Trending...
- Tacoma: Applications Now Being Accepted for Four Positions on the Planning Commission
- JEGS Launches Modern, Secure Payments Powered by PhaseZero.ai
- Jet Set: The Ultimate Coachella Afterparty
Copperhill Technologies, a provider of embedded systems for CAN Bus development, introduced a new line of small form factor Classical CAN and CAN FD interfaces operating under embedded Linux. The interface boards are based on the popular Raspberry Pi series of CPU modules, and they support programming in Python and C.
GREENFIELD, Mass. - Washingtoner -- Copperhill Technologies offers a great variety of Classical CAN and CAN FD HATs for the Raspberry Pi, which support the development of automotive and industrial applications. The newest members of that product line were designed with a small form factor in mind.
The CANPico module is a carrier board for the Raspberry Pi Pico. The Raspberry Pi Pico is a tiny, fast, and adaptable board built using the RP2040, a dual-core Arm Cortex-M0+ processor with 264KB internal RAM and support for up to 16MB of off-chip Flash.
More on Washingtoner
The CANPico board is soldered onto the Pico, connecting the Raspberry Pi to a CAN Bus controller and transceiver, ready for connection to a CAN Bus network via a simple screw terminal. In addition, the CANPico carries an instrument header with the CAN H and CAN L signals and the digital RX and TX signals for use with an oscilloscope or logic analyzer. Software support is via an open-source MicroPython SDK.
The open-source MicroPython SDK from Canis Labs implements a sophisticated CAN API, including priority-inversion free drivers, 1μs accuracy timestamps, large buffers, and an API for triggering a logic analyzer or oscilloscope. Support for communicating to a host device over USB (via the MIN protocol) enables applications like bus logging or even using a CANPico as a PC CAN interface. The SDK also includes the CANHack toolkit for low-level error injection. The SDK allows Python code to operate on the dual-core RP2040 microcontroller of the Raspberry Pi Pico. It responds in real-time to CAN Bus data traffic with times measured in microseconds rather than milliseconds, making it an excellent platform for hardware-in-the-loop test and emulation.
More on Washingtoner
The PiCAN FD Zero HAT provides CAN Bus FD capability for the Raspberry Pi Zero. The Raspberry Pi Zero is a single-board mini-computer, mainly used to design embedded systems for IoT projects. The economical price, small size, and open-source design of this module make it a suitable pick for various applications.
The PiCAN FD Zero HAT uses the Microchip MCP2518FD CAN controller with MCP2562FD CAN transceiver. The CAN_N and CAN_L connection is made via a four-way plug-in terminal block. Also, onboard is a 1A SMPS that supplies power to the PiCAN FD and Pi Zero board.
Both boards, the CANPico and the PiCAN FD Zero HAT, come with extensive documentation, i.e., user manual, schematics, and programming samples.
The CANPico module is a carrier board for the Raspberry Pi Pico. The Raspberry Pi Pico is a tiny, fast, and adaptable board built using the RP2040, a dual-core Arm Cortex-M0+ processor with 264KB internal RAM and support for up to 16MB of off-chip Flash.
More on Washingtoner
- Meet Joseph Neibich aka Joseph Nybyk of Beachwood Canyon
- City of Spokane And City Council Announce 2026 Washington State Legislative Outcomes
- LARUS Launches Business Continuity Framework for IPv4-Dependent Networks
- KeysCaribbean Offers 'Skip-the-Crowds' Savings With 15 Percent Off April Stays
- Supply & Demand Chain Executive Names Puga Sankara as Recipient of 2026 Pros to Know Award
The CANPico board is soldered onto the Pico, connecting the Raspberry Pi to a CAN Bus controller and transceiver, ready for connection to a CAN Bus network via a simple screw terminal. In addition, the CANPico carries an instrument header with the CAN H and CAN L signals and the digital RX and TX signals for use with an oscilloscope or logic analyzer. Software support is via an open-source MicroPython SDK.
The open-source MicroPython SDK from Canis Labs implements a sophisticated CAN API, including priority-inversion free drivers, 1μs accuracy timestamps, large buffers, and an API for triggering a logic analyzer or oscilloscope. Support for communicating to a host device over USB (via the MIN protocol) enables applications like bus logging or even using a CANPico as a PC CAN interface. The SDK also includes the CANHack toolkit for low-level error injection. The SDK allows Python code to operate on the dual-core RP2040 microcontroller of the Raspberry Pi Pico. It responds in real-time to CAN Bus data traffic with times measured in microseconds rather than milliseconds, making it an excellent platform for hardware-in-the-loop test and emulation.
More on Washingtoner
- Tacoma: Applications Sought for the City's Events and Recognitions Committee
- AI Disruption Meets Marine Scale: Off The Hook YS, Inc. (N Y S E American: OTH) Targets Breakout Growth with NextBoat Launch and Aggressive Expansion
- Targeting the Billion-Dollar U.S. Countermeasure Market With AI-Driven Biodefense Platform: Lunai Bioworks (N A S D A Q: LNAI)
- New Global Standard for Transparency Across Critical Resources and Energy Markets: SMX (Security Matters) PLC (N A S D A Q: SMX)
- Forced Psychiatric Hospitalization Fails Vulnerable People: CCHR Urges Repeal Amid Rising U.S. Policies
The PiCAN FD Zero HAT provides CAN Bus FD capability for the Raspberry Pi Zero. The Raspberry Pi Zero is a single-board mini-computer, mainly used to design embedded systems for IoT projects. The economical price, small size, and open-source design of this module make it a suitable pick for various applications.
The PiCAN FD Zero HAT uses the Microchip MCP2518FD CAN controller with MCP2562FD CAN transceiver. The CAN_N and CAN_L connection is made via a four-way plug-in terminal block. Also, onboard is a 1A SMPS that supplies power to the PiCAN FD and Pi Zero board.
Both boards, the CANPico and the PiCAN FD Zero HAT, come with extensive documentation, i.e., user manual, schematics, and programming samples.
Source: Copperhill Technologies Corporation
0 Comments
Latest on Washingtoner
- Tony Grundler Introduces Artificial Intelligence V.S. Avatar-Ian's
- Spokane: US 195 Project To Improve Traffic Safety
- Hollywood's Elite Gather at the Annual WOW Creations Oscars Gifting Suite at the Universal Hilton
- Where Were the Women? Reframing the Greek Revolution Through Contemporary Art
- 5 Practical Ways to Increase Nitric Oxide Naturally
- JGCMGS Details Architecture to Safeguard Assets From Unauthorized Phishing Scams
- JEGS Launches Modern, Secure Payments Powered by PhaseZero.ai
- 21 Days: The Malta Deadline That Could Redraw the Finnish Online Casino Map
- U.S. Government Contracts in Excess of 38 Million Secured Through Partner, Establishing Multi-Year Defense Revenue Platform Through 2032: $BLIS
- New Report Reveals Surprising Trends in Ohio Airport Accidents
- Why Your Berberine Failed: RevGenetics Unveils the Absorption Gap Solution
- WCC Kitchens and Cabinets Featured on Selling Houses Australia
- Cat Hunt Simulator : Burrow & Pounce Lands on the App Store
- Shincheonji Marks 42nd Anniversary: From a Basement to a Denomination Growing by Tens of Thousands Annually
- Jackets for Jobs Hosts Smart & Sexy® Day Detroit for Women's History Month
- Tint Academy Training in Dallas Texas: Learn Window Tint & PPF Installation
- $IBG accelerates toward transformative merger with BlockFuel as $6 million raise fuels dual-industry growth strategy: N A S D A Q: IBG
- High-Growth Power Infrastructure Play Targets AI Boom: 1606 Corp. Executes Aggressive Texas Expansion Strategy: 1606 Corp. (Stock Symbol: CBDW) $CBDW
- Accelerating the Transformation into a U.S. Nuclear Fuel Cycle Leader: Frontier Nuclear and Minerals Inc. (N A S D A Q: FNUC)
- Market Fell -3.01% last month on Iran Fears — Discover How AI Returned +5.64% for Retail Investors





