Device Engineering

Design, construction, power (rating, output), integration, arming and detonation mechanism, blast radius, diagnostics and quantification of damage – a Michigan geographic study

Project planning

Device capacity 20 GWh till 100 GWh in 20 GWh increment (05 devices)

Region: Historically Underutilized Business (HUB) Zone, Michigan

Aim: Determine yield, energy output, detonation mechanism and sequence, fusion, transmutation products, type of radiations (including neutrons) produced, their effect on human, structures (civil (steel, concrete), mechanical) and atmosphere.

Further objective, (a) strengthen US national security (b) ascertain and quantify tests for propulsion and to build machinery to propel human space craft to space.

First detonation (surface detonation), early fall 2022 followed by each in every quarter or more, near surface, mid surface, far surface detonations. Near surface on steel pillar while mid and far are air drop using B 52 (high altitude stratospheric crafts (max lifting capacity: 70,000 lbs (~ 35 ton))

Design and construction of 100 MW Spherical Tokamak in Michigan – largest in US, first in michigan

REANALYSIS AND REVALIDATION OF atmospheric chemistry experiment Fourier transform spectrometer (ACE-FTS) satellite data

Solomon, S., Stone, K., Yu, P. et al. Chlorine activation and enhanced ozone depletion induced by wildfire aerosol. Nature 615, 259–264 (2023). https://doi.org/10.1038/s41586-022-05683-0

Wang, P., Solomon, S., Santer, B.D. et al. Fingerprinting the recovery of Antarctic ozone. Nature (2025). https://doi.org/10.1038/s41586-025-08640-9

Data and observations seems ambiguous as author has never been to Australia and have no experience of wildfires there. Contrary to this, applicant (myself) has PhD from Australia and resided there for more than two years and given the vastness of Australia and population and its density variation, can say with confidence that observations in this article are grossly flawed

Reanalysis of NASA’s indigenous (local) Mission to Martian Moons

https://www.nasa.gov/feature/nasa-selects-10-scientists-for-international-mission-to-martian-moons

A detailed analysis is performed of NASA’s mission to outer space (including extra terrestrial celestial bodies (e.g. Moon, Mars, its moons, Jupiter, its moons and alike)). This includes design of missions, machinery, probes, launch vehicles (rockets), instrumentation, telemetry, guidance and control. This is strictly limited to indigenous (local) resources (human and material) excluding involvement of any foreign (so called international) individuals (specially from banned countries as per Department of State).

Detailed reanalysis and data quantification of Ashton E; Gladman B; Beaudoin M; Alexandersen M; Petit J-M, “Discovery of the Closest Saturnian Irregular Moon, S/2019 S 1, and Implications for the Direct/Retrograde Satellite Ratio” , The Planetary Science Journal: 3(5), id.107 (5pp), May, 2022 [SCI]

MATERIALS FOR HIGH FIELD MAGNETS

Materials of construction for high field (>100 T) magnets

Non equatorial space launch pads

Geosynchronous orbits, projectiles, elliptical trajectories, velocities and slingshot

Artificial Intelligence

Deep learning, multitask learning, transfer learning (image acquisition, pattern recognition, layered information processing)

Materials for human space flight

Employing thermodynamics, kinetics and energetic of a chemical reaction (chemical metallurgy) in vacuum at high temperature (vacuum metallurgy) to process new materials from native / virgin metals (primary processing) as well as used materials / scrap by recycling (secondary processing) for human space flight.

a) Rare earths

b) Superalloys

c) Polymer composites

Development of Rockets

Development of reusable space vehicle that can shuttle between earth surface and its lower equatorial orbit. It will also serve the purpose of transportation of payloads (human and equipment) to its geostationary or geosynchronous orbits for further transportation to earth’s only natural satellite (moon).

It also encompasses development of auxiliary equipment (e.g solid rocket boosters, fuel tanks) for assisting lift off.

It will also involve research into development of optimization of previous technology by developing

1. self ignition engines for orbiter

2. linear aerospike engines

3. Air breathing / scram jet engines

Fusion

Development of plasma facing material by manipulation of crystal lattice promoting self interstitial solid solutions strengthening.

Bulk Metallic Glass Matrix Composites

71568ytCOEL

71syuFoDxyL

http://www.momentumpress.net/books/bulk-metallic-glasses-and-their-composites-additive-manufacturing-and-modeling-and-simulation

Fire Fighting Pumping Unit (FFPU)

Design and development of fire fighting (Alarm, Hydrant, sprinkler, and pumping unit(s)) Systems for fire detection and protection in multistory buildings and industry.

Hydrants and Sprinklers

Design, calculations, layout, CAD drawing preparation and tendering of Fire hydrant and Fire sprinklers system(s) in buildings, localities/towns and industry as per NFPA and/or custom Standards

Services include

Optimum water resource determination
Selection of suitable fire protection (single and/or combination) systems according to nature of hazard, area occupancy, building type etc.) as per NFPA and/or custom standards
Complete selection, determination (dry and/or wet) and layout of piping (single and/or branched) network as per NFPA and/or custom standards
Piping calculations (selection of pipe type and size) as per NFPA, API and/or custom standards
Determination of hydrant requirement (nature and type of cabinet and hose real selection and calculations)
Plumbing work (calculations, selection and determination of elbows, connectors, reducers, expanders, joints)
Determination of water requirement
Pumping requirements calculations and selection of pump/pump set(s) (pressure maintenance/boosting units)
Design (nature and type) and positioning of water storage tank
Complete design and manufacturing of pressure maintenance/boosting units including their size and positioning

Fire fighting pumping unit (FFPU)

Design, Development, Engineering (calculations, analysis (mechanical, electrical, thermal, flow, stress, noise etc.), CAD drawing preparation, Tendering, Procurement, Manufacturing/Fabrication, Installation, Testing and Commissioning after sale services of fire fighting pumping unit consisting of

Primary Pump (Electrical)
Backup Pump (Diesel engine driven)
Pressure compensating/Jockey Pump (Electrical)