Czinger 21C: the world’s first 3D printed hypercar | Top Gear

The Czinger 21C is a 1,233bhp 3D printed hypercar complete with a turbo V8 revving to 11,000rpm, a 1+1 layout and $1.7m price tag. Oh, and the big news is it’s 3D printed. Well, large sections of the chassis are, paving the way for a revolutionary new car manufacturing process that could change… everything. It’s mind-blowing stuff, so let Jack Rix be your guide around California’s Koenigsegg rival.

RaspberryPi 4 Strides Towards ServerReady Status via SBBR-Compliant UEFI Firmware Effort

A firmware project designed to bring the Raspberry Pi 4 to Server Base Boot Requirement (SBBR) compliance is now in v1.1.

A community effort to get the low-cost yet surprisingly powerful Raspberry Pi 4 single-board computer “ServerReady” is bearing fruit, releasing an open-source Unified Extensible Firmware Interface (UEFI) and Advanced Configuration and Power Interface (ACPI) firmware compatible with Arm’s Server Base Boot Requirement (SBBR) specification.

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Crowdfunding an ESP32-Based Phone

Last time we took a look at the WiPhone, back in the middle of last year, the ESP32-based Voice over IP (VoIP) phone was closing in on full funding on Kickstarter. Since then it’s been a bumpy ride for the project towards shipping to its backers. That’s to be expected, as scaling from a single prototype to a full scale production run isn’t easy. Everyone runs into problems with manufacturing, and how you handle that as a startup that is going to decide whether you succeed or fail, not the problems themselves.

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Rare-earth element material could produce world’s smallest transistors

RESEARCH TRIANGLE PARK, N.C. — A material from a rare earth element, tellurium, could produce the world’s smallest transistor, thanks to an Army-funded project.
Computer chips use billions of tiny switches called transistors to process information. The more transistors on a chip, the faster the computer.

A project at Purdue University in collaboration with Michigan Technological University, Washington University in St. Louis, and the University of Texas at Dallas, found that the material, shaped like a one-dimensional DNA helix, encapsulated in a nanotube made of boron nitride, could build a field-effect transistor with a diameter of two nanometers. Transistors on the market are made of bulkier silicon and range between 10 and 20 nanometers in scale.

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