Tech Nerd Army !
First off:
@SeedSigner – you're UNTOUCHABLE!
Say what you want, but NOTHING comes close.
My ride-or-die cold wallet tool Period !
So, to complement it and beef up my BTC arsenal,
I am building SeedTapper.
Time to BURN those seeds into titanium properly!
No more weak surface scratches – I'm going for DEEP, indestructible engravings that laugh at time, elements, and any apocalypse scenario.
The mission is to harden my offspring's sovereign wealth to endure decades under any conditions, until the handover.
@Printer @Nathan Day
Nikos
npub18cel...ulqe
Proud BTC Tech Nerd
How are you contributing to BTC or Nostr today ?
You better not be sitting there sulking and feeling sorry for your self due to $toilerpapermoney
Today im working on the SeedTaper. Focusing on the firmware code that handles the scanning of the SeedQR format. Progress has been steady. taking it step by step tackling the integration of the new hardware.
Are you ready ?
Working on a PSU Breakout Board Design. Need it for my next upcoming project


👀 its Shopping Time !!
You will find all my Builds available at @Printer Store !
View quoted note →
Stacking SATs
Solarbit Hashing Away whilst I prep for a fam BBQ
Just the way it should be
Passive SAT Stacking with $0/Khw/THs
Start Building Your own (see below)
EU -
@Printer
USA-
@CryptoMachine Shop
Australia-
@ShopBitcoin.com.au
EU - 
Go Brrr
Go brrr - 3D prints for sovereign individuals!
3D prints for sovereign individuals! We offer Bitcoin nodes, SeedSigner Parts, Cold Storage Solutions and exclusive Bitcoin Art.

https://cryptomachine.shop
Bitaxe & NerdQaxe LAN Adapter Kits | CryptoMachine Shop
Plug-and-play Bitaxe & NerdQaxe LAN adapter kits and cooling upgrades for solo miners. Tested hardware, cleaner wiring, and easier remote management.

Shop Bitcoin Australia
Shop Bitcoin - Bitcoin Shopping Made Easy
Australia's One Stop Bitcoin Shop. We have Bitaxes, Seedsigners, Seed Security Products, Shirts, Hats, Hoodies, Mugs, Signs, and so much more.
$BTC Tech Nerd Army !
Think I will name this feature: TBQMH
Time Based Quota Multipool Hashing


Testing BitSatRelay ! something smells fishy to me ...
GM
Tech Nerd Army Firmware
-LAN
-Balls Deep Over Clocking
-CLUSTER Army
-MULTIPOOL


BREAKING NEWS!!️
STORE'S ARE RUNNING OUT OF TAMPONS
DUE TO THE RISE OF PUSSIE'S IN THIS WORLD !
A moment of normality in the BTC R&D cave to pay our respects to the fallen SHA256 soldiers! They sacrificed their Hashrate in the name of Tech Nerd Army Science. RIP ! Cheers
$BTC Tech Nerd Army, it's a bitter end to another wild week – but what a ride 2 x NerdQaxe+s and 1x NerdQaxe++ RIP this week !
My latest victim? The beastly NerdAxe ++ pushed to its absolute limits in the TNA R&D cave in the name of Firmware Science. 💥🔥
I cranked it to the edge and beyond:
- Hashrate:10.6 TH/s
- Clock:1350 MHz
- Vcore: 1.58V
- Amps to ASICs: A scorching 165A!
That's when it sparked out HARD – but hey, all safely contained in the immersion fluid, as designed. 😎 Wasn't expecting the board and caps to tap out first... Those CSD95472Q5MC Synchronous Buck NexFETs (VR) are rated for 60A continuous / 90A peak per unit, but we hit ~55A and boom!
Thought the TPS53647RTAR or ASICs would cry uncle first. Lesson learned! 📊
On the next TNA Tech hall this Monday we will discuss the current TNA-v3.5 firmware and its uncontained capabilities.
Tech Nerds, dive deeper in the TNA Discord for full breakdowns, pics, and next steps. attached screen shot of last moment.. and first look into tank seconds after blow out.
View quoted note →

Watch Videos on Nostr with Plebs
Plebs is a censorship-resistant, decentralized video platform powered by the Nostr social protocol

Watch Videos on Nostr with Plebs
Plebs is a censorship-resistant, decentralized video platform powered by the Nostr social protocol
NerdQaxe++ TPS failure investigation1


Watch Videos on Nostr with Plebs
Plebs is a censorship-resistant, decentralized video platform powered by the Nostr social protocol
The Harsh Realities of Self-Funded Hardware Engineering in the BTC World
As a self-funded hardware engineer diving deep into the realm of Bitcoin (BTC), there are days that hit you like a brick wall. Today is one of those days—demoralizing, frustrating, and a stark reminder of why hardware development isn't for the faint of heart. In software, you can tinker endlessly, hit "recompile," and iterate without much consequence. But hardware? One wrong move, and you're staring at a pile of expensive scrap. This is the gritty reality that very few people outside this niche ever witness. It's not glamorous; it's a grind filled with costly lessons.
This week alone, I've wrecked a second miner. Yeah, you read that right—second. Earlier this week, I blew the power regulator on a board while writing new firmware for the voltage mapping. And it's not from some catastrophic failure or external sabotage. No, this latest one stems from a deceptively tricky task: attempting to remove a heatsink after a botched thermal epoxy application. Unlike thermal paste, which is forgiving and removable, thermal epoxy is designed for permanent bonding—it's not meant to come off without a fight.
All of this is happening as I'm building an immersion cooling system for the miners. The goal? To cool them more effectively, drive up efficiency, or even overclock for higher hashrate. But to get there, I need reliable thermal interfaces, which led to this epoxy experiment. The setup involves SHA256 ASICs—the workhorses behind Bitcoin mining—bonded to a heatsink with thermal epoxy. The aim? Efficient heat dissipation to keep everything running cool and stable. But things went south during the application. Out of the four chips on the board, three were humming along at a comfortable 40°C. The fourth? A scorching 80°C. That's a red flag screaming inefficiency, potential damage, or outright failure if left unchecked.
In my attempt to salvage it, I tried peeling back the heatsink. Spoiler: it didn't go as planned. The hot chip didn't rip off entirely, which is a small mercy, but the damage was done. If you look closely (imagine a photo here with a green circle highlighting the culprit), you'll see the thermal epoxy layer. Right in the center of that problematic chip, there's a glaring gap—a missing patch where the epoxy failed to adhere properly. That void was the root cause of the temperature spike, trapping heat instead of wicking it away. It's a classic case of "now we know," but hindsight comes at a steep price in hardware land.
This isn't just about one ruined miner; it's emblematic of the broader challenges in self-funded projects like this. I've built a million things in BTC hardware over the years, pushing boundaries in every direction. But funding your own R&D means every dollar counts, and mistakes like this can set you back weeks or months. BTC mining hardware is unforgiving and expensive—pushing the limits of efficiency, power consumption, and durability in a decentralized ecosystem.
Why share this? Because the Bitcoin and Nostr and hardware communities often glorify the wins—the successful prototypes, the efficient rigs, the innovative integrations. But the path is littered with failures like this. It's demoralizing, sure, but it's also fuel. Each wrecked board teaches something invaluable: better techniques, more precise methods, or even redesigning interfaces altogether. If you're out there grinding on similar projects, know you're not alone. Press on, iterate (carefully), and remember: in hardware, the "recompile" button is your next prototype.
It's been five years of this solo grind, pouring a fortune into it all while navigating setbacks that leave me feeling utterly drained and overwhelmed on days like today. The truth is, building at this level can't remain a one-person effort forever—the vision is simply too expansive, and the challenges too daunting to shoulder alone. Yet onward we go, trying to find spare parts for this one or eventually sourcing new ones, because in the world of BTC, true advancement requires more than solitary determination; it truly flourishes when compassionate supporters step in to share the load and help turn these visions into reality.
On a lighter note, does anyone have 8 spare Bitmain BM1368 ASIC chips laying about?
This week alone, I've wrecked a second miner. Yeah, you read that right—second. Earlier this week, I blew the power regulator on a board while writing new firmware for the voltage mapping. And it's not from some catastrophic failure or external sabotage. No, this latest one stems from a deceptively tricky task: attempting to remove a heatsink after a botched thermal epoxy application. Unlike thermal paste, which is forgiving and removable, thermal epoxy is designed for permanent bonding—it's not meant to come off without a fight.
All of this is happening as I'm building an immersion cooling system for the miners. The goal? To cool them more effectively, drive up efficiency, or even overclock for higher hashrate. But to get there, I need reliable thermal interfaces, which led to this epoxy experiment. The setup involves SHA256 ASICs—the workhorses behind Bitcoin mining—bonded to a heatsink with thermal epoxy. The aim? Efficient heat dissipation to keep everything running cool and stable. But things went south during the application. Out of the four chips on the board, three were humming along at a comfortable 40°C. The fourth? A scorching 80°C. That's a red flag screaming inefficiency, potential damage, or outright failure if left unchecked.
In my attempt to salvage it, I tried peeling back the heatsink. Spoiler: it didn't go as planned. The hot chip didn't rip off entirely, which is a small mercy, but the damage was done. If you look closely (imagine a photo here with a green circle highlighting the culprit), you'll see the thermal epoxy layer. Right in the center of that problematic chip, there's a glaring gap—a missing patch where the epoxy failed to adhere properly. That void was the root cause of the temperature spike, trapping heat instead of wicking it away. It's a classic case of "now we know," but hindsight comes at a steep price in hardware land.
This isn't just about one ruined miner; it's emblematic of the broader challenges in self-funded projects like this. I've built a million things in BTC hardware over the years, pushing boundaries in every direction. But funding your own R&D means every dollar counts, and mistakes like this can set you back weeks or months. BTC mining hardware is unforgiving and expensive—pushing the limits of efficiency, power consumption, and durability in a decentralized ecosystem.
Why share this? Because the Bitcoin and Nostr and hardware communities often glorify the wins—the successful prototypes, the efficient rigs, the innovative integrations. But the path is littered with failures like this. It's demoralizing, sure, but it's also fuel. Each wrecked board teaches something invaluable: better techniques, more precise methods, or even redesigning interfaces altogether. If you're out there grinding on similar projects, know you're not alone. Press on, iterate (carefully), and remember: in hardware, the "recompile" button is your next prototype.
It's been five years of this solo grind, pouring a fortune into it all while navigating setbacks that leave me feeling utterly drained and overwhelmed on days like today. The truth is, building at this level can't remain a one-person effort forever—the vision is simply too expansive, and the challenges too daunting to shoulder alone. Yet onward we go, trying to find spare parts for this one or eventually sourcing new ones, because in the world of BTC, true advancement requires more than solitary determination; it truly flourishes when compassionate supporters step in to share the load and help turn these visions into reality.
On a lighter note, does anyone have 8 spare Bitmain BM1368 ASIC chips laying about?testing 2
$BTC Tech Nerd Army
ImmergeNerd V1 WiP