Blake Scholl: "The Future Was Supposed to Be Faster"

Advancing deep-tech hardware requires adopting software development paradigms—specifically rapid digital iteration, vertical integration, and proactive regulatory collaboration—to bypass the slow progress typical of legacy aerospace firms.

• Software-defined hardware — Developing code-based simulation tools allows teams to test design iterations in minutes rather than months, enabling engineers to refine propulsion and aerodynamics virtually before committing to physical manufacturing [14:23].
• In-house manufacturing — Establishing an internal machine shop allows the conversion of digital designs into physical prototype parts within 24 hours, eliminating dependency on slow, external aerospace suppliers [16:07].
• Capital generation — Adapting supersonic engine technology for stationary ground power provides a secondary revenue stream that generates operational funding and reliability data while the aircraft remains in development [18:07].
• Regulatory integration — Engaging authorities during the design phase transforms the process from adversarial conflict into a collaborative effort, which accelerated flight permit approvals to under two hours [30:47].
• Recruitment strategy — Favoring motivated, early-career talent avoids the rigid, risk-averse cultures found at legacy aerospace corporations, allowing for a more agile and innovative team structure [27:07].
• Professional credentials — Prior sector expertise is less critical than demonstrated problem-solving capability; engineers should initiate self-directed projects to bypass traditional hiring requirements [42:51].

• What is the role of digital simulation tools in hardware development?
• How can startups approach regulatory bodies in restricted industries?