Quantum computers usually mean massive machines, cryogenic temperatures, and isolated data centers. But what if quantum computing could run at room temperature, fit inside a server rack — or even a satellite?
In this episode of TechFirst, host John Koetsier sits down with Marcus Doherty, Chief Science Officer of Quantum Brilliance, to explore how diamond-based quantum computers work — and why they could unlock scalable, edge-deployed quantum systems.
Marcus explains how nitrogen-vacancy (NV) centers in diamond act like atomic-scale qubits, enabling long coherence times without extreme cooling. We dive into quantum sensing, quantum machine learning, and why diamond fabrication — including the world’s first commercial quantum diamond foundry — could be the key to manufacturing quantum hardware at scale.
You’ll also hear how diamond quantum systems are already being deployed in data centers, how they could operate in vehicles and satellites, and what the realistic roadmap looks like for logical qubits and real-world impact over the next decade.
Topics include:
• Why diamonds are uniquely suited for quantum computing
• How NV centers work at room temperature
• Quantum sensing vs. quantum computing
• Manufacturing challenges and timelines
• Quantum computing at the edge (satellites, vehicles, sensors)
• The future of hybrid classical-quantum systems
⸻
🎙 Guest
Marcus Doherty
Chief Science Officer, Quantum Brilliance
Professor of Quantum Physics
Army Reserve Officer
🌐 https://quantumbrilliance.com
⸻
👉 Subscribe for more deep dives into the future of technology:
https://techfirst.substack.com
⸻
00:00 Diamonds and the next wave of quantum computing
01:20 Why diamond qubits work at room temperature
03:20 NV centers explained: defects that behave like atoms
05:05 How diamonds replace massive quantum isolation systems
06:40 Building the world’s first quantum diamond foundry
08:30 Defect-free diamonds, isotopes, and qubit engineering
10:15 Quantum sensing vs. quantum computing with diamonds
12:40 From desktop quantum systems to millions of qubits
14:25 Roadmap: logical qubits, timelines, and scale
16:10 Quantum computers at the edge: vehicles and satellites
18:10 Quantum machine learning and real-world deployments
19:50 The long game: why diamond quantum computing scales
Will AI kill your job?
What happens to your job as AI gets smarter and companies keep laying people off even while profits rise? Will you still have a job? Will the job you have change beyond recognition?
Scary questions, no?
In this episode of TechFirst, host John Koetsier sits down with Nikki Barua, co-founder of Footwork and longtime founder, executive, and resiliency expert, to unpack what work really looks like in the age of AI.
Layoffs are no longer just about economic downturns. Companies are growing, innovating, and still cutting staff, often because AI is enabling more output with less capacity.
So what does that mean for you?
Nikki argues the future doesn’t belong to those who simply “learn AI tools,” but to agentic humans: people who lead with uniquely human strengths and use AI to amplify their impact. This conversation explores:
• Why today’s layoffs are different from past cycles
• How AI is compressing jobs before creating new ones
• What it means to move from doing work to directing outcomes
• Why identity, curiosity, and agency matter more than certifications
• How to rethink workflows instead of chasing shiny AI tools
• The FLIP framework: Focus, Leverage, Influence, and Power
This episode isn’t about fear.
It’s about reinvention.
If you’re wondering how to stay relevant, valuable, and resilient as AI reshapes work, this is the place to start.
Guest
Nikki Barua
Co-founder, Footwork
(Reinventing organizations with agentic AI)
👉 Subscribe for more conversations on AI, work, and the future of technology:
https://techfirst.substack.com
Chapters:
00:00 — Work in the AI Age: what happens to your job?
01:05 — Layoffs, AI, and why this cycle feels different
02:55 — “Don’t let AI have the last laugh”
04:45 — Profitable companies cutting jobs: what’s really happening
06:40 — The next 18–24 months: compression before reinvention
08:30 — AI’s impact on young workers and early careers
10:00 — What should you be doing right now?
11:20 — Why surface-level AI use won’t save your job
12:40 — The rise of the “agentic human”
14:20 — From doing to directing: humans + machines as partners
15:55 — Why certifications and training aren’t enough
17:10 — High-agency people win in the AI age
18:35 — The FLIP framework: Focus and identity
20:00 — Leverage: compounding capacity beyond automation
21:20 — Influence: trust, authenticity, and scaled impact
22:25 — Power: upgrading your personal operating system
23:40 — Two shifts that make this AI revolution different
25:05 — Tools vs workflows: where most people get it wrong
26:25 — The real blocker: old identities and fear of change
27:40 — Three steps to stay relevant in the AI age
28:40 — Final thoughts + wrap-up
What if someone actually built TARS from Interstellar—and discovered it really could work?
In this episode of TechFirst, host John Koetsier sits down with Aditya Sripada, a robotics engineer at Nimble, who turned a late-night hobby into a serious research project: a real, working mini-version of TARS, the iconic robot from Interstellar.
Aditya walks through why TARS’s strange, flat form factor isn’t just cinematic flair—and how it enables both walking and rolling, one of the most energy-efficient ways for robots to move. We dive into leg-length modulation, passive dynamics, rimless wheel theory, and why science fiction quietly shapes real robotics more than most engineers admit.
Along the way, Aditya explains what he learned by challenging his own assumptions, how the project connects to modern humanoid and warehouse robots, and why reliability—not flash—is the hardest problem in robotics today. He also previews his next ambitious project: building a real-world version of Baymax, exploring soft robotics and safer human-robot interaction.
This is a deep, accessible conversation at the intersection of science fiction, physics, and real-world robotics—and a reminder that sometimes the ideas we dismiss as “impossible” just haven’t been built yet.
⸻
Guest
Aditya Sripada
Robotics Engineer, Nimble
Researcher in legged locomotion, humanoids, and unconventional robot form factors
⸻
If you enjoyed this episode, subscribe for more deep dives into technology, robotics, and innovation:
👉 https://techfirst.substack.com
⸻
Chapters:
00:00 – TARS in Real Life: Why Interstellar’s Robot Still Fascinates Us
01:00 – Why Building TARS Seemed Physically Impossible
02:00 – From Weekend Hobby to Serious Robotics Research
03:00 – How Science Fiction Quietly Shapes Real Robot Design
04:00 – Walking vs Rolling: Why TARS Uses Both
05:00 – Why Simple Robots Can Beat Complex Humanoids
06:00 – Turning Legs into a Wheel: The Rolling Mechanism Explained
07:00 – Leg-Length Modulation and Passive Dynamics
08:00 – Inside the Actuators: Degrees of Freedom and Compact Design
09:00 – Why TARS’s Arms Don’t Really Make Sense
10:30 – Lessons Learned: Never Dismiss “Impossible” Ideas
12:00 – Rimless Wheels, Gaits, and Robotics Theory
13:00 – What This Project Taught Him at Nimble
14:00 – What “Super-Humanoid” Robots Actually Mean
15:30 – Why Reliability Matters More Than Flashy Demos
16:30 – TARS as a Research Platform, Not a Product
17:30 – From TARS to Baymax: Exploring Soft Robotics
19:00 – Can We Build Safer, Friendlier Humanoid Robots?
20:30 – What’s Next: Recreating Baymax in Real Life
21:30 – Final Thoughts and Wrap-Up
AI is already reshaping the workforce. What about teenagers?
Turns out, they might be more impacted than anyone else. After all, they're usually in low-skill entry-level jobs that AI can replace. The problem ... teens are losing their first experience with working, making money, and establishing an identity outside of their homes.
In this episode of TechFirst, host John Koetsier speaks with Karissa Tang, a high school senior and UCLA research assistant, about her new study on how AI will impact teen employment. While most workforce studies focus on adults, Karissa analyzed the top 10 most popular teen jobs from cashiers to fast food workers and found something alarming: AI could reduce teen employment by nearly 30% by 2030.
We dig into:
• Which teen jobs are most vulnerable to AI and automation
• Why cashiers and fast-food counter workers are hardest hit
• The role of self-checkout, kiosks, and robots like Flippy
• Which teen jobs appear safest (for now)
• Why teens may be even more exposed to AI than adults
• What schools, policymakers, and teens themselves can do next
This is a must-watch conversation for parents, students, educators, and policymakers trying to understand how AI is reshaping early work experiences—and what it means for the next generation.
🎙 Guest
Karissa Tang
• Founder, Booted (board games company)
• Research Assistant, UCLA
• Former Intern, NSV Wolf Capital
• High school senior and author of a 20-page research paper on AI & teen employment
📌 Subscribe & Stay Ahead
If you want clear, thoughtful analysis on AI, technology, and the future of work, subscribe to TechFirst:
👉 https://techfirst.substack.com
00:00 – Will AI Kill Teen Jobs?
01:35 – Why a Teen Studied Teen Employment
03:10 – The Shocking 30% Job Loss Prediction
05:10 – Top 10 Teen Jobs Most at Risk
07:20 – Cashiers, Kiosks, and Self-Checkout
09:40 – Fast Food, Retail, and AI Displacement
12:15 – Which Teen Jobs Are Safest from AI
15:05 – Robots Like Flippy and the Future of Cooking Jobs
18:00 – Why Teen Jobs Are More Vulnerable Than Adult Jobs
21:40 – The Importance of Human Interaction at Work
25:10 – What Inspired the Research Study
29:30 – How the Data and Methodology Worked
33:40 – What Teens Can Do to Stay Employable
37:30 – Skills, AI Literacy, and Creating New Opportunities
41:00 – Final Thoughts on the Future of Teen Work
Are we about to create real life Terminators? Humanoid robots built for war?
In this episode of TechFirst I talk with Sankaet Pathak, founder and CEO of Foundation, a California-based humanoid robot company that is not afraid of the defense market. We dig into why he is building humanoid robots that can work three shifts a day, how they plan to scale from dozens of robots to tens of thousands, and why he believes humanoid robots will one day build bases in Antarctica and cities on the moon.
We also dive deep into military use cases. From logistics and infrastructure to “first body in” building breach operations, we explore how humanoid robots could change asymmetric warfare, deterrence, and who wins future conflicts.
In this episode
• Why humanoid robots are the next strategic advantage for countries and companies
• How Foundation went from zero to a working production robot in about 18 months
• The hardware secrets behind Phantom: actuators, efficiency, and safety
• Why their robots can run almost 24 hours a day, three shifts at a time
• The master plan: Antarctic bases, moon cities, and infinite robot labor
• Why Sankaet thinks home robots should feel like a “genie in a bottle”
• How humanoid robots may enter military operations and what that means for war
• Whether robot soldiers lead to dominance, stalemate, or new forms of peace
Guest: Sankaet Pathak, founder and CEO of Foundation
Website: https://foundation.bot
Subscribe to my Substack:
https://techfirst.substack.com
00:00 – Are we about to build real life Terminators?
00:55 – Meet Sankaet Pathak and Foundation
02:08 – How Foundation built a production humanoid in 18 months
04:17 – Scaling plan: 40 robots today, 10,000 next year, 40,000 after
06:11 – Why manufacturing is still mostly manual and what they learned from Tesla
09:31 – The Foundation master plan: Antarctica, the moon, and infinite labor
14:21 – Phantom specs: size, strength, payload, and real factory work
15:36 – Actuators as robot muscles and why backdrivability matters
18:41 – Running three shifts a day and solving heat and durability
21:01 – Robot hands today and the tendon driven hands of tomorrow
23:40 – Why home robots should feel like a “genie in a bottle”
25:51 – Why the military needs humanoid robots
27:54 – Dangerous, boring, and impossible jobs robots should take over
29:22 – Drones, costs, and asymmetric warfare
32:18 – First body in and robots that can pull the trigger
33:16 – The future of war as “video game” and who wins
34:49 – Peace through strength and 100,000 robots as deterrent
35:22 – Final thoughts and what comes next for Foundation
Is AI the secret sauce that lets the West deglobalize supply chains and bring factories back home?
In this episode of TechFirst, I talk with Federico Martelli, CEO and cofounder of Forgis, a Swiss startup building an industrial intelligence layer for factories. Forgis runs “digital engineers” — AI agents on the edge — that sit on top of legacy machinery, cut downtime by about 30%, and boost production by roughly 20%, without ripping and replacing old hardware.
We dive into how AI agents can turn brainless factory lines into adaptive, self-optimizing systems, and what that means for reshoring production to Europe and North America.
In this episode, we cover:
• Why intelligence is the next geopolitical frontier
• How AI agents can reshore manufacturing without making it more expensive
• Turning old, offline machines into data-driven, optimized systems
• The two-layer model: integration first, vertical intelligence second
• Why most manufacturing AI projects fail at integration, not algorithms
• How Forgis raised $4.5M in 36 hours and chose its lead investor
• Lean manufacturing 2.0: adding real-time data and AI to Toyota-style processes
• Why operators stay in the loop (and why full autonomy is a bad idea… for now)
• Rebuilding industrial ecosystems in Europe and North America, industry by industry
• What Forgis builds next with its pre-seed round and where industrial AI is headed
Guest:
👉 Federico Martelli, CEO & cofounder, Forgis (industrial intelligence for factories)
🔗 More on Forgis: https://forgis.com/
Host:
🎙 John Koetsier, TechFirst podcast
🔎 techfirst.substack.com
If you enjoy this conversation, hit subscribe, drop a comment about where you think factories of the future will live, and share this with someone thinking about reshoring or industrial AI.
00:00 – Intro: AI, deglobalization, and the battle for industrial power
01:20 – Why intelligence is the next geopolitical frontier
02:13 – Applying AI agents to legacy machinery (not just new robots)
03:10 – Integration first, intelligence second: the “digital engineers” layer
03:58 – Early results: +20% production, –30% downtime
05:39 – The Palantir-style model: deep factory work, then recurring licenses
06:28 – Raising $4.5M in 36 hours and choosing Redalpine
08:17 – Lean manufacturing, Toyota, and giving operators superpowers (not replacing them)
10:18 – Big picture: reshoring production to Europe, the US, and Canada
12:48 – Competing with China’s dense manufacturing ecosystems
15:29 – What Forgis’ digital engineers actually do on the shop floor
17:06 – How Forgis will use the pre-seed round: sales, product, then tech
18:32 – Flipping the traditional stack: sales → product → tech
19:22 – Wrap-up and what’s next for industrial intelligence
AI agents can already write code, build websites, and manage workflows ... but they still can’t pay for anything on their own. That bottleneck is about to disappear.
In this episode of TechFirst with John Koetsier, we sit down with Jim Nguyen, former PayPal exec and cofounder/CEO of InFlow, a new AI-native payments platform launching from stealth. InFlow wants to give AI agents the ability to onboard, pay, and get paid inside the flow of work, without redirects, forms, or a human typing in credit card numbers.
We talk about:
• Why payments — not intelligence — are the missing link for AI agents
• How agents become a new kind of customer
• What guardrails and policies keep agents from spending all your money
• Why enterprises will need HR for agents, budgets for agents, and compliance systems for agents
• The future of agent marketplaces, headless ecommerce, and machine-speed commerce
• How InFlow plans to become the PayPal of agentic systems
If AI agents eventually hire, fire, transact, and manage entire workflows, someone has to give them wallets. This episode explores who does it, how it works, and what it means for the economy.
👀 Full episode transcript + articles at: https://johnkoetsier.com
🔎 Deeper insight in my Substack at techfirst.substack.com
🎧 Subscribe to the podcast on any audio platforms
00:00 — AI agents can’t pay yet
01:00 — Why agents need financial capabilities
02:45 — Developers as the first use case
04:15 — Agents that build AND provision software
06:00 — Agents as real customers with budgets
07:30 — Payments infrastructure is the missing layer
09:00 — Machine-speed commerce and GPU allocation
10:15 — From RubyCoins to PayPal to agentic payments
12:00 — Policy guardrails: the child debit card analogy
14:00 — Accountability: every agent must be “sponsored”
15:00 — HR, finance, and compliance systems for agents
16:45 — Agent marketplaces and future gig platforms
18:15 — Headless commerce: ghost kitchens for AI agents
20:00 — Agents are the new apps
21:15 — Amazon pushback and optimizing for revenue
22:45 — Why agent-optimized platforms will emerge
23:30 — Voice commerce, invisible ordering, and wallets
24:15 — Final thoughts: building the rails for agent commerce
Are we ready for a world where everything is smart? Not just phones and apps, but buildings, robots, and delivery bots rolling down our streets?
Windows ... doors ... maybe even towels. And don't forget your shoes.
In this episode of TechFirst, I talk with Mat Gilbert, director of AI and data at Synapse, about physical AI: putting intelligence into machines, devices, and environments so they can sense, reason, act, and learn in the real world.
We cover why physical AI is suddenly economically viable, how factories and logistics centers are already using millions of robots, the commercial race to build useful humanoids, why your home is the last frontier, and how to keep physical AI safe when mistakes have real-world consequences.
In this episode:
• Why hardware costs (lidar, batteries) are making “AI with a body” possible
• How Amazon, FedEx, Ford, and others are already deploying physical AI at scale
• The humanoid robot race: Boston Dynamics, Figure AI, Tesla, and more
• Why home robots are so hard, and the “coffee test” for general humanoid intelligence
• Physical AI in agtech, healthcare, and elder care
• Safety, simulation, and why physical AI can’t rely only on probabilistic LLMs
• Human–robot teaming and how to build trust in messy, real-world environments
• What we can expect by 2026 and beyond in service robots and smart spaces
00:00 – Giving AI a body: why physical AI is becoming viable
01:00 – Where we are today: factories, logistics, and Amazon’s million robots
03:30 – The software layer: coordinating robots, routing, and warehouse intelligence
06:00 – Cloud vs edge AI: latency, cost, and why intelligence is moving to the edge
10:00 – Humanoid robots: bets from Boston Dynamics, Figure AI, and Tesla
14:00 – Home robots as the last frontier and the “coffee test” for generality
17:00 – Beyond factories: agtech, carbon-killing farm bots, and healthcare use cases
18:30 – Elder care, hospital robots, and amplifying human caregivers
20:00 – Foundation models for robotics, simulation, and digital twins
21:00 – Why physical AI safety is different from digital AI safety
22:30 – Layers of safety, shutdown zones, and cyber-physical security risks
24:30 – Human–robot teaming, trust, and communicating intent
26:00 – What’s coming by 2026: service robots, delivery bots, and smart spaces
28:00 – Delivery robots, drones, and physical AI in everyday environments
29:00 – Closing thoughts on living in a world full of physical AI
Are humanoid robots going to decide which countries get rich and which fall behind?
Probably yes.
In this TechFirst, I talk with Dr. Robert Ambrose, former head of one of NASA’s first humanoid robot teams and now chairman of Robotics and Artificial Intelligence at Alliant. We dig into the future of humanoids, how fast they are really advancing, and what it means if China wins the humanoid race before the United States and other western nations.
We start with NASA’s early humanoid work, including telepresence robots on the space station that people could literally “step into” with VR in the 1990s. Then we zoom out to what counts as a robot, why bipedal mobility matters so much, how humanoids will move from factories into homes, and why the critical photo of the robot revolution might be taken in Beijing instead of Times Square.
Along the way, Ambrose shares how US policy once helped avoid losing robotics leadership to Japan, why the National Robotics Initiative mattered, what the drone war in Ukraine is doing to autonomy, and how small and medium businesses can survive and thrive in a humanoid and AI agent world.
In this episode:
• NASA’s first generations of humanoid robots and “stepping into” a robot body
• Why humanoids make sense in a world built for human hands, height, and motion
• The design tension between purpose built machines and general purpose humanoids
• How biped mobility went from blooper reels to marathon running in a decade
• Why a humanoid should not cost more than a car, and what happens when it does not
• Humanoids as the next car or PC, and when families will buy their own “Rosie”
• China, the US, and where the defining photo of the robot century gets taken
• How government investment, DARPA challenges, and wars shape robotics
• Alliant’s work with physical robots, soft bots, and AI agents for real businesses
• Why robots are not future overlords and why “they will take all our jobs” is lazy thinking
If you are interested in humanoid robots, AI agents, manufacturing, or the future of work and geopolitics, this one is for you.
Subscribe for more deep dives on AI, robots, and the tech shaping our future!
00:00 Intro, will China eat America’s lunch in humanoid robotics
01:18 NASA’s early humanoids, generations of robots and VR telepresence
03:00 “Stepping into the robot” moment and designing for astronaut tools
05:10 Human built environments, half humanoids, and weird lower body experiments
07:00 Safety, cobots, and working around people at NASA and General Motors
12:15 What is a robot, really, and why Ambrose has a very big tent definition
16:00 Single purpose machines vs general purpose robots, Roombas, elevators, and vending machines
18:30 The next “lurch” in robotics, from industrial arms to Mars rovers to drones
22:40 Biped mobility, from blooper reel to marathon runner, and why legs matter
24:10 Cars, Roombas, and why most robots will never get in and out of a car
25:20 Parking between cars, robot garages, and rethinking buildings for mobile vehicles
28:00 Geopolitics 101, China’s manufacturing backbone and humanoids as almost free labor
31:05 Cars and PCs as precedents, when price and reliability unlock mass adoption
34:00 When families buy their own “Rosie” and what value a home humanoid must deliver
37:00 Times Square vs Beijing, who gets the iconic photo of the robot transition
43:00 How the US almost lost robotics to Japan and what the National Robotics Initiative did
48:00 DARPA, Mars rovers, the drone war in Ukraine, and why government investment matters
52:00 Alliant, soft bots, AI agents, and helping small and medium businesses adapt
54:00 Who is building humanoids in the US, China, and beyond right now
56:00 What governments should do next and why robots are not our overlords
Is AI empathy a life-or-death issue? Almost a million people ask ChatGPT for mental health advice DAILY ... so yes, it kind of is.
Rosebud co-founder Sean Dadashi joins TechFirst to reveal new research on whether today’s largest AI models can recognize signs of self-harm ... and which ones fail. We dig into the Adam Raine case, talk about how Dadashi evaluated 22 leading LLMs, and explore the future of mental-health-aware AI.
We also talk about why Dadashi was interested in this in the first place, and his own journey with mental health.
00:00 — Intro: Is AI empathy a life-or-death matter?
00:41 — Meet Sean Dadashi, co-founder of Rosebud
01:03 — Why study AI empathy and crisis detection?
01:32 — The Adam Raine case and what it revealed
02:01 — Why crisis-prevention benchmarks for AI don’t exist
02:48 — How Rosebud designed the study across 22 LLMs
03:17 — No public self-harm response benchmarks: why that’s a problem
03:46 — Building test scenarios based on past research and real cases
04:33 — Examples of prompts used in the study
04:54 — Direct vs indirect self-harm cues and why AIs miss them
05:26 — The bridge example: AI’s failure to detect subtext
06:14 — Did any models perform well?
06:33 — All 22 models failed at least once
06:47 — Lower-performing models: GPT-40, Grok
07:02 — Higher-performing models: GPT-5, Gemini
07:31 — Breaking news: Gemini 3 preview gets the first perfect score
08:12 — Did the benchmark influence model training?
08:30 — The need for more complex, multi-turn testing
08:47 — Partnering with foundation model companies on safety
09:21 — Why this is such a hard problem to solve
10:34 — The scale: over a million people talk to ChatGPT weekly about self-harm
11:10 — What AI should do: detect subtext, encourage help, avoid sycophancy
11:42 — Sycophancy in LLMs and why it’s dangerous
12:17 — The potential good: AI can help people who can’t access therapy
13:06 — Could Rosebud spin this work into a full-time safety project?
13:48 — Why the benchmark will be open-source
14:27 — The need for a third-party “Better Business Bureau” for LLM safety
14:53 — Sean’s personal story of suicidal ideation at 16
15:55 — How tech can harm — and help — young, vulnerable people
16:32 — The importance of giving people time, space, and hope
17:39 — Final reflections: listening to the voice of hope
18:14 — Closing
We’ve digitized sound. We’ve digitized light. But touch, maybe the most human of our senses, has stayed stubbornly analog.
That might be about to change, thanks to programmable matter. Or programmable fabric.
In this TechFirst episode, I speak with Adam Hopkins, CEO of Sensetics, a new UC Berkeley/Virginia Tech spinout building programmable fabrics that replicate the mechanoreceptors in human fingertips. Their technology can sense touch at tens of microns, respond at hardware-level speeds, and even play back touch remotely.
This could unlock enormous change for:
• Robotics: giving machines the ability to grasp fragile objects safely
• Medical training and surgery: remote palpation and high-fidelity haptics
• Industrial automation: safer and more precise manipulation
• VR and simulations: finally adding the missing digital sense
• E-commerce: touching clothes before you buy them
• Remote operations: from hazardous environments to deep-sea machinery
We talk about how the technology works, the metamaterials behind it, why touch matters for AI and physical robots, the path to commercialization, competitive landscape, and what comes next.
00:00 – Can we digitize touch?
00:45 – Introducing Synthetix
01:10 – How programmable touch fabrics work
02:15 – Micron-level sensing and metamaterials
04:00 – The “programmable matter” moment
06:05 – Why touch matters more than we think
07:30 – Emulating human mechanoreceptors
09:30 – What digital touch unlocks for robotics
10:40 – Medical simulations and remote operations
12:45 – Why touch is faster than vision
14:20 – Humanoids, walking, stability, and tactile feedback
15:30 – Engineering challenges and what’s left to solve
17:00 – Timeline to first products
18:20 – Manufacturing and scaling
19:30 – First planned markets
21:00 – Durability and robotic hands
22:20 – Consumer applications: e-commerce and textiles
24:00 – Will we one day have touch peripherals?
25:15 – Competition in tactile sensing and haptics
27:00 – Why today is the right moment for digital touch
28:00 – Final thoughts
AI is devouring the planet’s electricity ... already using up to 2% of global energy and projected to hit 5% by 2030. But a Spanish-Canadian company, Multiverse Computing, says it can slash that energy footprint by up to 95% without sacrificing performance.
They specialize in tiny AI: one model has the processing power of just 2 fruit fly brains. Another tiny model lives on a Raspberry Pi.
The opportunities for edge AI are huge. But the opportunities in the cloud are also massive.
In this episode of TechFirst, host John Koetsier talks with Samuel Mugel, Multiverse’s CEO, about how quantum-inspired algorithms can drastically compress large language models while keeping them smart, useful, and fast. Mugel explains how their approach -- intelligently pruning and reorganizing model weights -- lets them fit functioning AIs into hardware as tiny as a Raspberry Pi or the equivalent of a fly’s brain.
They explore how small language models could power Edge AI, smart appliances, and robots that work offline and in real time, while also making AI more sustainable, accessible, and affordable.
Mugel also discusses how ideas from quantum tensor networks help identify only the most relevant parts of a model, and how the company uses an “intelligently destructive” approach that saves massive compute and power.
00:00 – AI’s energy crisis
01:00 – A model in a fly’s brain
02:00 – Why tiny AIs work
03:00 – Edge AI everywhere
05:00 – Agent compute overload
06:00 – 200× too much compute
07:00 – The GPU crunch
08:00 – Smart matter vision
09:00 – AI on a Raspberry Pi
10:00 – How compression works
11:00 – Intelligent destruction
13:00 – General vs. narrow AIs
15:00 – Quantum inspiration
17:00 – Quantum + AI future
18:00 – AI’s carbon footprint
19:00 – Cost of using AI
20:00 – Cloud to edge shift
21:00 – Robots need fast AI
22:00 – Wrapping up
Can AI give every creator their own virtual team? Maybe, thanks to a new platform from RHEI called Made, which offers Milo, an AI agent who becomes your creator director, Zara, an AI agent who is your community manager, and Amie, a third AI agent who takes on the role of relationship manager.
And, apparently, more agents are coming soon.
The creator economy is bigger than ever, but so is burnout. Tens of millions of creators are trying to do everything themselves: strategy, scripting, editing, community, distribution, data, thumbnails, research … the list never ends.
What if creators didn’t have to do all of that?
In this episode of TechFirst, I talk with Shahrzad Rafati, founder & CEO of RHEI, about Made, an agentic AI "dream team" designed to elevate human creativity, not replace it.
We dig into:
• Why so many creators burn out
• How agentic AI workflows differ from ChatGPT-style prompting
• What it means to be a “creator CEO”
• How AI can manage community, analyze trends, and shape content strategies
• The coming shift toward human taste, vision, and originality in a world of infinite AI content
00:00 – Intro: Can AI give every creator a virtual team?
01:03 – Why the creator economy is burning out
02:25 – The “creator CEO” problem: too many hats, not enough time
04:36 – Introducing MAID and its AI agents
05:34 – Milo: AI creative director (ideas, research, thumbnails, metadata)
06:18 – Zara: AI community manager and fan engagement
07:53 – Why this is different from just using ChatGPT
09:46 – Alignment, personalization, and agentic workflows
12:21 – Multi-platform support: YouTube, TikTok, Instagram and more
13:34 – How onboarding works and how the system learns your style
16:33 – What this means for creators — and for the future of work
18:52 – Does *she* use her own virtual AI team? (Yes.)
20:15 – MAID for teams and enterprise clients
21:17 – Closing thoughts: AI, creativity, and the human signal
What happens when Amazon, NVIDIA, and MassRobotics team up to merge generative AI with robotics?
In this episode of TechFirst we chat with Amazon's Taimur Rashid, Head of Generative AI and Innovation Delivery. We talk about "physical AI" ... AI with spatial awareness and the ability to act safely and intelligently in the real world.
We also chat about the first cohort of a new accelerator for robotics startups.
It's sponsored by Amazon and NVIDIA, run by MassRobotics, and includes startups doing autonomous ships, autonomous construction robots, smart farms, hospital robots, manufacturing and assembly robots, exoskeletons, and more.
We talk about:
- Why “physical AI” is the missing piece for robots to become truly useful and scalable
- How startups in Amazon’s and NVIDIA’s new Physical AI Fellowship are pushing the limits of robotics from exoskeletons to farm bots
- What makes robotic hands so hard to build
- The generalist vs. specialist debate in humanoid robots
- How AI is already making Amazon warehouses 25% more efficient
This is a deep dive into the next phase of AI evolution: intelligence that can think, move, and act.
⸻
00:00 — Intro: Is physical AI the missing piece?
00:46 — What is “physical AI”?
02:30 — How LLMs fit into the physical world
03:25 — Why safety is the first principle of physical AI
04:20 — Why physical AI matters now
05:45 — Workforce shortages and trillion-dollar opportunities
07:00 — Falling costs of sensors and robotics hardware
07:45 — The biggest challenges: data, actuation, and precision
09:30 — The fine-grained problem: how robots pick up a berry vs. an orange
11:10 — Inside the first Physical AI cohort: 8 startups to watch
12:25 — Bedrock Robotics: autonomy for construction vehicles
12:55 — Diligent Robotics: socially intelligent humanoids in hospitals
14:00 — Generalist vs. specialist robots: why we’ll need both
15:30 — The future of physical AI in healthcare and manufacturing
16:10 — How Amazon is already using robots for 25% more efficiency
17:20 — The fellowship’s future: expanding beyond startups
18:10 — Wrap-up and key takeaways
Artificial general intelligence (AGI) could be humanity’s greatest invention ... or our biggest risk.
In this episode of TechFirst, I talk with Dr. Ben Goertzel, CEO and founder of SingularityNET, about the future of AGI, the possibility of superintelligence, and what happens when machines think beyond human programming.
We cover:
• Is AGI inevitable? How soon will it arrive?
• Will AGI kill us … or save us?
• Why decentralization and blockchain could make AGI safer
• How large language models (LLMs) fit into the path toward AGI
• The risks of an AGI arms race between the U.S. and China
• Why Ben Goertzel created Meta, a new AGI programming language
📌 Topics include AI safety, decentralized AI, blockchain for AI, LLMs, reasoning engines, superintelligence timelines, and the role of governments and corporations in shaping the future of AI.
⏱️ Chapters
00:00 – Intro: Will AGI kill us or save us?
01:02 – Ben Goertzel in Istanbul & the Beneficial AGI Conference
02:47 – Is AGI inevitable?
05:08 – Defining AGI: generalization beyond programming
07:15 – Emotions, agency, and artificial minds
08:47 – The AGI arms race: US vs. China vs. decentralization
13:09 – Risks of narrow or bounded AGI
15:27 – Decentralization and open-source as safeguards
18:21 – Can LLMs become AGI?
20:18 – Using LLMs as reasoning guides
21:55 – Hybrid models: LLMs plus reasoning engines
23:22 – Hallucination: humans vs. machines
25:26 – How LLMs accelerate AI research
26:55 – How close are we to AGI?
28:18 – Why Goertzel built a new AGI language (Meta)
29:43 – Meta: from AI coding to smart contracts
30:06 – Closing thoughts
What changes when robots deliver everything?
Starship Technologies has already completed 9 million autonomous deliveries, crossed roads over 200 million times, and operates thousands of sidewalk delivery robots across Europe and the U.S. Now they’re scaling into American cities ... and they say they’re ready to change your world
In this episode of TechFirst, I speak with Ahti Heinla, co-founder and CEO of Starship and co-founder of Skype, about:
- How Starship’s robots navigate without GPS
- What makes sidewalk delivery better than drones
- Solving the last-mile problem in snow, darkness, and dense cities
- How Starship is already profitable and fully autonomous
- What it all means for the future of commerce and city life
Heinla says:
“Ten years ago we had a prototype. Now we have a commercial product that is doing millions of deliveries.”
Watch to learn why the future of delivery might roll ... as well as fly.
🔗 Learn more: https://www.starship.xyz
🎧 Subscribe to TechFirst: https://www.youtube.com/@johnkoetsier
00:00 - Intro: What changes when robots deliver everything?
01:37 - Meet Starship: 9 million robot deliveries and counting
02:45 - Why it took 10 years to go from prototype to product
05:03 - When robot delivery becomes normal (and where it already is)
08:30 - How Starship robots handle cities, traffic, and construction
11:20 - Snow, darkness, and all-weather autonomy
13:19 - Reliability, unit economics, and competing with human couriers
16:23 - Inside the tech: sensors, AI, and why GPS isn’t enough
18:03 - Real-time mapping, climbing curbs, and reaching your door
19:54 - How Starship scales without local depots or chargers
22:04 - How city life and commerce change with robot delivery
25:53 - Do robots increase customer orders? (Short answer: yes)
27:05 - Hot food, Grubhub integration, and thermal insulation
28:26 - Will Starship use drones in the future?
29:38 - What U.S. cities are next for robot delivery?
Imagine a quantum computer with a million physical qubits in a space smaller than a sticky note.
That’s exactly what Quantum Art is building. In this TechFirst episode, I chat with CEO Tal David, who shares his team’s vision to deliver quantum systems with:
• 100x more parallel operations
• 100x more gates per second
• A footprint up to 50x smaller than competitors
We also dive into the four key tech breakthroughs behind this roadmap to scale Quantum Art's computer:
1. Multi-qubit gates capable of 1,000 2-qubit operations in a single step
2. Optical segmentation using laser-defined tweezers
3. Dynamic reconfiguration of ion cores at microsecond speed
4. Modular, ultra-dense 2D architectures scaling to 1M+ qubits
We also cover:
- How Quantum Art plans to reach fault tolerance by 2033
- Early commercial viability with 1,000 physical qubits by 2027
- Why not moving qubits might be the biggest innovation of all
- The quantum computing future of healthcare, logistics, aerospace, and energy
🎧 Chapters
00:00 – Intro: 1M qubits in 50mm²
01:45 – Vision: impact in business, humanity, and national tech
03:07 – Multi-qubit gates (1,000 ops in one step)
05:00 – Optical segmentation with tweezers
06:30 – Rapid reconfiguration: no shuttling, no delay
08:40 – Modular 2D architecture & ultra-density
10:30 – Physical vs logical qubits
13:00 – Quantum advantage by 2027
16:00 – Addressing the quantum computing skeptics
17:30 – Real-world use cases: aerospace, automotive, energy
19:00 – Why it’s called Quantum Art
👉 Subscribe for more deep tech interviews on quantum, robotics, AI, and the future of computing.
Are humanoid robots distracting us from the real unlock in robotics ... hands?
In this TechFirst episode, host John Koetsier digs into the hardest (and most valuable) problem in robotics: dexterous manipulation.
Guest Mike Obolonsky, Partner at Cortical Ventures, argues that about $50 trillion of global economic activity flows through “hands work,” yet manipulation startups have raised only a fraction of what locomotion and autonomy companies have.
We break down why hands are so hard (actuators, tactile sensing, proprioception, control, data) and what gets unlocked when we finally crack them.
What we'll talk through ...
• Why “navigation ≠ manipulation” and why most real-world jobs need hands
• The funding mismatch: billions to autonomy & humanoids vs. comparatively little to hands
• The tech stack for dexterity: actuators, tactile sensors (pressure, vibration, shear), feedback, and AI
• Grasping vs. manipulation: picking, placing, using tools (e.g., dishwashers to scalpels)
• Reliability in the wild: interventions/hour, wet/greasy plates, occlusions, bimanual dexterity
• Practical paths: task-specific grippers, modular end-effectors, and “good enough” today vs. general purpose tomorrow
• The moonshot: what 70–90% human-level hands could do for productivity on Earth ... and off-planet
Chapters
00:00 Intro—are we underinvesting in robotic hands?
01:10 Why hands matter more than legs (economics of manipulation)
04:30 Funding realities: autonomy & humanoids vs. hands
08:40 Locomotion progress vs. manipulation bottlenecks
12:10 Teleop now, autonomy later—how data gets gathered
14:20 What’s missing: actuators, tactile sensing, proprioception
17:10 Perception limits in the real world (wet dishes, occlusions)
22:00 General-purpose dexterity vs. task-specific ROI
26:00 Startup landscape & reliability (interventions/hour)
29:00 Modular end-effectors and upgrade paths
30:10 The moonshot: productivity explosion when hands are solved
Who should watch
Robotics founders, VCs, AI researchers, operators in warehousing & manufacturing, and anyone tracking humanoids beyond the hype.
If you enjoyed this
Subscribe for more deep-tech conversations, drop a comment with your take on the “hands vs. legs” debate, and share with someone building robots.
Keywords
robotic hands, dexterous manipulation, humanoid robots, tactile sensing, actuators, proprioception, warehouse automation, AI robotics, Cortical Ventures, TechFirst, John Koetsier, Mike Obolonsky
#Robotics #AI #Humanoids #RobotHands #Manipulation #Automation #TechFirst
Are humanoid robots the future… or a $100B mistake?
Over 100 companies—from Meta to Amazon—are betting big on humanoids. But are we chasing a sci-fi dream that’s not practical or profitable?
In this TechFirst episode, I chat with Bren Pierce, robotics OG and CEO of Kinisi Robots. We cover:
- Why legs might be overhyped
- How LLMs are transforming robots into agents
- The real cost (and complexity) of robotic hands
- Why warehouse robots work best with wheels
- The geopolitical robot arms race between China, the US, and Europe
- Hot takes, historical context, and a glimpse into the next 10 years of AI + robotics.
Timestamps:
0:00 – Are humanoids a dumb idea?
1:30 – Why legs might not matter (yet)
5:00 – LLMs as the real unlock
12:00 – The hand is 50% of the challenge
17:00 – Speed limits = compute limits
23:00 – Robot geopolitics & supply chains
30:00 – What the next 5 years looks like
Subscribe for more on AI, robotics, and tech megatrends.
The future could be much healthier for both farmers and everyone who eats, thanks to farm robots that kill weeds with lasers. In this episode of TechFirst, we chat with Paul Mikesell, CEO of Carbon Robotics, to discuss groundbreaking advancements in agricultural technology.
Paul shares updates since our last conversation in 2021, including the launch of LaserWeeder G2 and Carbon's autonomous tractor technology: AutoTractor.
LaserWeeder G2 quick facts:
- Modular design: Swappable laser “modules” that adapt to different row sizes (80-inch, 40-inch, etc.)
- Laser hardware: Each module has 2 lasers; a standard 20-foot machine = 12 modules = 24 lasers
- Laser precision: Targets the plant’s meristem (≈3mm on small weeds) with pinpoint accuracy
- Weed kill speed: 20–150 milliseconds per weed (including detection + laser fire)
- Throughput: 8,000–10,000 weeds per minute (Gen 2, up from ~5,000/min on Gen 1)
- Coverage rate: 3–4 acres per hour on the 20-foot G2 model
- ROI timeline: Farmers typically achieve payback in under 3 years
- Yield impact: Up to 50% higher yields in some conventional crops due to eliminating herbicide damage
- Price: Standard 20-foot LaserWeeder G2 = $1.4M, larger models scale from there
- Global usage: Units in the U.S. (Midwest corn & soy, Idaho & Arizona veggies) and Europe (Spain, Italy tunnel farming)
We chat about how these innovations are transforming weed control and farm management with AI, computer vision, and autonomous systems, the precision and efficiency of laser weeding, practical challenges addressed by autonomous tractors, and the significant ROI and yield improvements for farmers.
This is a must-watch for anyone interested in the future of farming and sustainable agriculture.
00:00 Introduction to TechFirst and Carbon Robotics
01:10 The Science Behind Laser Weeding
05:46 Introducing Laser Weeder 2.0
06:39 Modular System and New Laser Technology
09:26 Manufacturing and Cost Efficiency
11:47 ROI and Benefits for Farmers
13:24 Laser Weeder Specifications
14:08 Performance and Efficiency
14:49 Introduction to AutoTractor
17:23 Challenges in Autonomous Farming
18:23 Remote Intervention and Starlink Integration
23:23 Future of Farming Technology
24:50 Health and Environmental Benefits
25:18 Conclusion and Farewell