The next-generation distributed runtime that eliminates OTA bottlenecks. Deploy bootloaders, bitstreams, and RTOS kernels directly to bare-metal architectures with zero friction.
[00:00.012] Handshake established with target node (10.244.18.9)
[00:00.045] Memory map validated: Flash Base 0x08000000 (2048 KB partitioned)
[00:00.089] Delta compression payload: 14.8 MB → 842 KB
Whether you are flashing low-power edge microcontrollers, open-source RISC-V compute fabrics, or high-throughput x86 industrial telemetry nodes.
Full support for Cortex-M0+/M3/M4/M7, Cortex-A series, STM32, NXP i.MX, and Apple Silicon toolchains.
Optimized flashing for SiFive, ESP32-C3/C6, Milk-V, and open-source RV32I/RV64GC development systems.
Reliable bare-metal BIOS/UEFI & microkernel provisioning across Intel Atom, Elkhart Lake, and AMD Ryzen Embedded.
Powering Automated Flashing Pipelines For Global Fleets
Eliminate hardware deployment friction with a purpose-built embedded software stack that accelerates OTA updates, maximizes compute efficiency, and preserves flash endurance.
Accelerate bare-metal provisioning and over-the-air updates with atomic block flashing. Binary delta diffing compresses transfers down to 8% of full images.
Execute sandboxed WebAssembly and deterministic micro-services directly on microcontrollers without requiring heavy POSIX or container layers.
Preserve physical NOR/NAND flash memory life cycles. Dynamic wear-leveling and lightweight log-structured file allocation protect remote field deployments.
EdgeFlash supports JTAG, SWD, CAN-bus, SPI, I2C, and USB-DFU bridge interfaces out of the box.
Tested on industrial ARM Cortex-M7 and RISC-V RV64 hardware clusters under identical network and electrical impedance conditions.
Sustained payload delivery over USB-CDC & high-baud UART
Sector write and verify performance across 32MB QSPI Flash
Time elapsed from command trigger to target reboot execution
| Flashing Engine | Payload Type | Sector Erase | Verification | RAM Overhead | Failure Rate |
|---|---|---|---|---|---|
| ⚡ EdgeFlash 2.4 Native | Delta Binary (Diff) | 14 ms (Direct Block) | Hardware SHA256 | 42 KB | < 0.001% |
| OpenOCD + Pipe | Raw .hex Image | 380 ms (Erase All) | CRC32 Polling | 1.8 MB | 0.42% |
| Standard DFU Bridge | Monolithic .bin | 220 ms (Bulk) | Readback Loop | 512 KB | 0.28% |
| esptool v4 (Serial) | Compressed Bin | 180 ms (Sector auto) | MD5 Checksum | 2.2 MB | 0.19% |
Engineered with zero-cost abstractions, first-class memory safety, and native idiomatic bindings for modern embedded development stacks.
Installs the standalone binary compiler, probe engine, and device rules directly to your shell environment.
Probes attached debuggers (JTAG, SWD, CMSIS-DAP) and autodetects silicon core memory layouts.
Streams delta-compressed firmware blocks and attaches instant RTT / UART terminal output.
// Cargo.toml: edgeflash = { version = "2.4", features = ["async-tokio"] }
use edgeflash::{FlashSession, DeviceTarget, Transport};
use std::path::Path;
#[tokio::main]
async fn main() -> Result<(), edgeflash::Error> {
// Connect to attached debug probe using JTAG/SWD
let session = FlashSession::builder()
.target(DeviceTarget::Stm32H753)
.transport(Transport::Swd { speed_khz: 12_000 })
.verify_checksum(true)
.connect().await?;
// Execute high-speed atomic flashing with delta diffing
let report = session.flash_file(Path::new("build/firmware.bin")).await?;
println!("Firmware burned: {} KB in {} ms", report.bytes_written / 1024, report.duration_ms);
// Warm reboot into active application slot
session.reset_and_run().await
}
// CMake: find_package(EdgeFlash REQUIRED) && target_link_libraries(main edgeflash::core)
#include <edgeflash/engine.hpp>
#include <iostream>
int main() {
using namespace edgeflash;
auto probe = Probe::open_first_available();
FlashConfig config {
.target = TargetFamily::RISCV_ESP32C3,
.clock_freq_hz = 20'000'000,
.delta_compression = true
};
auto flasher = FlashEngine::create(probe, config);
auto status = flasher.write_image("release_v2.bin", 0x08000000);
if (status.is_ok()) {
std::cout << "Flash completed successfully! Latency: " << status.elapsed_ms() << "ms\n";
flasher.reboot_system();
}
return 0;
}
# pip install edgeflash-py
import edgeflash
from edgeflash import Architectures, Interfaces
# Connect via USB-to-JTAG Adapter
device = edgeflash.Device(
arch=Architectures.CORTEX_M4,
interface=Interfaces.SWD,
auto_erase=True
)
device.connect()
print(f"Target hardware identified: {device.chip_id}")
# Atomic write with delta-compression & verification
stats = device.flash("./firmware/app_latest.bin", verify=True)
print(f"Wrote {stats.bytes} bytes in {stats.duration_ms} ms. Verified: {stats.sha256_match}")
device.reset()
In-depth research papers, threat modeling documentation, and engineering field studies on scaling mission-critical edge deployments to millions of concurrent nodes.
Detailed mathematical model of byte-level delta compression and multi-path packet reassembly algorithms under 40% simulated cellular packet loss.
Reference implementation blueprints for factory-floor flashing, secure element key injection (HSM), and Arm TrustZone/eFuse attestation.
How a tier-one automotive OEM decreased fleet OTA update failure rates from 3.2% to 0.0018% while slashing satellite backhaul bandwidth costs by 84%.
Our interactive developer docs feature full Rust, C++, and Python SDK method signatures, JTAG/SWD pinout diagrams, flash memory partitioning calculators, and error recovery matrices.
Scale with hardened guarantees. From dedicated silicon porting engineers to air-gapped on-premise cluster orchestration and strict safety compliance frameworks.
Sub-15 minute response times for Severity-1 incidents, guaranteed flashing pipeline uptime, and dedicated embedded systems engineers on call.
Custom probe development, proprietary memory controllers, FPGA bitstream routing, and bootloader customization designed to your pinout specs.
Deploy EdgeFlash control planes directly in air-gapped factory testbeds, isolated VPCs, bare-metal rack hardware, or self-hosted Kubernetes.
Built for stringent environments with certified ASIL-D tool qualifications, FIPS 140-3 cryptography, automated SBOM exports, and SOC 2 Type II reports.
| Deployment Tier | Hosting Model | HSM & Key Custody | Fleet Telemetry | Dedicated Support |
|---|---|---|---|---|
| ☁️ Managed Cloud | Multi-Region AWS/GCP Edge Hubs | AWS KMS / HashiCorp Vault | EdgeFlash Live Dashboard | Standard Business Hours |
| 🏢 Dedicated VPC | Single-Tenant Isolated Cluster | BYO Cloud HSM Key Pairs | Prometheus / Datadog Native Exporters | 24/7 Slack / Teams Bridge |
| ⚡ Air-Gapped Factory Strict Zero-Trust | 100% Offline On-Premises | Hardware YubiHSM / Thales Luna | Local Syslog & SIEM Pipelines | Designated TAM & Field Engineer |
Regularly audited by independent tier-one cybersecurity and automotive assessment labs. Full V-model documentation packages available upon NDA execution.
Custom Master Service Agreements (MSAs) & NDA templates ready for corporate legal procurement.
Download the open-source CLI compiler for your local workbench, or request a custom silicon evaluation unit with dedicated BSP engineering support.
Compatible with Linux (x86_64, aarch64), macOS (Apple Silicon, Intel), & Windows WSL2