Source Availability
A production fab needs light that is stable, diagnosable, and serviceable across long operating windows, not just high peak performance in isolation.
Advanced Manufacturing Infrastructure
EnergeticFlux is developing a facility-scale FEL light-source architecture for semiconductor fabs: injector, superconducting linac, undulator, EUV/BEUV optics, ten scanner feeds, and spent-beam recovery.
Why This Matters
Advanced semiconductor manufacturing is constrained by source power, uptime, optical delivery, tool integration, and the ability to scale reliably across many exposure lines. EnergeticFlux is approaching the problem as a complete facility architecture, not as a single isolated device.
A production fab needs light that is stable, diagnosable, and serviceable across long operating windows, not just high peak performance in isolation.
The optical distribution path routes EUV/BEUV photons through a controlled manifold so one source complex can support multiple scanner feeds.
The source, optics, controls, metrology, shielding, maintenance access, and scanner interfaces have to be designed together from the start.
System Architecture
The platform brings accelerator physics, EUV optics, vacuum engineering, scanner delivery, and factory controls into one coordinated source system.
Electron bunches are generated, conditioned, and accelerated through RF superconducting cavities, with diagnostics and beam-quality control along the accelerating path.
A precision undulator section converts the electron bunch train into coherent EUV/BEUV radiation, while the spent electron beam is separated for recovery and safe termination.
Grazing-incidence mirrors, shutters, metrology, and gated branches shape and distribute photons into multiple scanner exposure columns and wafer stages.
The facility model includes vacuum, cryogenics, RF power, alignment, interlocks, beam dumps, shielding, maintenance zones, and operations telemetry.
Engineering Program
EnergeticFlux is developing the source-to-scanner chain through integrated modeling, subsystem specifications, and partner validation across the accelerator, optics, and manufacturing interfaces.
Coupled accelerator, FEL, optics, thermal, vibration, and scanner-feed models define the operating envelope for the source platform.
Requirements flow into cavities, RF, cryogenics, undulators, mirror trains, metrology, controls, shielding, and fab interfaces.
Semiconductor, optics, accelerator, and manufacturing partners help test design assumptions against real operating constraints.
Who We Work With
Fab operators evaluating advanced lithography source capacity and tool integration pathways.
Groups with expertise in injectors, SRF cavities, ERLs, undulators, beam diagnostics, and controls.
Partners focused on EUV/BEUV mirror trains, dose stability, alignment, contamination control, and wafer-plane delivery.
Organizations aligned with long-horizon semiconductor infrastructure and deep engineering programs.
Operating Philosophy
A fab light source has to be more than bright. It has to hold dose, preserve beam quality, expose through controlled scanner feeds, and remain maintainable inside a production facility.
Contact
Connect with EnergeticFlux on lithography source infrastructure, accelerator systems, EUV optics, semiconductor manufacturing, and long-horizon industrial programs.
umeshcs@energeticflux.comAbout Us
The company is focused on advanced semiconductor infrastructure where accelerator systems, lithography-source physics, controls, optics, and manufacturing integration are being designed as one working platform.
Umesh Chandra Surepalli holds a B.Tech in Electrical Engineering from IIT Madras. He was the code-reviewer of the RTOS of Global-7500 Aircraft, a quantum blockchain and cryptocurrency consultant and the designer of e-₹upE, and also a Quantum Cybersecurity Technical & Business consultant.