Laird Connectivity Combines Bluetooth LE and Ultra-Wideband (UWB) in a Seamless Solution for Proximity and Pinpoint Accuracy with the Sera NX040
Precise, Granular Positioning and Processing for Medical and Industrial IoT Devices
Our line up of innovative new Ultra-wideband modules seamlessly integrate cutting edge UWB silicon from NXP, with the processing and Bluetooth LE capabilities of Nordic Semiconductor’s nRF52 SoC. The combination of the two enables significant advancements in granularity of location that improves existing Bluetooth LE beaconing and RSSI-based ranging. They’re optimised for battery-powered implementations and integrate additional memory, crystals and components to simplify your overall BOM and drive down the cost of integration.
This comprehensive hardware approach is complimented by a range of added value software, Python scripting capabilities, and cloud and mobile tools. Whether your application is hosted or hostless, we have options to suit your application’s needs, as well as your engineering team’s capabilities. All of this is then backed by our industry leading technical support, design services, and test services to to help you simply implement UWB in your next project.
The time has come for Ultra-wideband (UWB) to grow beyond the consumer and automotive segments into mainstream IoT devices. Our innovative integration of the best wireless silicon from NXP and Nordic Semiconductor has produced the secure, flexible Sera NX040 range.
The series features tightly integrated hardware and RF designs, all optimized for low power operation and reducing the need for external clocks, filters and components. Already using Bluetooth LE for basic beaconing or RSSI-based ranging? Now, easily advance to the next level with NFC and UWB for more granular locationing and positioning. This granularity yields much higher accuracy compared to RSSI-only proximity applications in industrial environments.
The Nano UWB Series antenna is the first antenna which has been designed to operate with the Sera NX040 UWB module. Ultra-wideband (UWB) is a short-range, high bandwidth wireless technology which enables applications that require high-speed data transfer or for precise location tracking application. UWB transmits and receives signals across an exceptionally broad frequency range.
The Laird Connectivity NanoUWB antenna features a rigid printed circuit board (PCB) that supports UWB implementations. The adhesive backed antenna can be used in space sensitive applications with aesthetically pleasing integration and high durability.
Laird Connectivity is honored to be approved as an NXP Gold Partner! We look forward to working with the NXP team to deliver the solutions our customers need in an ever changing wireless future. Please follow the link for more information.
Use UWB tags to track machines and equipment on vast factory floors to maximize efficiency and reduce costs. UWB can help factories track the location and movement of valuable assets, such as tools, machinery, and inventory in real time. This enables efficient asset utilization, reduces downtime, and enhances inventory management.
Users can access maps on their smartphones or navigation devices powered by UWB. These highly accurate indoor navigation services can guide people through hospitals, parking garages, and airports. These systems provides real-time guidance, including turn-by-turn directions, to their desired destinations.
UWB can enable quick, accurate tracking of inventory to increase productivity, deter theft, and provide more control of the overall supply chain process. UWB-based tracking can provide real-time visibility into inventory levels and the movement of goods throughout the production process.
UWB-based sensors and systems can collect data on various manufacturing processes, enabling real-time monitoring and optimization. This data can be used for predictive maintenance, energy efficiency improvements, and process automation.
UWB sensors can be integrated with machinery and equipment to monitor their health and performance. This helps in predicting maintenance needs, reducing unplanned downtime, and extending the lifespan of critical assets.
|Bluetooth, WiFi||Signal Strength||7-10m|
|WiFi||Time of Flight||2-5m|
|UWB||Time of Flight||5cm|
Precise, Granular Positioning and Processing for Medical and Industrial IoT Devices
You’re probably familiar with UWB as the location technology made famous by consumer devices such as Apple AirTags. But this technology is broadly applicable as a solution to MANY problems – and in many industries as well.
Coming Soon: Sera NX040 UWB & Bluetooth LE Modules
The functionality of a UWB transmitter revolves around emitting billions of pulses (formerly recognized as "pulse radio") across an expansive frequency spectrum. Subsequently, a corresponding receiver deciphers these pulses into usable data by identifying a recognizable pulse sequence transmitted by the emitter. These pulses are dispatched at a rate of approximately one every two nanoseconds, contributing to UWB's capacity for real-time precision.
UWB exhibits remarkable energy efficiency, while its substantial bandwidth of 500MHz renders it well-suited for transmitting substantial amounts of data from a central device to peripheral ones, covering distances of up to around 30 feet. Nevertheless, unlike Wi-Fi, UWB does not excel in propagating through obstacles such as walls.
UWB Anchors have stationary, predetermined positions registered within the positioning system. They receive signals emitted by UWB Tags. Multiple UWB Anchors capture signals from a single UWB Tag. The system records the time it takes for the signal to travel from the Tag to the Anchor (referred to as Time-of-Flight).
GPS functions as a satellite-oriented navigation system, enabling the determination of a lost item's location over extended distances. On the other hand, UWB, a more recent wireless communication technology, utilizes an expansive bandwidth to furnish precise location details for items that have been misplaced in close proximity.
UWB offers a data-transfer capability with an effective range of up to 25 meters, outperforming its competitor Bluetooth technology, which provides an effective range of only approximately 10 meters.
The successful implementation of UWB radar technology hinges on how UWB signals propagate through walls. These signals experience not only attenuation but also distortion due to the dispersive characteristics of the walls when passing through them.
UWB's precision is restricted to short distances, imposing a limitation on its capacity to be applied across a wider range of scenarios.
UWB systems exhibit the capacity to monitor a greater quantity of tagged assets across extended distances with heightened precision in comparison to Wi-Fi-based systems. While a Wi-Fi-based Real-Time Location System (RTLS) might ascertain the presence of your assets within a designated room, UWB systems excel in providing precise location details within that room for each individual asset.
Ultra-wideband, often referred to as UWB, ultrawide band, or ultraband, constitutes a short-range wireless communication protocol that harnesses radio waves to facilitate seamless device-to-device communication. While bearing a resemblance to Bluetooth, UWB surpasses it in terms of precision, dependability, and efficiency.
UWB, an abbreviation for Ultra Wide Band, functions as a concise wireless communication protocol for tracking object locations over short distances. Its operation involves pinpointing positions with ~5cm accuracy by gauging the time it takes for brief radio pulses to traverse between two devices.
fira is the industry consortium that defines the UWB ranging specification and certifies products for the purposes of interoperability. The name stands for "fine ranging".
There are various levels of fira membership as listed at the link below
Laird Connectivity is an adopter member of fira.
fira membership is required to access specifications (fira intellectual property) and to certify end products.
Laird Connectivity is committed to the long-term supply of all its standard embedded wireless modules and packaged products. Laird Connectivity’s products are specifically designed to meet the needs of the industrial and medical markets, which typically require 7 – 10 years product lifecycle. Although Laird Connectivity can’t guarantee that a component used in our products will not be obsoleted and cannot be reasonably substituted, Laird Connectivity can assure customers we will continue to sell our product when we have customer demand and can obtain the necessary components to build our products.