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Game Seven Staffing

Game Seven Staffing

Staffing and Recruiting

Austin, Texas 3,828 followers

Finding candidates, in a space where talent is limited, is our expertise.

About us

Welcome to Game 7 Staffing, where innovation meets talent. We connect outstanding engineers with visionary teams shaping the future. Headquartered in Austin, we are a specialized engineering recruitment partner serving semiconductor, aerospace, defense, advanced manufacturing, and emerging tech sectors. For over a decade, we have empowered startups, growth-stage innovators, and Fortune 500 leaders with talent that drives progress from concept to validation. Our approach blends smart technology with expert insight. Leveraging AI-driven search, technical assessments, and comprehensive engineering data, our experienced recruiters identify engineers who are a true fit: technically, culturally, and operationally. This often happens before the hiring process begins. We cover the entire engineering lifecycle, from ASIC and FPGA design to embedded systems, software testing, mechanical and electrical engineering, automation, AI, machine learning, and edge computing. Every engagement is built for precision, speed, and lasting impact. We measure success by outcomes, not volume. Our results: faster hiring, fewer interviews, longer-lasting placements, and engineers who seamlessly integrate into your team. Whether you’re building a team or advancing your career, Game 7 Staffing is your partner for clarity, trust, and real results.

Website
http://www.game7staffing.com
Industry
Staffing and Recruiting
Company size
11-50 employees
Headquarters
Austin, Texas
Type
Privately Held
Founded
2013
Specialties
Mechanical Engineering Staffing, Contract negotiations, Networking, Market Share information, Hardware Engineering Staffing, and Software Engineering Staffing

Locations

Employees at Game Seven Staffing

Updates

  • Run the numbers. Most engineers who've done this say they wished they'd done it sooner. If you're a senior or principal engineer who's never contracted, here's the framework most people skip. Your employer isn't paying your salary. They're paying your salary plus ~30 - 35% on top - payroll taxes, health insurance, 401k match, PTO. A $200k base costs your employer closer to $260k–$270k all-in. That gap is what you absorb when you go contract. So the real question is: does the contract rate cover it? Take your true employer cost. Divide by realistic billable hours - not 2,080, because gaps and ramp time are real. Think 1,700–1,900. That's your break-even hourly. Anything above it is upside. A few honest things worth knowing: The FTE stability argument is weaker than it feels. The 2022–2024 semiconductor correction laid off principal engineers with 20 years in. Contracts end, but engineers who contract plan for it. FTE engineers often don't. At your experience level, contract work doesn't hurt your resume. It reads as in-demand. The exception: if you want to move into management, organizational tenure still matters. It usually makes sense when: your vesting cliff is behind you, you want to compress income, or your current program is winding down. FTE usually wins when: there's real equity upside at an early-stage company, or your financial runway genuinely requires predictability. #SemiconductorEngineering #ContractEngineering #ChipDesign

  • The semiconductor industry is having a lot of conversations right now about shift-left verification, particularly around earlier bug detection, formal methods at RTL, an architecture-phase sign-off. Here's what isn't getting discussed: Shift-left verification requires engineers who can actually execute formal verification - not just engineers who've heard of JasperGold. Principal-level DV engineers with formal property checking experience and real #tapeout history are one of the thinnest talent pools in the industry right now... thinner than experienced physical design engineers and thinner than DFT architects. The teams that can't find this profile end up in the same place: catching bugs at emulation or post-silicon that formal coverage would have surfaced at RTL freeze. Same bugs, but with a higher cost and a missed window. The discipline is right. The pipeline for the people to execute it isn't keeping up. If you're heading into a tapeout push and your formal verification bench is under-staffed, it's worth a conversation. #semiconductor #designverification #formalverification #SoC #chipdesign #DFT

  • The distinction Blue Pearl Solutions draws is exactly right; code generation and signoff-quality linting are different problems. LLMs excel at pattern synthesis; Calibre, SpyGlass, and Ascent excel at deterministic rule enforcement. The failure mode isn't using LLMs for RTL, it's conflating generation with verification.

    View organization page for Blue Pearl Solutions

    1,701 followers

    Large Language Models (LLMs) have proven to be genuinely valuable tools for RTL code generation. They can create working RTL modules from natural language specifications, accelerate testbench development, and dramatically reduce the time from concept to first synthesis. However, there is a critical distinction between code generation, a creative, generative task where LLMs excel, and code linting, a deterministic, analytical discipline for which they are fundamentally unsuited. Our new white paper, The Limitations of Large Language Models as RTL Linting Tools for FPGA Development, presents findings from a controlled evaluation of Claude Opus 4.6 reviewing Verilog RTL in a role-play scenario as a senior FPGA engineer. The results highlight important gaps in consistency, determinism, repeatability, and standards-based structural analysis that FPGA teams should understand before relying on LLMs for signoff-quality RTL verification. Give it a read…https://lnkd.in/gnb-_YZg #FPGA  #HardwareVerification #Simulation  #UVM  #SystemVerilog  #Verification  #EDA  #Semiconductors

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  • What a beautiful (and sad) story about traces of human creativity and ingenuity left behind in our work and products... and now that may disappear as we rely more and more on AI. Intel's 8086 had the designer's initials in the polysilicon. The craft tradition in chip design is older than most people realize, and it survived the EDA automation wave of the 90s. Will the current AI-assisted layout generation preserve or erase that layer of authorship and creativity?

    View organization page for DeepPCB

    1,540 followers

    There are thousands of tiny artworks hidden inside your devices right now. Doodles, signatures, jokes, compressed into silicon by the engineers who built the chips. Most will never be seen by anyone. In the new issue of Decisive Agents, journalist Jamillah Knowles goes hunting for them. She talks to the collectors who spend hours under microscopes uncovering easter eggs that chip designers left behind: some as a form of copyright protection, some just because they could. One collector in Germany has documented over 500 of them. As AI-assisted tools take on more of the design process, it raises a genuinely interesting question: what do you leave behind when the work is no longer entirely yours? The PCB Issue is live now. 👉 Get the full issue at https://bit.ly/3R1Sacv #InstaDeep #DecisiveAgents #PCBDesign #Electronics #SemiconductorIndustry #HardwareEngineering

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