Engineering Capabilities
Core Technologies
Six precision engineering domains. Each built from first principles, validated under extreme conditions, and delivered with full accountability.
DC-DC Converters & Power Systems
High-efficiency power conversion and management systems for industrial, aerospace, and EV applications — designed for reliability at the edge.
Power electronics is the foundation of every electronic system we build. Our power engineering team designs and develops DC-DC converters, AC-DC power supplies, inverters, and high-frequency magnetics from first principles — not from reference designs.
We specialise in high-efficiency topologies including LLC resonant converters, phase-shifted full-bridge designs, and synchronous rectification architectures. Our converters are characterised across temperature, load, and line conditions to meet the most demanding specifications.
For aerospace and defence applications, we design to MIL-grade derating standards with full thermal analysis, EMI filtering, and environmental stress screening. For industrial and EV applications, we optimise for efficiency, power density, and long-term reliability.
Capabilities
- DC-DC converters (isolated and non-isolated, 1W–10kW)
- AC-DC power supplies and rectifiers
- High-frequency magnetics design and characterisation
- EV charging systems and on-board chargers
- Battery management and power management ICs
- Aerospace-grade power conditioning units
- EMI/EMC design and compliance testing
- Thermal management and heat sink design
Key Specifications
Power Range
1W – 10kW
Efficiency
Up to 98%
Operating Temp
-55°C to +125°C
Standards
MIL-STD-461, DO-160
Mission-Critical Avionics & Defence Electronics
Rugged electronics and avionics subsystems engineered for the most demanding operational environments — from UAV platforms to ground-based defence systems.
Defence and aerospace electronics demand a different standard of engineering. Every component must be derated. Every solder joint must be inspected. Every system must survive vibration, shock, thermal cycling, and electromagnetic interference — and still perform its mission.
We develop avionics power systems, electronic control units, and mission hardware for unmanned aerial vehicles, ground-based platforms, and airborne systems. Our designs follow MIL-SPEC derating guidelines and are validated through environmental stress screening.
We work under strict confidentiality protocols. All defence engagements are covered by NDAs, and our IP protection practices ensure that client technology remains proprietary. We do not share design methodologies, schematics, or test data across programmes.
Capabilities
- Avionics power supply units (PSUs) for UAV and manned platforms
- Electronic control units (ECUs) for defence systems
- Rugged electronics for ground, airborne, and naval environments
- MIL-STD-461 EMI/EMC compliant designs
- Environmental stress screening and qualification testing
- Conformal coating and potting for harsh environments
- Failure mode and effects analysis (FMEA)
- Reverse engineering and obsolescence management
Key Specifications
Standards
MIL-STD-461/810/704
Environments
Ground, Airborne, Naval
Temp Range
-55°C to +125°C
Confidentiality
Full NDA Coverage
Antenna Design & Signal Chain Engineering
Microwave components, RF modules, and antenna systems engineered for precision signal performance across defence, radar, and communications applications.
RF and microwave engineering requires deep understanding of electromagnetic behaviour, transmission line theory, and signal integrity at high frequencies. Our RF team designs antenna systems, microwave components, and complete signal chains for defence and commercial applications.
We develop patch antennas, horn antennas, phased array elements, and custom antenna systems for specific frequency bands and radiation patterns. Our microwave component work includes filters, couplers, power dividers, and amplifier modules.
Signal chain engineering encompasses the complete receive and transmit path — from antenna to ADC or DAC — with careful attention to noise figure, dynamic range, linearity, and spurious suppression. We use industry-standard simulation tools and validate all designs with vector network analyser measurements.
Capabilities
- Patch, horn, and phased array antenna design
- Microwave passive components (filters, couplers, dividers)
- Low-noise amplifier (LNA) and power amplifier (PA) modules
- RF front-end module design and integration
- Signal chain analysis (noise figure, IP3, dynamic range)
- VNA characterisation and S-parameter measurement
- Frequency range: DC to 40 GHz
- Radar and electronic warfare subsystem support
Key Specifications
Frequency Range
DC – 40 GHz
Applications
Radar, EW, Comms
Simulation
EM + Circuit Co-sim
Validation
VNA + Anechoic Chamber
FPGA, High-Speed PCB & Embedded Controllers
Real-time embedded systems, FPGA-based signal processors, and high-speed PCB designs for defence, industrial, and aerospace applications.
Embedded systems engineering at Antariksh Dynamics spans the full stack — from hardware architecture and FPGA RTL design to firmware development and system integration. We design for determinism, reliability, and long-term supportability.
Our FPGA work covers Xilinx and Intel (Altera) device families, with expertise in high-speed interfaces (PCIe, Ethernet, JESD204B), DSP pipelines, and custom IP core development. We use VHDL and Verilog, with formal verification for safety-critical applications.
High-speed PCB design is a core competency — we handle multi-layer stackups, controlled impedance routing, differential pair management, and power integrity analysis. Our designs are validated with TDR measurements and eye diagram analysis before production.
Capabilities
- FPGA design (Xilinx/AMD, Intel/Altera) — VHDL and Verilog
- High-speed PCB design (up to 28 Gbps signal rates)
- Embedded firmware development (bare-metal and RTOS)
- DSP and signal processing pipeline design
- High-speed interfaces: PCIe, Ethernet, JESD204B, LVDS
- Power integrity and signal integrity analysis
- Custom IP core development and verification
- System integration and hardware-software co-design
Key Specifications
FPGA Families
Xilinx/AMD, Intel/Altera
Signal Rates
Up to 28 Gbps
Languages
VHDL, Verilog, C/C++
RTOS
FreeRTOS, Bare-metal
Simulation, Testing & Indigenous Development
First-principles research, simulation-driven design, and systematic reverse engineering to build sovereign technology capability.
Our R&D function is not a separate department — it is embedded in every project we undertake. We do not accept 'it works' as a sufficient answer. We model the physics, simulate the system, build the prototype, test it to destruction, and iterate until we understand exactly why it performs the way it does.
Reverse engineering is a significant part of our indigenous development work. We analyse imported systems and components to understand their design intent, then develop superior indigenous alternatives. This is not copying — it is understanding, then improving.
Our simulation capabilities span circuit-level SPICE simulation, electromagnetic field simulation, thermal analysis, and system-level modelling. We use these tools not just to predict performance but to explore design space and identify failure modes before hardware is built.
Capabilities
- Circuit simulation (SPICE, LTspice, Cadence)
- Electromagnetic simulation (HFSS, CST, Sonnet)
- Thermal analysis and CFD simulation
- System-level modelling and simulation
- Reverse engineering and technology analysis
- Environmental and reliability testing
- Indigenous technology development programmes
- Technology transfer and documentation
Key Specifications
Simulation Tools
SPICE, HFSS, CST
Testing
EMC, Thermal, Vibration
Focus
Indigenous Development
Output
IP-Protected Designs
Secure Communications & GIS-Enabled Systems
Electronic subsystems for operational environments — secure communications hardware, GIS-integrated platforms, and mission-critical system integration.
Mission systems engineering integrates electronics, communications, and software into coherent operational platforms. We develop the electronic subsystems that underpin secure communications, situational awareness, and command-and-control applications.
Our GIS-enabled systems combine geospatial data processing with real-time sensor integration to provide operational picture generation for defence and civil applications. We develop the hardware and firmware layers that interface with GIS software platforms.
Secure communications hardware development includes encryption-capable modules, frequency-hopping radio interfaces, and hardened communication terminals. All work in this domain is conducted under strict security protocols with appropriate clearances and NDAs.
Capabilities
- Secure communications hardware and encryption modules
- GIS-enabled situational awareness systems
- Command-and-control (C2) electronic subsystems
- Frequency-hopping and spread-spectrum radio interfaces
- Real-time sensor integration and data fusion
- Hardened communication terminals
- Electronic warfare support measures (ESM)
- System integration and field deployment support
Key Specifications
Security
Encryption-capable
Integration
GIS + Sensor Fusion
Protocols
Full NDA + Clearance
Deployment
Field-ready Systems
At a Glance
All Six Domains
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