Turn Your Smart Electronic Product
Ideas to Reality.

Your all-in-one partner for the design, development, and manufacturing of electronic products.

Edge AI
Real-time AI at the edge for faster insights and better security.
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Connectivity
Enabling network access and cloud connectivity for electronic devices
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Electronic Product Design
Build smart electronic devices
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Cloud Computing
Custom cloud apps for faster, scalable business growth.
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Circuit Design

Prototyping

Firmware Development

PCB Design

Manufacturing

Cloud Development

Product Development Process

Product Development Process.

Requirement Gathering

Our Requirement Gathering process starts with client consultation to understand your needs and goals. We then proceed to requirement analysis to ensure clarity and feasibility. Next, we meticulously document these requirements in the specification documentation phase. Finally, we seek your approval to confirm that our understanding is accurate, ensuring a solid foundation for development.

Design and Prototyping

Our process for designing an IoT product includes several key stages. We start with concept design, where we create initial design concepts and sketches. Then, we move to hardware design to develop components such as sensors and microcontrollers. In firmware development, we ensure proper functionality and cloud communication. Software design involves developing the operating system and applications. We also handle cloud development for data storage and remote access. Security planning is integrated at every level to protect against vulnerabilities. Finally, we build prototypes to test and refine the design.

Development and Testing

Our Development and Testing process involves several critical steps. First, we handle hardware development, where we develop and assemble all hardware components. Next, in firmware development, we integrate and test the firmware with the hardware to ensure everything functions properly. Software development follows, with a focus on developing and integrating software components. We then proceed with cloud integration to enable seamless communication and data transfer between the device and the cloud. Rigorous security testing is conducted to identify and resolve any vulnerabilities. The integration phase ensures that all hardware, firmware, and software components work together smoothly. Finally, we conduct thorough testing to identify and fix any issues related to hardware, firmware, and cloud connectivity.

Production and Manufacturing

Our Production and Manufacturing process includes several key steps. We begin with sourcing components, where we gather all the necessary materials and components. Next, we move to mass production, setting up processes to manufacture the IoT product efficiently. We then implement quality control measures to ensure that every product meets our high standards. Finally, we focus on security implementation to ensure that all security measures are integrated during production.

Deployment and Maintenance

Our Deployment and Maintenance process involves several essential steps. We start with deployment, releasing the IoT product to the market. We then provide regular firmware updates to fix bugs and introduce new features. Cloud management is crucial for maintaining and updating the cloud infrastructure to ensure continuous service and data security. We implement Over-the-Air (OTA) updates for seamless firmware and software updates without user intervention. Continuous security monitoring is conducted to identify and mitigate security threats and vulnerabilities. Finally, we offer ongoing maintenance and support to address any issues and enhance the product.

Lifecycle Management

Our Lifecycle Management process includes key elements to ensure the longevity and relevance of the product. We focus on updates and upgrades, providing regular updates to keep the product current. Timely security patches are also essential to protect against emerging threats. Finally, we plan for end-of-life management, which includes responsible recycling and disposal of the product.

Applications Enriching Human Lives

Healthcare
Remote patient monitoring, smart wearables, and advanced telemedicine solutions.
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Automotive
Connected cars, real-time traffic monitoring, and predictive maintenance.
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Manufacturing
Smart factories, industrial automation, Industry 4.0, and equipment monitoring.
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Agriculture
Precision farming, livestock monitoring, and smart irrigation systems.
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Retail
Inventory management, smart shelves, and personalized shopping experiences.
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Smart Homes
Home automation, security systems, and energy management.
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Energy and Utilities
Smart grids, energy consumption monitoring, and predictive maintenance.
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Transportation and Logistics
Fleet management, asset tracking, and supply chain optimization.
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Environmental Monitoring
Air quality monitoring, water quality management, and weather prediction.
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Smart Cities
Traffic management, waste management, and public safety.
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The Technologies We Specialize

Wireless Protocols

Wi-Fi, Bluetooth, BLE, Zigbee, Z-Wave, LoRaWAN, 4G LTE CAT 1, 4G LTE CAT M1, 4G LTE NB IoT, Sigfox, Thread


Wired Protocols

Ethernet, Modbus, CAN, RS-232, RS-485, I2C, SPI, USB, PROFINET, EtherCAT



Microcontrollers

8-bit, 16-bit, 32-bit, 64-bit, 8051, ARM, MIPS, Microchip, Atmel, TI, ST, Renesas, Nordic, Nuvoton


Sensors

Analog, Digital, Temperature, Pressure, Proximity, Light, Motion, Humidity, Accelerometers, Gyroscopes, Magnetic Field, Gas, Sound, Touch, Image, Voltage, Current

Display

LCD, TFT, OLED, ePaper, LED, Touchscreen, Seven Segment



Cloud

Google cloud, AWS, Azure, MQTT, Web Server



News and Blogs

Understanding RF Circuits in High-Speed PCB Design

Understanding RF Circuits in High-Speed PCB Design Published on October 10, 2024 Radio Frequency (RF) circuits are crucial in recent electronics, supporting various applications such as communication systems, radar, and radio frequency identification (RFID). Analyzing and processing RF circuits in high-speed PCB design presents unique challenges. This article will discuss

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Storing MQTT Data in a Database: A Comprehensive Guide

Storing MQTT Data in a Database: A Comprehensive Guide Published on Oct 01, 2024 Introduction to MQTT MQTT (Message Queuing Telemetry Transport) is a lightweight messaging protocol widely used in IoT (Internet of Things) systems for device-to-device or device-to-cloud communication. MQTT operates on a publish/subscribe model, where devices (clients) publish

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Essential UI Design Principles for IoT Websites

Essential UI Design Principles for IoT Websites Published on Sept 19, 2024 ( Image by freepik ) As the Internet of Things (IoT) rapidly expands across industries, creating intuitive and user-friendly websites for managing connected devices has become increasingly important. Unlike traditional websites, IoT sites must facilitate complex interactions between

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