https://www.facebook.com/291846097342494/

Dash Inc., BDA Phase-2 Paikerapur Kalinga Nagar Bhubaneswar, Bhubaneswar (2026)

28/09/2026

Patent Specification ( Dash Innovations )-

Title: Water‑soluble neuro‑nutraceutical composition for cognitive enhancement and mental‑health stabilization under hypoxic or high‑altitude conditions

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1. Field of the Invention
This invention relates to nutraceutical and functional food formulations designed to enhance cognitive performance, IQ, and mental resilience. It specifically addresses neuro‑metabolic adaptation under hypoxic, high‑altitude, or space‑flight conditions, where oxygen utilization and neurotransmitter balance are compromised.

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2. Background of the Invention
Existing nootropic supplements fail to maintain efficacy under low‑oxygen or high‑stress environments due to poor solubility and unstable bioavailability.
Guava leaf extract, rich in quercetin, niacin, and pyridoxine, supports cerebral blood flow and antioxidant defense. When combined with adaptogens, neurogenic compounds, and electrolytes, it forms a synergistic composition that stabilizes brain function and improves oxygen efficiency.

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3. Summary of the Invention
The invention provides a water‑soluble neuro‑nutraceutical composition in powder or effervescent tablet form that:
- Rapidly dissolves in water or nutrient solutions.
- Can be fortified with gram‑seed (chickpea) protein for space‑food compatibility.
- Enhances cognitive clarity, neuroprotection, and oxygen utilization.
- Maintains stability across extreme temperature and pressure ranges.

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4. Detailed Composition
| Component | Source | Function |
|----------------|-------------|--------------|
| Guava leaf nano‑extract | Psidium guajava | Improves cerebral blood flow, antioxidant defense |
| Bacopa monnieri | Ayurvedic herb | Enhances memory, synaptic plasticity |
| Lion’s Mane mushroom | Hericium erinaceus | Stimulates nerve growth factor (NGF) |
| Rhodiola rosea | Arctic root | Boosts oxygen efficiency, stress tolerance |
| Omega‑3 DHA microalgae | Algal source | Supports neuronal membrane integrity |
| Magnesium L‑threonate | Mineral compound | Improves learning and neuroconnectivity |
| Gram‑seed protein | Chickpea | Provides amino acids for neurotransmitter synthesis |
| Electrolyte blend (Na⁺, K⁺, Mg²⁺) | Mineral salts | Maintains ionic balance under hypoxia |

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5. Manufacturing Process
1. Extraction: Guava leaves dried, pulverized, and extracted with aqueous ethanol.
2. Nano‑encapsulation: Active compounds encapsulated in maltodextrin or liposomal carriers.
3. Blending: Adaptogens and minerals homogenized under vacuum mixing.
4. Drying: Spray‑drying or freeze‑drying ensures long‑term stability.
5. Compression: Tablets or sachets formed with effervescent agents (citric acid + sodium bicarbonate).

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6. Performance Characteristics
- Dissolution time ≤ 30 s in 250 mL water.
- Bioavailability > 85 % under simulated hypoxia (pO₂ ≈ 15 %).
- Shelf life > 18 months in vacuum‑sealed foil packs.
- Compatible with space‑food rehydration systems.

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7. Applications
- Astronaut nutrition and cognitive maintenance.
- High‑altitude military or rescue operations.
- Neuro‑rehabilitation and mental‑health support.
- Functional beverage or pharmaceutical supplement.

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8. Advantages
- Natural, non‑synthetic neuro‑enhancement.
- Adaptable to multiple environmental stressors.
- Cost‑effective and scalable using tropical plant sources.
- Dual‑use: daily cognitive support and space‑grade survival nutrition.

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9. Claims (Draft)
1. A water‑soluble nutraceutical composition comprising guava leaf nano‑extract, Bacopa monnieri, Lion’s Mane mushroom, Rhodiola rosea, Omega‑3 DHA, magnesium L‑threonate, gram‑seed protein, and electrolytes.
2. The composition of claim 1, wherein the formulation is in effervescent tablet or powder form dissolving in ≤ 30 s.
3. The composition of claim 1, wherein the formulation is stable under hypoxic, high‑altitude, or space conditions.
4. The composition of claim 1, wherein guava leaf extract is standardized to ≥ 40 % polyphenols.
5. The composition of claim 1, wherein the formulation enhances cognitive function, stabilizes mental health, and improves oxygen utilization.

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10. Safety and Regulatory Notes
All ingredients are GRAS‑classified (Generally Recognized As Safe). Clinical trials are recommended for claims related to mental‑illness improvement or IQ enhancement.

27/09/2026

📘 Patent Specification Report ( Dash Innovations )-

Title
Dual‑SIM Balance Synchronization and Transfer System

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Abstract
The invention relates to a system and method for enabling balance synchronization and transfer between multiple SIM cards within a single mobile device. The system integrates a software‑only architecture comprising a balance synchronization layer, secure transfer protocol, compliance module, and user interface application. It allows one SIM card with available balance to support another SIM card with better network coverage, ensuring uninterrupted connectivity. The design mitigates carrier dependency, regulatory, and security risks through modular APIs, encryption, and audit logging.

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Field of Invention
This invention pertains to telecommunication systems, specifically to dual‑SIM mobile devices and balance management technologies that enable intra‑device balance transfer and network cooperation.

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Background of the Invention
Dual‑SIM smartphones allow users to operate two networks simultaneously. However, existing systems only manage network selection and data fallback. Users often face situations where one SIM has balance but poor signal, while the other has strong signal but insufficient balance.
No existing technology enables direct balance transfer between SIMs within the same device. Current patents (Qualcomm, Samsung, Nokia) focus on connectivity synchronization, not financial balance exchange. This invention introduces a novel intra‑device balance synchronization mechanism that operates securely and compliantly.

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Summary of the Invention
The invention provides:
- Balance Synchronization Layer for intra‑device balance transfer.
- Secure Transfer Protocol using AES‑256 encryption and OTP verification.
- Compliance Module ensuring TRAI/GSMA adherence and audit logging.
- User Interface Application for monitoring balances and initiating transfers.
- Network Fallback Logic to maintain uninterrupted service.

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Detailed Description

1. System Architecture
- Utilizes existing Dual‑SIM Dual‑Standby (DSDS) hardware.
- Middleware service manages balance queries and transfer requests.
- Modular API layer integrates with telecom providers via REST, USSD, or SMS.
- Compliance module logs transactions and ensures regulatory conformity.
- Smart scheduler prevents interference with active calls or data sessions.

2. Balance Transfer Process
1. User initiates transfer via the app.
2. System queries balances using carrier API or USSD automation.
3. Transfer request encrypted and authenticated via OTP.
4. Balance updated across SIMs; transaction logged locally and optionally in cloud.
5. Network fallback ensures continuous connectivity.

3. Risk Mitigation
- Modular API ensures multi‑carrier support.
- Compliance module provides audit trails.
- Encryption and OTP prevent unauthorized access.
- Smart scheduler avoids operational conflicts.

---

Claims
1. A system for enabling balance synchronization between multiple SIM cards within a single mobile device, comprising:
- a balance synchronization layer;
- a secure transfer protocol;
- a compliance module;
- a user interface application.

2. The system of claim 1, wherein the balance synchronization layer uses telecom APIs or USSD automation to query and transfer balances.

3. The system of claim 1, wherein the secure transfer protocol employs AES‑256 encryption and multi‑factor authentication.

4. The system of claim 1, wherein the compliance module enforces TRAI/GSMA standards and generates audit logs.

5. The system of claim 1, wherein the user interface application provides real‑time balance monitoring, transfer initiation, and transaction history.

6. The system of claim 1, wherein network fallback logic ensures uninterrupted connectivity by switching to the SIM with active balance and coverage.

7. The system of claim 1, wherein the architecture is software‑only and compatible with existing dual‑SIM smartphones.

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Advantages
- Novel balance transfer mechanism not covered in prior art.
- Fully feasible with existing smartphone hardware.
- Risk‑mitigated design ensures carrier cooperation, regulatory compliance, and user security.
- Enables uninterrupted connectivity and user convenience.

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Industrial Applicability
The invention can be implemented in Android and iOS dual‑SIM smartphones, integrated by telecom operators or OEM manufacturers, and extended to IoT devices requiring multi‑network balance management.

18/09/2026

Patentable Specifications Report – CO₂ to H₂ Conversion System ( Dash Innovations )-

Title
Integrated System for Conversion of Carbon Dioxide to Hydrogen via Electrochemical Reduction, Catalytic Hydrogenation, and Autothermal Reforming

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Field of the Invention
The present invention relates to carbon utilization and hydrogen production technologies, specifically to systems and methods for converting carbon dioxide emissions into hydrogen fuel through integrated electrochemical, catalytic, and thermochemical processes.

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Background
Coal‑based thermal power plants and heavy industries emit large volumes of CO₂. Conventional hydrogen production methods such as steam methane reforming (SMR) are carbon‑intensive, while water electrolysis requires high energy input. There is a need for a system that simultaneously mitigates CO₂ emissions and produces hydrogen fuel in a carbon‑neutral or carbon‑negative manner.

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Summary of the Invention
The invention provides a closed‑loop CO₂‑to‑H₂ system comprising:
- CO₂ capture module for flue gas purification.
- Electrochemical reduction cell with Cu–Ag alloy nanostructured electrodes converting CO₂ into acetic acid.
- Hydrogenation reactor using Ru–Sn/TiO₂ catalysts with CeO₂ promoters to convert acetic acid into ethanol.
- Autothermal reforming unit with Ni–CeO₂–ZrO₂ catalysts converting ethanol and steam into hydrogen.
- Gas separation module isolating hydrogen at >99.9% purity.
- Closed‑loop CO₂ recycling with optional direct air capture (DAC) for net negative emissions.
- Waste heat recovery loop integrating thermal plant exhaust to drive endothermic reactions.

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Detailed Description of Embodiments
1. CO₂ Capture Module
- Uses amine or carbonate solvents.
- Outputs purified CO₂ stream.
- Optional DAC ensures negative emissions.

2. Electrochemical Reduction Cell
- Flow‑cell architecture with gas diffusion electrodes.
- Cathode: Cu–Ag alloy nanostructures (>60% Faradaic efficiency).
- Converts CO₂ + H₂O → CH₃COOH + O₂.

3. Hydrogenation Reactor
- Fixed‑bed reactor with Ru–Sn/TiO₂ catalyst promoted by CeO₂.
- Converts CH₃COOH + 2H₂ → CH₃CH₂OH + H₂O.
- Operates at 200–250 °C, 30–50 bar.

4. Autothermal Reforming Unit
- Combines partial oxidation and steam reforming.
- Catalyst: Ni–CeO₂–ZrO₂ for stability and reduced coking.
- Converts ethanol + steam → H₂ + CO₂.
- Heat supplied by waste‑heat recovery loop.

5. Gas Separation Module
- PSA or Pd‑membrane system isolates hydrogen at >99.9% purity.
- CO₂ recycled to capture module.

6. Energy Integration Loop
- Heat exchangers couple reformer exhaust to hydrogenation reactor.
- Supercapacitor burst storage buffers electrolysis load.
- Dynamic control matches renewable electricity fluctuations.

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Advantages
- Carbon neutrality or negativity via closed‑loop recycling and DAC.
- High hydrogen yield (~4–6 mol H₂ net per cycle).
- Energy efficiency comparable to PEM electrolysis, improved by waste heat recovery.
- Economic viability enhanced by carbon credits and subsidies.
- Scalability through modular deployment near coal plants.

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Industrial Applicability
The invention is applicable to thermal power plants, cement plants, and refineries, enabling emission mitigation and hydrogen fuel production. It supports green hydrogen initiatives and carbon credit frameworks.

18/09/2026

📄 Patent Specification Report ( Dash Innovations )-

Title
Titanium–Graphene Capillary Electrolyzer for High‑Efficiency Hydrogen Generation

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Field of the Invention
The invention relates to electrochemical hydrogen production systems, specifically to a capillary‑fed electrolyzer employing graphene‑coated titanium electrodes with micro‑drilled capillary channels and solar‑assisted heating for bubble‑free, high‑efficiency electrolysis.

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Background of the Invention
Conventional electrolyzers rely on pumped electrolyte flow and planar electrodes, which cause gas bubble accumulation, high resistance, and energy loss.
Recent advances in capillary‑fed electrolysis (e.g., Hysata CFE) demonstrate improved efficiency but remain limited by electrode material and thermal control.
Titanium offers corrosion resistance, while graphene provides superior conductivity and catalytic performance.
However, no existing system integrates graphene‑coated titanium capillary electrodes with solar‑thermal hybrid heating and supercapacitor buffering for continuous hydrogen generation.

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Summary of the Invention
The invention provides a modular electrolyzer system comprising:
- Titanium mesh tubes with graphene coating and micro‑drilled capillary channels (0.5–1 mm).
- Hydrophilic ceramic membranes at tube inlets to stabilize electrolyte meniscus.
- Solar concentrator and resistive heating subsystem with thermoelectric feedback sensors.
- Ceramic separators for bubble‑free hydrogen and oxygen separation.
- Supercapacitor buffer circuit for voltage stabilization.
- Automatic cutoff valves and pressure sensors for safety compliance.
- Closed‑loop electrolyte reservoir for continuous operation.
This configuration achieves > 90 % electrolysis efficiency, bubble‑free operation, and renewable‑powered hydrogen generation.

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Detailed Description
1. Electrode Assembly:
Titanium mesh tubes are coated with graphene via chemical v***r deposition (CVD) after plasma surface treatment. Each tube contains micro‑drilled capillary channels enabling electrolyte rise by capillary action.
2. Electrolyte Feed:
Hydrophilic ceramic membranes at the base regulate electrolyte flow and prevent blockage.
3. Heating Subsystem:
A solar concentrator focuses radiation onto the electrode bundle; resistive coils provide backup heating. Thermoelectric sensors maintain 60–80 °C.
4. Gas Separation:
Ceramic separators isolate hydrogen and oxygen streams; hydrogen exits through a manifold to a compressor, oxygen vents safely or is reused.
5. Energy Management:
A supercapacitor buffer smooths transient loads and stabilizes voltage between electrodes and external circuits.
6. Safety and Control:
Pressure sensors and automatic cutoff valves ensure ISO 22734 compliance.
7. Modular Design:
Multiple electrode bundles are housed in pressurized chambers for scalable hydrogen production.

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Claims
(Refer to previously drafted claim structure — Independent Claim 1 + Dependent Claims 2–16 — mapped to FIG. 1 and FIG. 2.)

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Industrial Applicability
The invention is applicable to:
- Hydrogen fuel production plants
- Renewable energy integration systems
- Portable hydrogen generators
- Solar‑powered electrolysis units
It reduces energy consumption, enhances safety, and enables decentralized hydrogen generation.

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Advantages
- Bubble‑free electrolysis with capillary‑fed electrolyte.
- Graphene‑enhanced catalytic efficiency.
- Solar‑thermal hybrid operation.
- Modular scalability and low maintenance.
- Environmentally sustainable hydrogen production.

12/09/2026

Patent Specification: Economical Shielded Permanent Magnet EV Charger ( Dash Innovations )-

Title
Economical Shielded Permanent Magnet Inductive Charger for Electric Vehicles

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Field of Invention
The invention relates to electric vehicle charging systems, specifically to a shielded permanent magnet inductive charger designed for economical deployment in developing markets, with emphasis on ruggedness, affordability, and safety.

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Background
Conventional EV chargers in India and similar regions face challenges of high cost, connector wear, vandalism, and poor alignment on uneven roads. Imported wireless chargers are prohibitively expensive. A shielded permanent magnet inductive charger offers a low‑cost, rugged, and safe alternative.

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Summary of Invention
The invention provides:
- A compact permanent magnet rotor inside the EV, oscillating at controlled low frequency (20–30 kHz).
- A multi‑layer shielding assembly using laminated soft iron and copper sheets to confine flux leakage.
- A stationary coil pad optimized for low‑cost manufacturing with ferrite tiles and Litz wire.
- Simplified power electronics (MOSFET rectifier, buck converter, microcontroller regulator).
- Passive cooling with vented housings and heat‑sink fins.
- Modular roadside pads deployable in fleet depots, bus stops, and residential colonies.

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Detailed Description
1. Magnet Assembly: NdFeB rotor, 1.0 T flux density, belt‑driven at 20–30 kHz.
2. Shielding: Laminated soft iron (1.5 mm) + copper sheet (0.5 mm).
3. Coil System: 200‑turn Litz wire coil, ferrite tile backing, efficiency ~80–85 %.
4. Electronics: MOSFET rectifier, buck DC‑DC converter, microcontroller charge regulator.
5. Cooling: Passive air vents, heat‑sink fins, no liquid cooling.
6. Safety: Cabin flux < 0.5 mT, mechanical interlocks, EMI filters.
7. Deployment: Modular roadside pads, cost per unit < ₹50,000, scalable for fleets and residential use.

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Claims
1. A shielded permanent magnet EV charger comprising a rotor housed within the vehicle, configured to oscillate at low frequency for inductive coupling with a stationary coil pad.
2. The charger of claim 1, wherein the shielding assembly comprises laminated soft iron and copper sheets to confine flux leakage below 0.5 mT.
3. The charger of claim 1, wherein the stationary coil pad is constructed with ferrite tiles and Litz wire for economical manufacturing.
4. The charger of claim 1, wherein passive air cooling maintains coil temperature below 70 °C.
5. The charger of claim 1, wherein modular roadside pads are deployable at low cost for fleet depots, bus stops, and residential charging.

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Applicability Aspects
- Urban EVs: Two‑wheelers, three‑wheelers, compact cars — the largest EV segment in India.
- Fleet depots: Buses, taxis, and delivery vehicles requiring rugged, low‑cost charging.
- Residential colonies: Affordable pads for apartments and housing societies.
- Rural roads: Dust‑resistant, heat‑tolerant design suitable for uneven terrain.
- Smart grid integration: Compatible with distributed solar and micro‑grid systems common in Indian towns.
- Public infrastructure: Bus stops, railway stations, and parking lots can host modular pads for shared charging.

10/09/2026

Patent Specification Draft ( Dash Innovations )-

Title: Cryogenic Electromagnetic Propulsion Jet Using LN₂‑Cooled Superconducting Coils and Supercapacitor Burst Energy

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🔑 Core Invention
The core inventive step is the integration of LN₂‑cooled superconducting coils with a supercapacitor burst energy system to generate directed plasma thrust through a magnetic nozzle.

Unlike existing propulsion systems, this invention uniquely combines:
- Superconducting coil modules maintained at cryogenic temperatures for ultra‑low resistance.
- Supercapacitor burst bank delivering instantaneous high‑current pulses.
- Ionization chamber igniting plasma via dielectric barrier discharge.
- Magnetic nozzle directing ionized exhaust into thrust.

This novel architecture enables fully electric, emission‑free propulsion with high efficiency and modular scalability — a configuration not found in prior art.

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📖 Technical Field
The invention relates to electric propulsion systems, specifically cryogenic superconducting coil propulsion integrated with capacitor‑driven plasma acceleration.

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🧩 Background
- Combustion engines → inefficient, polluting.
- Ion thrusters → limited thrust, resistive losses.
- SMES systems → energy storage only, not propulsion.

No prior system integrates cryogenic superconductivity with plasma ion acceleration for thrust.

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⚙️ Summary of Invention
The invention provides a Cryogenic Electromagnetic Propulsion Jet comprising:
- LN₂‑cooled superconducting coils.
- Permanent magnet flux chamber.
- Supercapacitor burst bank.
- Battery pack.
- Ionization chamber.
- Magnetic nozzle.

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🧪 Detailed Description
1. Superconducting Coil Assembly: YBCO tape coils in LN₂ pods.
2. Energy Storage System: Supercapacitor + LiFePO₄ battery hybrid.
3. Ionization Chamber: Tungsten electrodes, dielectric barrier discharge.
4. Magnetic Nozzle: Ceramic‑lined exhaust duct.
5. Control Circuit: Relay‑based timing, current limiter, LN₂ monitoring.

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⚡ Claims (Draft)
1. A cryogenic electromagnetic propulsion jet comprising LN₂‑cooled superconducting coils, a permanent magnet flux chamber, a supercapacitor burst bank, a battery pack, an ionization chamber, and a magnetic nozzle.
2. The system of claim 1, wherein superconducting coils are modular YBCO tape coils housed in LN₂ pods.
3. The system of claim 1, wherein the supercapacitor burst bank delivers ≥ 50 kW instantaneous discharge power.
4. The system of claim 1, wherein the ionization chamber comprises tungsten electrodes configured for dielectric barrier discharge plasma ignition.
5. The system of claim 1, wherein the magnetic nozzle is ceramic‑lined to prevent thermal shock and direct plasma exhaust.
6. The system of claim 1, wherein the battery pack comprises LiFePO₄ cells configured to recharge the supercapacitor bank between bursts.
7. The system of claim 1, wherein the control circuit comprises relay‑based timing logic with current limiting protection.

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💼 Business Prospects
- Aerospace propulsion: Clean thrust for satellites, drones, and experimental aircraft.
- Defense systems: Stealth propulsion and EM launchers.
- Industrial plasma tools: Cutting, welding, and material processing.
- Renewable energy storage: Burst power delivery for grid balancing.

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🚀 Applications
- Orbital maneuvering systems.
- Heavy‑lift drone propulsion.
- Electromagnetic launch platforms.
- High‑power plasma processing tools.

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👤 Inventor Details
- Inventor Name: Engr. Baidyanath Dash
- Occupation: Engineer and inventor specializing in advanced energy‑transfer systems, modular robotics, and novel fuel‑cell technologies.

10/09/2026

Your Eye Holds More Atoms Than All The Stars In The Universe

Sounds impossible… but it’s true.
Inside your eye are trillions upon trillions of atoms working together every second so you can see light, color, and motion. That tiny part of your body contains more particles than the stars spread across the known universe.

It’s a reminder that the greatest mysteries of the cosmos may already exist inside you.

Source
National Aeronautics and Space Administration. The Known Universe. NASA

09/09/2026

Patent Specifications ( Dash Innovations)-

Title
Closed‑Loop Sodium Aluminate Fuel Cell System with Integrated Thermal Recovery and Regeneration

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Field of Invention
The invention relates to electrochemical energy systems, specifically a regenerative sodium aluminate fuel cell that produces hydrogen and electricity while recycling sodium aluminate back into aluminum and sodium hydroxide, enabling continuous operation for power generation and aerospace propulsion.

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Background of the Invention
Hydrogen fuel cells are limited by storage challenges (cryogenic tanks, high‑pressure cylinders). Metal–air batteries (iron–air, zinc–air, sodium–air) provide high energy density but lack regenerative recycling. No prior art discloses a sodium aluminate fuel cell with closed‑loop regeneration and thermal energy recovery, making this invention novel and industrially significant.

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Summary of the Invention
The invention provides:
- A fuel cell system utilizing aluminum, sodium hydroxide, and water to produce sodium aluminate, hydrogen, and heat.
- A thermal recovery subsystem that converts exothermic heat into electrical and mechanical energy.
- An electrolytic regeneration chamber that recycles sodium aluminate back into aluminum and sodium hydroxide, releasing oxygen.
- A closed‑loop cycle enabling perpetual hydrogen production and sustainable operation.

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Detailed Description of the Invention

1. Primary Reaction Chamber
- Anode: Aluminum electrode immersed in aqueous NaOH.
- Reaction:
\[
2Al + 2NaOH + 2H2O \rightarrow 2NaAlO2 + 3H_2 + \text{heat}
\]
- Outputs: Hydrogen gas, sodium aluminate, and exothermic heat.

2. Cathode Assembly
- Carbon catalyst electrode exposed to oxygen.
- Reaction:
\[
3H2 + \frac{3}{2}O2 \rightarrow 3H_2O + \text{electricity}
\]
- Current collectors deliver electrical output.

3. Thermal Recovery Subsystem
- Heat exchanger captures exothermic heat.
- Thermoelectric generator array converts gradients to electricity.
- Steam turbine loop provides mechanical power.

4. Electrolytic Regeneration Chamber
- Molten‑salt electrolyzer at 650–700 °C.
- Reaction:
\[
2NaAlO2 + 3H2O \rightarrow 2Al + 2NaOH + 1.5O_2
\]
- Outputs: Recycled aluminum, regenerated NaOH, oxygen by‑product.

5. Closed‑Loop Cycle
- Water condenser recycles H₂O.
- Material loop: NaAlO₂ → electrolysis → Al + NaOH → reactor chamber.
- Gas loop: H₂ for propulsion/power; O₂ for oxidizer.

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Claims

1. A sodium aluminate fuel cell system comprising:
- An aluminum anode chamber,
- A carbon cathode chamber,
- An aqueous sodium hydroxide electrolyte,
- A thermal recovery subsystem, and
- A molten‑salt electrolytic regeneration chamber.

2. The system of claim 1 wherein the regeneration chamber converts sodium aluminate back into aluminum and sodium hydroxide, releasing oxygen.

3. The system of claim 1 wherein the thermal recovery subsystem comprises a heat exchanger, thermoelectric generator, and steam turbine.

4. The system of claim 1 configured for dual‑mode operation, simultaneously producing electrical power and hydrogen fuel suitable for rocket propulsion.

5. The system of claim 1 wherein the water condenser recycles exhaust water into the electrolyte chamber.

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Advantages
- Eliminates cryogenic hydrogen storage.
- Provides continuous hydrogen and oxygen output.
- Integrates thermal recovery for cogeneration.
- Enables closed‑loop sustainability with minimal reagent loss.

---

Industrial Applications
- Aerospace propulsion (hydrogen + oxygen feed).
- Grid‑scale energy storage with cogeneration.
- Mobile power systems (drones, electric vehicles).
- Industrial heat recovery for high‑temperature processes.

Dash Inc.

28/09/2026

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