WiFi

API Interface (AN-10) update to v1.3.1 code for the OPS243, adding new capabilities to the Rolling Buffer mode.

The Field of View calculator is now updated with a graphical representation and lane travel distances calculations.

New AN-29 OPS24x for Sports application note describes API configuration and mounting OPS24x for various sports.

Updated application note AN-28 with simplified instructions for linking OPS9243-A to Verkada Command dashboard and camera.

WiFi OTA code update is now available along with support for making the sensor WiFi connection via SoftAP app (Android or iOS).  AN-10 API Interface application note has been updated along with AN-20-IoT Radar Sensor.

New API commands allow making WiFi connections via the standard API interface.  AN-10 API Interface application note is updated along with AN-20 IoT Radar Sensor.

Pre-orders are now being taken for the OPS9243-A with Power-over-Ethernet interface and support for Verkada cameras.  The traffic monitor reports speed and direction enabling alerts and traffic speed analytics on Verkada Command dashboard.  The OPS9243-A-PE ships in November.

Updated list of Top 10 Radar Projects for Senior Thesis and Capstone Project.

New AN-28 YouTube video explains step by step process to configure OPS9243-A to send speed data into the Verkada Command dashboard.

OPS9243-A with WiFi interface released which can support Verkada LPR cameras to input speed data into Verkada Command dashboard.  New AN-28 application note explains how to set up message flow with reference Node Red data on GitHub.

New Rolling Buffer feature for detection of very high speed events implemented in v1.2.3 of the OPS243-A code.  The Rolling Buffer can be used for capturing bullet muzzle velocity or baseball.  New AN-27 Rolling Buffer application note explains the details and reference Python code to enable and trigger the data capture available on GitHub.  AN-10 API Interface is updated for the new feature.

The Field of View Calculator is updated to provide the width and length of the field of view based on the mounting inputs.  The width relates to the horizontal beamwidth at the field of view center point and the length relates to the vertical beamwidth.