Getting Started With CUDA C on an Nvidia Jetson: GPU Architecture
In the previous blog post (Getting Started With CUDA C on Jetson Nvidia: Hello CUDA World!) I showed how to develop applications targeted at a GPU on a Nvidia Jetson Nano. As we observed in that blog post, performing a calculation on a 1-D array on a GPU had no performance benefit compared to a traditional CPU implementation, even on an array with many elements. In this blog post, we will learn about the GPU architecture to better explain the behavior and to understand the applications where a GPU shines (hint: it has to do with graphics).
Getting Started With Embedded Linux - From Nothing To A Login Prompt
This hands-on guide shows how to go from a blank board to a bootable embedded Linux system using Yocto and Docker. Follow the steps to build a reproducible Yocto environment, fetch Toradex manifests, set MACHINE to verdin-imx8mm, run bitbake, and produce the .wic.bmap image ready to flash. Ideal for engineers wanting a concise bringup path for a Verdin iMX8M Mini on a Dahlia carrier.
Development of the MOS Technology 6502: A Historical Perspective
A tiny team at MOS Technology pulled off one of the most influential microprocessor wins of the 1970s, creating the 6502 by marrying clever circuit choices with pragmatic manufacturing techniques. This excerpt by Jason Sachs focuses on the NMOS depletion-load process, mask and layout workflows, and yield-improving tricks like Micralign projection lithography and spot-knocking, showing how engineering and process decisions made a low-cost CPU ubiquitous.
Racing to Sleep
Jason Sachs walks through a realistic field sensor case study, the BigBrotherBear 2000, to show how a careful power budget exposes surprising energy costs. He demonstrates that radios and data transmission often dwarf quiescent MCU current, explains the race-to-sleep principle for computation-bound tasks, and outlines practical wake-up and measurement trade-offs so engineers can extend battery lifetime in real deployments.
NXP LPC17xx/40xx: Decoding the Part ID
Richard Bennett explains how the LPC17xx/40xx part ID is not a simple model number but a packed set of capability flags. The post shows how to call the NXP IAP routine at 0x1FFF1FF1 with command 54 to read the part ID, and how to decode family, group, RAM, flash and feature bits with shifts and masks, including the important interrupt-disable gotcha.
Introduction to Microcontrollers - Ada - 7 Segments and Catching Errors
Mike demos an Ada implementation of a multiplexed 7-segment driver on the STM32F407 Discovery board, highlighting Ada idioms like protected objects for ISRs and packed-boolean GPIO mapping. The post shows practical timer setup for Timer 6, how to avoid ARR/CNT races, and how Ada's runtime range checks plus a last-chance handler surface out-of-range errors with file and line diagnostics.
Coroutines in one page of C
Yossi Kreinin shows how to get usable coroutines in plain C by combining setjmp/longjmp with a bit of inline assembly. The post walks through a working iterator example, explains why you must allocate and switch a separate stack, and outlines the start/yield/next API. It also flags portability pitfalls like stack growth direction and frame pointers, and points to makecontext and Tony Finch alternatives.
Essential Elements to choose a right Processor
Choosing the right processor can feel overwhelming, especially after a project with many viable parts. In this post Sathyanarayana Hadadi condenses practical criteria into a usable checklist for embedded designers, covering speed, hardware accelerators, peripherals, memory, power, security, availability, and tooling. Read on to turn a long shortlist into a confident selection and avoid costly redesigns.
Development of the MOS Technology 6502: A Historical Perspective
A tiny team at MOS Technology pulled off one of the most influential microprocessor wins of the 1970s, creating the 6502 by marrying clever circuit choices with pragmatic manufacturing techniques. This excerpt by Jason Sachs focuses on the NMOS depletion-load process, mask and layout workflows, and yield-improving tricks like Micralign projection lithography and spot-knocking, showing how engineering and process decisions made a low-cost CPU ubiquitous.
Coroutines in one page of C
Yossi Kreinin shows how to get usable coroutines in plain C by combining setjmp/longjmp with a bit of inline assembly. The post walks through a working iterator example, explains why you must allocate and switch a separate stack, and outlines the start/yield/next API. It also flags portability pitfalls like stack growth direction and frame pointers, and points to makecontext and Tony Finch alternatives.
Essential Elements to choose a right Processor
Choosing the right processor can feel overwhelming, especially after a project with many viable parts. In this post Sathyanarayana Hadadi condenses practical criteria into a usable checklist for embedded designers, covering speed, hardware accelerators, peripherals, memory, power, security, availability, and tooling. Read on to turn a long shortlist into a confident selection and avoid costly redesigns.
Racing to Sleep
Jason Sachs walks through a realistic field sensor case study, the BigBrotherBear 2000, to show how a careful power budget exposes surprising energy costs. He demonstrates that radios and data transmission often dwarf quiescent MCU current, explains the race-to-sleep principle for computation-bound tasks, and outlines practical wake-up and measurement trade-offs so engineers can extend battery lifetime in real deployments.
Getting Started With Embedded Linux - From Nothing To A Login Prompt
This hands-on guide shows how to go from a blank board to a bootable embedded Linux system using Yocto and Docker. Follow the steps to build a reproducible Yocto environment, fetch Toradex manifests, set MACHINE to verdin-imx8mm, run bitbake, and produce the .wic.bmap image ready to flash. Ideal for engineers wanting a concise bringup path for a Verdin iMX8M Mini on a Dahlia carrier.
Introduction to Microcontrollers - Ada - 7 Segments and Catching Errors
Mike demos an Ada implementation of a multiplexed 7-segment driver on the STM32F407 Discovery board, highlighting Ada idioms like protected objects for ISRs and packed-boolean GPIO mapping. The post shows practical timer setup for Timer 6, how to avoid ARR/CNT races, and how Ada's runtime range checks plus a last-chance handler surface out-of-range errors with file and line diagnostics.
Getting Started With CUDA C on an Nvidia Jetson: GPU Architecture
In the previous blog post (Getting Started With CUDA C on Jetson Nvidia: Hello CUDA World!) I showed how to develop applications targeted at a GPU on a Nvidia Jetson Nano. As we observed in that blog post, performing a calculation on a 1-D array on a GPU had no performance benefit compared to a traditional CPU implementation, even on an array with many elements. In this blog post, we will learn about the GPU architecture to better explain the behavior and to understand the applications where a GPU shines (hint: it has to do with graphics).
NXP LPC17xx/40xx: Decoding the Part ID
Richard Bennett explains how the LPC17xx/40xx part ID is not a simple model number but a packed set of capability flags. The post shows how to call the NXP IAP routine at 0x1FFF1FF1 with command 54 to read the part ID, and how to decode family, group, RAM, flash and feature bits with shifts and masks, including the important interrupt-disable gotcha.
Coroutines in one page of C
Yossi Kreinin shows how to get usable coroutines in plain C by combining setjmp/longjmp with a bit of inline assembly. The post walks through a working iterator example, explains why you must allocate and switch a separate stack, and outlines the start/yield/next API. It also flags portability pitfalls like stack growth direction and frame pointers, and points to makecontext and Tony Finch alternatives.
Development of the MOS Technology 6502: A Historical Perspective
A tiny team at MOS Technology pulled off one of the most influential microprocessor wins of the 1970s, creating the 6502 by marrying clever circuit choices with pragmatic manufacturing techniques. This excerpt by Jason Sachs focuses on the NMOS depletion-load process, mask and layout workflows, and yield-improving tricks like Micralign projection lithography and spot-knocking, showing how engineering and process decisions made a low-cost CPU ubiquitous.
Introduction to Microcontrollers - Ada - 7 Segments and Catching Errors
Mike demos an Ada implementation of a multiplexed 7-segment driver on the STM32F407 Discovery board, highlighting Ada idioms like protected objects for ISRs and packed-boolean GPIO mapping. The post shows practical timer setup for Timer 6, how to avoid ARR/CNT races, and how Ada's runtime range checks plus a last-chance handler surface out-of-range errors with file and line diagnostics.
Racing to Sleep
Jason Sachs walks through a realistic field sensor case study, the BigBrotherBear 2000, to show how a careful power budget exposes surprising energy costs. He demonstrates that radios and data transmission often dwarf quiescent MCU current, explains the race-to-sleep principle for computation-bound tasks, and outlines practical wake-up and measurement trade-offs so engineers can extend battery lifetime in real deployments.
Getting Started With Embedded Linux - From Nothing To A Login Prompt
This hands-on guide shows how to go from a blank board to a bootable embedded Linux system using Yocto and Docker. Follow the steps to build a reproducible Yocto environment, fetch Toradex manifests, set MACHINE to verdin-imx8mm, run bitbake, and produce the .wic.bmap image ready to flash. Ideal for engineers wanting a concise bringup path for a Verdin iMX8M Mini on a Dahlia carrier.
NXP LPC17xx/40xx: Decoding the Part ID
Richard Bennett explains how the LPC17xx/40xx part ID is not a simple model number but a packed set of capability flags. The post shows how to call the NXP IAP routine at 0x1FFF1FF1 with command 54 to read the part ID, and how to decode family, group, RAM, flash and feature bits with shifts and masks, including the important interrupt-disable gotcha.
Getting Started With CUDA C on an Nvidia Jetson: GPU Architecture
In the previous blog post (Getting Started With CUDA C on Jetson Nvidia: Hello CUDA World!) I showed how to develop applications targeted at a GPU on a Nvidia Jetson Nano. As we observed in that blog post, performing a calculation on a 1-D array on a GPU had no performance benefit compared to a traditional CPU implementation, even on an array with many elements. In this blog post, we will learn about the GPU architecture to better explain the behavior and to understand the applications where a GPU shines (hint: it has to do with graphics).
Essential Elements to choose a right Processor
Choosing the right processor can feel overwhelming, especially after a project with many viable parts. In this post Sathyanarayana Hadadi condenses practical criteria into a usable checklist for embedded designers, covering speed, hardware accelerators, peripherals, memory, power, security, availability, and tooling. Read on to turn a long shortlist into a confident selection and avoid costly redesigns.
