December 15, 2023
Harnessing the Power of Flux for Industrial Sensing Applications
Share
BuildWithFlux
If this sounds interesting to you and you'd like to request a demo or learn more, please contact sales.
Flux stands out in the PCB design industry, adhering to three core principles: promoting reusability, fostering collaboration, and keeping the designer focused. The emphasis on reusability allows individuals and organizations to amplify their impact. Users can leverage the work of others in the community by using templates, modules, or example projects, saving time and resources. This approach to PCB design not only streamlines the development process but also fosters a collaborative environment where designers can share and build upon each other's work, leading to more innovative and efficient designs. By keeping these principles at the forefront, Flux ensures that designers remain focused on what's most important, allowing them to deliver high-quality, effective PCB solutions for complex industrial sensing applications.
Our PCB design projects, showcased below, are not just innovative solutions but also serve as reusable modules in Flux. Each module is carefully crafted to ensure it can be easily adapted and used by anyone in the community. These modules exemplify the principle of reusability, allowing other designers to leverage our work for their own applications, fostering a collaborative and efficient approach to PCB design.
We developed a high-precision light intensity measurement system using the TSL25911FN. Flux Copilot played a crucial role in optimizing the layout for minimal interference and maximum sensitivity, ensuring accurate light measurement critical in quality control systems within manufacturing processes.
The PCA9615 was the cornerstone of our design for reliable long-distance I²C communication in noisy industrial environments. By leveraging Flux, we successfully mitigated EMI effects, making this design essential for large-scale industrial automation networks.
Utilizing the MLX90640ESF-BAA-000-TU, we crafted a sophisticated thermal imaging sensor. Flux was instrumental in the design, allowing for intricate circuitry that handles the high data throughput and thermal management required for accurate imaging. This sensor has become a game-changer in industrial safety and process monitoring, providing critical thermal data in real-time.
The PGA300ARHHR was the key component in our design of a high-precision pressure sensor system. This sensor is now widely used in fluid dynamics control in various industrial applications, demonstrating its versatility and reliability.
Our design using the VL53L0CXV0DH revolutionized short-range distance measurement in industrial settings. The layout and routing capabilities in Flux allowed us to maximize the sensor's range and accuracy, making it ideal for applications like inventory management and automated guided vehicles.
Incorporating the VL6180X, we developed a versatile multi-range sensor, adept at handling both proximity and ambient light measurement. Thanks to Flux's precision in PCB layout, we achieved a compact design that is now crucial in space-constrained industrial environments, particularly in robotics and assembly lines.
The VL53L1X enabled us to push the boundaries of long-range sensing. This sensor offers exceptional range and accuracy, which is now integral in large-scale automation and monitoring systems.
Our VL53L4CD-based design marked a significant advancement in high-resolution imaging sensors. Leveraging Flux's capabilities, we engineered a PCB that supports complex data processing, essential for applications like precision mapping and 3D modeling in industrial scenarios.
The TMF8801-1BM was central to our innovative time-of-flight sensor design. With Flux, we've enabled us to layout the board more efficiently, resulting in a sensor that excels in real-time positioning and collision avoidance in automated systems.
Using the TMF8820-1AM, we designed a sensor specifically for efficient object detection. The measurement tool in Flux allowed us to create a design that provides high-accuracy detection, making it ideal for safety and surveillance applications in industrial environments.
Our TCS3200D-TR-based design focused on high-fidelity color detection. We achieved a design that offers remarkable color sensing discrimination, essential in quality control processes in industries like textiles and printing.
The ISL29125IROZ-T7 allowed us to develop a high-performance light sensor. This sensor is used extensively in ambient light measurement and color balancing in industrial displays.
In our design with the AFBR-S50LV85D, we specialized in long-range laser measurement. This sensor isideal for applications requiring precise distance measurements, such as in warehouse logistics.
The AR0144CS was the foundation for our high-resolution CMOS sensor. Using Flux, we developed a PCB that supports complex image processing algorithms, crucial for detailed visual inspections in automated manufacturing processes.
Our design using the VCNL3040 redefined proximity sensing in industrial environments. With Flux, we crafted a compact and efficient layout, resulting in a sensor widely used in machinery safety and user interface applications.
The LTR-390UV-01 led to our breakthrough in UV light sensing. Thanks to Flux's layout design tool, we created a sensor that accurately measures UV light intensity, crucial for monitoring and controlling industrial processes involving UV curing and sterilization.
Using the QRE1113, we developed a reflective sensor adept at detecting object presence and positioning. This sensor offers high sensitivity and reliability, essential in applications like conveyor belt control and product sorting in manufacturing lines.
Our design with the GP2Y0D805Z0F focused on compact distance measurement solutions. Thanks to Flux, we were able to create a tiny yet highly effective sensor used in applications where space is at a premium, such as in handheld devices and robotics.
The design journey for each of these modules presented unique challenges, underscoring the versatility and adaptability required in the field of PCB design, particularly when using Flux.
These challenges and others like them were addressed through innovative design approaches, leveraging Flux’s capabilities in layout design and component integration. By overcoming these hurdles, we were able to create modules that are not only effective in their specific applications but also versatile enough to be adapted for a wide range of uses in the industrial sector.
The future of industrial sensing is marked by rapid technological advancements and a shift towards smarter, more efficient systems. Integration of IoT and AI technologies is transforming sensors into intelligent devices capable of real-time data analysis and decision-making. Miniaturization remains a key trend, with sensors getting smaller yet more powerful, catering to space and energy-efficient needs in diverse industrial applications.
Emerging materials and manufacturing techniques promise to enhance sensor sensitivity and durability, crucial for extreme industrial environments. Customization and flexibility in sensor design are increasingly important, enabling quick adaptation to specific industrial needs. This is where tools like Flux, promoting reusability and collaboration, become vital.
Additionally, environmental sustainability and data security are becoming critical considerations in sensor development and deployment. As sensors become more interconnected, ensuring secure and reliable data transmission is paramount.
In conclusion, the industrial sensing landscape is evolving towards more adaptable, intelligent, and sustainable solutions, with immense potential for innovation and impact in various industrial sectors.
We'd love to hear about your experiences with industrial sensor designs or any inquiries you might have. If you're looking for expert advice or services in PCB design, feel free to contact us or join our Slack channel and share with our community of 2,000 and growing. Together, we’ll change the future of PCB design!
Keep Innovating!
Looking for a comprehensive guide to ESP8266 pinout? Check out our article that covers everything you need to know about the ESP8266's pins, including digital, analog, and PWM pins. Perfect for beginners and experts alike, our guide will help you understand the ESP8266's pinout and how to use it in your projects.
In this article, we will explore Arduino Uno's fundamental concepts, specifications, and its comprehensive pinout details including programming with the Arduino IDE.
In this article, we will provide a comprehensive guide to the Raspberry Pi pinout diagram, including a description of each pin and its functions.
Describes Flux.ai's process of enabling 'noUncheckedIndexedAccess' in their TypeScript codebase. This setting enhances type safety by enforcing checks for possible 'undefined' values but introduces numerous type errors in a large codebase. To manage this, Flux.ai used heuristics and automation to suppress new errors with '!' and automate fixes using a provided script.
This article provides a comprehensive guide on pull-up and pull-down resistors, emphasizing their importance in establishing a known voltage level on microcontroller pins. It explains how to implement these resistors in Arduino circuits, discussing functions like pinMode and digitalRead. It also dives into real-world applications, voltage dividers, and tips for avoiding common mistakes.
Electronics, whether in a phone or an industrial motor, face potential threats from unchecked electrical currents. Our guide introduces protection circuits, the essential safeguards that monitor and respond to such electrical anomalies.
We’re excited to announce our partnership with Ultra Librarian to bring millions of high quality and trustworthy components directly to the Flux ecosystem. This partnership marks a big step towards bringing together all semiconductor manufacturers, distributors, engineers, and the whole hardware industry.
Effortlessly calculate parallel and series resistor values with our accurate, user-friendly tool designed to optimize circuit performance and streamline electrical design processes.
