Senior Mechanical Engineer, Lykos
Confirmed on the employer's own hiring board on Oct 17, 2026. First seen by Alion on Aug 5, 2026. Interplay scores B on the Alion truth index.
Mechanical Engineering Lead, Advanced Manufacturing & Repair Systems
Reports directly to: Chief Operating Officer
Partners closely with: Head of Data & Software, CTO, Process Engineering
Location: Atlanta, GA | U.S. Person required (ITAR)
WHO ARE WE
Lykos is a U.S.-based advanced materials and manufacturing company building a qualification-led repair & sustainment network for defense and aerospace industries. Lykos is focused on enabling rapid repair and sustainment for critical systems through advanced materials manufacturing, distributed and modular capacity, and our secure data-layer.
THE OPPORTUNITY
As Senior Mechanical Engineer, you will work directly with our COO and own advanced engineering for Lykos. You will own the hardware that turns our process science into repeatable processes: the machines, cells, fixtures, tooling, and automation that make up our pilot line and our modular manufacturing units.
This is a builder's role, not a drafting role. You will design, procure, build, commission, and debug real hardware; additive and subtractive platforms, robotic material handling, thermal and laser processing equipment, and the instrumentation that makes all of it observable. You will work directly for Lykos’ COO and partner with our Head of Data & Software so that every machine we build is designed from the start to generate structured, trustworthy process data.
You will be the first dedicated mechanical engineering leader at Lykos, setting the standards, own the discipline, help choose vendors and platforms we live with for years, and grow the mechanical team behind you.
WHAT YOU'LL BE DOING
Own mechanical engineering for Lykos end to end: architecture, design, analysis, build, commissioning, and sustaining engineering across the pilot line and modular manufacturing units.
Design and integrate additive manufacturing capability into ceramic and precursor workflows; including build platforms, material handling, thermal management, and post-process handling.
Own subtractive and finishing operations: CNC strategy, workholding and fixturing, tolerance stack-ups and GD&T, green- and fired-state machining approaches, and DFM feedback into component design.
Design and deploy automation and robotics: robotic cells, end effectors, motion systems, part transfer, machine tending, and vision-assisted handling. With the safety architecture and risk assessments to match.
Integrate laser-enabled processing hardware with ceramic material workflows, including optics mounting, motion control, enclosure design, thermal and fume management, and laser safety compliance.
Design the mechanical architecture of modular, transportable micro-factory units: envelope, utilities, containerization, serviceability, transport loads, and field installation.
Specify and instrument machines for data capture: sensors, thermal and load measurement, in-process monitoring, and machine interfaces.
Work with the Head of Data & Software so process data is structured, labeled, and usable for automation and machine learning from day one.
Build test, metrology, and inspection fixturing that supports qualification, NDT, and repeatable article-level evidence.
Run equipment selection and vendor execution: requirements, RFQs, build-to-print packages, technical reviews, FAT/SAT, acceptance criteria, and CAPEX justification alongside the COO.
Establish and enforce engineering discipline: drawing standards, revision and configuration control, ECO process, BOM and PLM structure, and documentation aligned with AS9100 and defense manufacturing expectations.
Identify and engineer out throughput constraints, yield killers, and cost inflection points before they become production problems.
Recruit, mentor, and lead a small mechanical engineering and technician team as the operation scales.
WHAT SUCCESS LOOKS LIKE
First 90 days: you own the mechanical design baseline for the pilot line and have closed the highest-risk hardware unknowns.
First 6 months: Our pilot cell is built, commissioned, and producing repeatable outputs with instrumented, process data flowing to the software team.
REQUIRED SKILLS
8+ years of hands-on mechanical engineering experience in advanced manufacturing, aerospace, defense, or precision industrial environments, including ownership of production hardware in a real operating environment.
Direct, hands-on expertise in additive manufacturing. You have designed for, operated, or built AM systems and understand their process physics, failure modes, and qualification challenges.
Direct, hands-on expertise in subtractive manufacturing: CNC machining, fixturing and workholding, GD&T, tolerance analysis, surface finish, and metrology.
Demonstrated experience designing and deploying advanced automation and robotics in a production setting: robotic cells, end-of-arm tooling, motion control, PLC/controls integration, and machine safety standards.
Strong machine design fundamentals: structural and thermal analysis, materials selection, precision alignment, vibration, and design for serviceability.
Expert CAD and analysis capability (SolidWorks, NX, Creo, or equivalent) with FEA experience.
Proven track record taking hardware from concept through build, commissioning, and debug; including owning what happens when it doesn't work on the first try.
Comfort operating in a fast-moving, early-stage environment: high ownership, ambiguous requirements, and direct accountability for outcomes.
Must be a U.S. Person as defined under ITAR (22 CFR §120.62).
PREFERRED SKILLS
Advanced Degree in Mechanical Engineering, Manufacturing Engineering, Materials Science, or a related field; advanced degree a plus.
Experience in defense or aerospace production programs, or supporting defense primes and government customers.
Experience at a high-growth startup building manufacturing capability from zero to one.
Background in ceramics, composites, polymer-derived ceramics, high-temperature materials, or thermal processing (furnaces, pyrolysis, sintering).
Experience with laser-based manufacturing systems, optics integration, or laser safety (ANSI Z136).
Familiarity with autonomous or lights-out manufacturing systems, in-process monitoring, and closed-loop process control.
Working fluency with data and software teams: scripting (Python), sensor integration, data schemas, or applied ML in manufacturing environments.
Experience in regulated manufacturing environments (AS9100, ITAR, DFARS, NADCAP, or equivalent), including qualification and first-article processes.
Familiarity with NDT, metrology, and inspection methods for critical components.
Prior experience designing transportable, containerized, or modular production systems.