Most electrical engineering education stops at theoretical differential equations. When building actual hardware, engineers face parasitic inductances, MOSFET switching deadtime, ADC sampling noise, and thermal constraints.
Pulse TechX was created by Antu Roy & Bapi Biswas to provide complete, open-access engineering modules—from circuit simulation and DSP firmware architecture to physical hardware PCB validation.
Comprehensive modules covering basic electrical fundamentals, advanced modulation, DSP firmware, and physical hardware prototypes.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Comprehensive engineering modules, circuit simulations, and DSP firmware derivations.
Custom power converter design, PCB optimization, and TI DSP firmware consultation.
Below are Specialized Services in Power Electronics & Embedded Control, Covering Single-Phase Grid-Connected PV Inverters with PR Control, FOC Control of Three-Phase Induction Motor Using SVPWM, DC Motor Control with ePWM, Gate Driver Circuit Design, Three-Phase Inverter Implementation, as well as Optimization & Monitoring Strategies in Smart Grid Systems.
Developed a Single-Stage Inverter System Integrated with Advanced Control Strategies for Efficient Power Transfer from PV to Grid, Including PR Control & LCL Filter Design. Optimized Inverter Control Techniques on TMS320F2837xD to Ensure Superior Conversion Efficiency & Operation While Assessing Performance Across Diverse Environmental, Grid & Operational Scenarios.
Developed, Analyzed & Simulated FOC-Based Control Techniques for a Three-Phase Induction Motor in MATLAB/Simulink, Integrating SVPWM Implementation on TMS320F2837xD for Enhanced Motor Control. Designed & Refined Control Strategies on TMS320F2837xD to Deliver Accurate Speed Control, Achieving Optimal Efficiency & Stable Dynamic Behavior Across Different Load Scenarios.
This Service Demonstrates a Comprehensive Understanding of the UCC23513DWYR Gate Driver & Its Application in Inverter Systems. The Circuits are Designed to Efficiently Drive Power Switches in High-Frequency Operations, Offering Fast Switching, Strong Isolation & Enhanced Noise Immunity. The UCC23513DWYR is Essential in Power Electronics Applications Like DC-DC Converters, Inverters & Motor Drives.
Mathematical papers, register-level TI C2000 firmware, and laboratory validated schematics.
A comprehensive technical derivation of the Step-Down Buck Converter in Power Electronics, including operating modes, volt-second balance, CCM analysis, inductor current ripple, an...
A Boost Converter steps up an unregulated DC input voltage $V_{in}$ to a higher regulated output voltage $V_o = \frac{V_{in}}{1 - D}$. The transfer function exhibits an RHP zero $\...
Hardware prototypes, inverters & TI DSP firmware builds
Comprehensive open-access electrical & embedded tracks
Guided student capstones & competitive GATE research
Physical scope captures & thermal stress validations
Practical deep dives into power converter topologies, DSP register configurations, and hardware troubleshooting.
The passionate engineers, researchers, and creators behind PulseTechX open-source initiatives.
Specializes in real-time embedded control on TI C2000 (TMS320F28379D), Space Vector PWM implementations, hardware-in-the-loop (HIL) testing, isolated gate drivers, and grid-connected inverter development.
Guides system-level modeling, magnetics design, AC circuit theorems, high-power converter testing, and competitive exam architectures (GATE/JEE Electrical).
Find clear answers regarding learning materials, hardware simulation files, and engineering collaboration.
Traditional courses focus solely on ideal differential equations. PulseTech covers the full transition into physical silicon—including real gate-drive switching delays, Texas Instruments C2000 DSP register firmware, thermal dissipation limits, and PCB layout parasitic reduction.
All Code Composer Studio (CCS) project code, register initialization routines, and ePWM deadband examples are freely accessible directly from our GitHub repositories and under the TI F2837x Microcontroller course section in the navigation menu.
Yes. Our online LCL Filter, Duty Cycle, and Thermal Heatsink calculators use industry-standard continuous conduction mode (CCM) boundary equations, switching loss estimation formulas, and resonance damping limits validated against physical lab hardware.
Absolutely! We encourage power electronics researchers, embedded engineers, and students to contribute. You can open a Pull Request on GitHub or reach out to Antu Roy & Bapi Biswas directly via our Contact Page.
Yes. We provide dedicated GATE EE question sets, daily electrical problem quizzes, and technical walkthroughs for capstone thesis projects in solar inverters, BMS, and motor drives.
