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The Internet of Things (IoT) is transforming how devices communicate, interact, and deliver value. Innovative IoT product design is at the heart of this transformation, enabling connected solutions that improve efficiency, convenience, and user experience. Designing IoT products requires a blend of hardware, software, and connectivity expertise to create seamless, reliable, and scalable solutions. In this article, we explore the key aspects of IoT design solutions that drive

In today’s competitive market, turning a product idea into a real, scalable solution requires more than innovation—it requires precision manufacturing, supply-chain intelligence, and reliable engineering execution. This is where EMS outsourcing solutions  become essential, especially for companies working in IoT product engineering , industrial IoT and automation , and embedded systems development . By leveraging expert EMS providers, businesses can streamline production, red

Estimated Reading Time: 10–15 Minutes Author: Vijay Kumar Sanugondla, Embedded Engineer at Eurth Tech Over-the-air (OTA) firmware updates are the backbone of IoT product engineering , powering everything from industrial automation platforms to AI-powered embedded systems  deployed across smart utilities, agriculture, and smart city solutions . OTA enables manufacturers to roll out new features, patch security vulnerabilities, and enhance device performance — all without physi

In today's rapidly evolving technological landscape, the Internet of Things (IoT) has become a cornerstone of smart infrastructure solutions , powering industries, cities, and critical digital ecosystems. With billions of connected devices generating massive amounts of data, the importance of security cannot be overstated. Now, with the rise of quantum computing, traditional cryptographic methods are at risk — making post-quantum cryptography (PQC)  essential for securing Io

In the evolving landscape of digital technology, understanding how data is collected, processed, and secured is critical. For companies building IoT product engineering , embedded systems development , smart infrastructure solutions , and AI-powered embedded systems , data collection is not just an add-on — it is the operational backbone that drives automation, intelligence, and reliability. This article breaks down the technical mechanisms behind website data collection and

By [Employee Name]/[Designation] at EurthTech Published on July 10, 2025 The Real-World Problem Let’s say you're developing a smart fitness band —an example of modern embedded systems development  and IoT product engineering . It needs to: Continuously read accelerometer + heart rate data Push updates via BLE Display information on an OLED Stay alive for a week And run TinyML gesture detection using Edge AI in embedded devices All on something like an Apollo4 Blue or STM32L

In today’s fast-paced manufacturing landscape, efficiency, precision, and innovation  are key to staying ahead. One of the most effective ways to achieve these goals is through professional electronics design outsourcing . By leveraging embedded systems development  and IoT product engineering expertise , manufacturers can optimize production, reduce costs, and accelerate time-to-market. This blog explores how electronics design outsourcing  can revolutionize your manufacturi

Insurance fraud is a persistent challenge that affects both insurers and policyholders. Insurers face significant financial losses due to fraudulent claims, while honest customers experience higher premiums as a result. As part of the broader digital transformation for infrastructure , artificial intelligence (AI)  and AI-powered embedded systems  are now playing a pivotal role in helping insurers detect and prevent such fraudulent activities with greater precision and speed.

GPS (Global Positioning System) is one of the most transformative technologies enabling modern smart infrastructure solutions  and IoT product engineering . It allows precise localization and tracking across industries — from navigation and logistics to smart pole technology  and geospatial engineering services . In this blog, let’s understand how GPS localization  works, its key components, and its limitations — and how it fits into the broader ecosystem of AI-powered embed

In the evolving landscape of IoT and embedded systems development , data security and privacy are not just legal obligations—they are pillars of trust and brand integrity. A well-structured privacy policy defines how data is collected, used, and protected, forming a vital part of smart infrastructure solutions  that depend on secure, connected systems. At EurthTech , we believe that a transparent privacy policy reflects a company’s dedication to digital transformation for inf

How Open Hardware Security Labs Are Making Embedded Products Stronger In 2025, even a ₹500 IoT gadget carries Wi-Fi, Bluetooth, OTA updates, and a microcontroller running “secure” firmware. But here’s the uncomfortable truth: Most devices look  secure on paper but collapse the moment someone attacks the hardware directly. It doesn’t take a nation-state attacker — just a motivated engineer with curiosity and the right tools. Examples? A 200-nanosecond voltage glitch  bypassing

In the last decade, vehicles whether electric or internal combustion stopped being purely mechanical machines. They’ve quietly become networked, software-driven computing platforms on wheels . A modern EV or ICE vehicle now contains: 50–150 ECUs Dozens of CAN/LIN networks GPS, LTE, and BLE modules Cloud telemetry connections OTA update systems ADAS cameras and sensors Battery management controllers Motor inverters with independent firmware Yet, here’s the irony: Most fleet o

How factories, OEMs and automation companies are deploying low-cost machine vision, defect detection and robotics perception using open frameworks. Modern production lines rely on eyes, not human operators.Whether it is detecting a missing washer on an assembly line, reading QR codes on cartons, validating PCB solder joints or rejecting damaged packaging, machine vision drives quality and throughput. For a long time, factories depended on proprietary vision systems – expensi

Why factory automation, QC systems, retail scanners and warehouse sorting machines rely on professional imaging sensors not just algorithms. Most engineering teams begin computer vision with Raspberry Pi cameras, USB webcams or entry-level CMOS modules. These are excellent for prototyping and proof-of-concept demos, especially combined with open frameworks like OpenCV, YOLO or TensorFlow Lite. However, when a vision system becomes a product —not a project—the requirements are

When a rocket launches, everyone watches. But once the dust settles and a satellite begins its life in orbit, the most important engineering challenge quietly begins: Can it talk to Earth? Satellites don’t survive because they’re in space — they survive because they stay in contact . Commands from ground Telemetry from orbit Payload data downlinks Emergency beacons One faulty antenna, one miscalculated link budget — and a multi-crore mission becomes a silent piece of metal ci

In the age of smart infrastructure solutions  and IoT product engineering , EMI control isn’t just about passing certification — it’s about ensuring reliability, interoperability, and public safety . From smart pole technology  to industrial automation systems , electromagnetic compatibility ensures that devices coexist without interference — a key requirement for smart city technology partners  and embedded systems developers  delivering scalable, mission-critical designs. A

In product engineering, performance gets attention. Safety  gets approvals. A prototype that works is great. A product that passes safety testing is what reaches the market. We see it all the time: A smart-home device works beautifully — but fails creepage/clearance spacing. A wearable is perfectly functional — but fails leakage current limits. A sensor node runs fine — but power supply isolation doesn’t meet IEC rules. A PCB is reliable — but the documentation pack for CE ma

Every IoT founder eventually learns a painful truth: If your product has a battery, the rules are stricter than the electronics. A PCB failure burns money. A battery failure burns reputation — and sometimes property. Whether it’s a wearable, tracker, EV telematics device, industrial sensor, medical wearable, drone, or consumer gadget — battery certification is mandatory for global shipment . Most startups focus on: battery capacity weight charging speed backup duration But th

In consumer electronics, a component failure means an irritated user.In aerospace, defense, EV powertrains, or medical systems , a single fault can trigger mission aborts, safety hazards, or multi-crore recalls. The deeper truth? Electronics rarely die suddenly — they degrade silently. They pass factory tests, but fail in the field when stakes are highest. And that’s where semiconductor reliability engineering  transforms products into trusted systems . Thanks to open-source

In modern electronics, performance limits no longer come from silicon speed — they come from packaging . As processors, power modules, and RF front-ends shrink, thermal density rises, parasitic effects grow, and mechanical reliability margins collapse .A PCB alone is no longer enough. Today’s real-world systems — EV power modules, industrial controllers, AI accelerators, and satellite electronics — depend on advanced packaging and assembly design  to survive. For decades, thi