专为临床可靠性而设计的无线技术
Healthcare devices depend on wireless communication that remains predictable, responsive, and energy-efficient in complex RF environments. SPARK LE-UWB™ delivers deterministic timing, ultra-low latency, and ultra-low energy consumption for short-range communication—helping medical device designers transmit time-sensitive data reliably while preserving battery life and product flexibility.
传统无线技术在医疗保健领域的不足之处
医疗保健行业已经超越了传统的无线技术。
Healthcare devices need responsive, energy-efficient communication in complex RF environments. SPARK LE-UWB™ is designed to support predictable, low-latency short-range links while helping designers manage battery life and product constraints.
密集射频环境下的可靠性
医院将Wi-Fi、蓝牙、医疗设备和监控系统集中在同一物理空间内，形成密集且不断变化的射频环境。日益严重的竞争、干扰和多径效应会导致丢包和延迟变化，使稳定的无线性能更难维持。
用于持续监测的电源
可穿戴式和连续监测设备必须在不增加电池容量、设备重量、发热量或充电频率的情况下长时间运行。因此，无线能耗成为制约产品可用性、维护需求和长期监测性能的关键因素。
超越传统无线
随着患者监护变得越来越连续和数据密集，医疗设备越来越依赖于可预测的时间、低延迟和最小的能耗。BLE、Zigbee 和 Wi-Fi 针对不同的运行优先级进行了优化，因此很难在医疗设备的严格限制下实现这些目标。
助力下一代医疗设备的发展
无线医疗，性能毫不妥协
SPARK LE-UWB™ gives medical device designers a predictable, energy-efficient wireless link for applications where timing, continuity, and data integrity matter. It supports extended operation for compact biomedical sensors, cable-free connectivity for portable diagnostic equipment, and consistent communication across dense clinical RF environments. This supports healthcare applications that need timely, predictable data delivery.
Evaluate SPARK LE-UWB™
The SR1120 EVK provides everything needed to bring a working LE-UWB™ wireless link to life before committing to a custom layout. The kit combines the SR1120 transceiver with SPARK’s SDK, Datalink software interface, and application firmware examples, giving engineering teams a direct path from first power-on to a characterized wireless proof of concept.
产品
SR1120，LE-UWB™收发器。
The SR1120 is SPARK’s recommended silicon platform for the healthcare applications featured on this page. Its configurable physical layer, dynamic PHY scaling, and antenna diversity support allow designers to tailor throughput, latency, range, and energy consumption to the specific requirements of each device—while maintaining a common silicon platform as product needs evolve.