Taoglas Group Holdings Limited

Exaktime Innovations, Inc.

Christopher M Anderson

Matthew K Dunham

Anthony Henryk Pappas

Scott K Prewett

Myles Christensen

Eric R Renken

Casey P Powers

John K O'Hara

Dustin L Morris

Described are multi-band panel antennas which are configurable to have heavy-duty construction and which are fully IP67 waterproof. Suitable applications for the disclosed antennas include internet of things (IoT) gateway and IoT routers, HD video streaming, transportation, and remote monitoring applications. Additionally, the antennas can deliver MIMO coverage technology for worldwide 4G LTE bands at 698 to 960 MHz/1710 to 2170 MHz/2490 to 2690 MHz/3300 to 3600 MHz, Satellite Band, dual-band 2.4/5.8 GHz WiFi, and GNSS (GPS-GLONASS-BeiDou).

Multi-band MIMO panel antennas

Disclosed are systems and methods for improving the quality and strength of a wireless signal connecting a mobile station and a base station, in situations where the mobile station is able to utilize a directional antenna. The system for improving system quality comprise, for example, a directional antenna; an antenna power level detector which detects a signal strength; a signal inverter wherein the signal inverter generates a conditioned signal from the detected signal strength; an indicator wherein the indicator provides an indicator of a signal quality level from the detected signal strength; a reorientation decision logic wherein the reorientation decision logic communicates an instruction for movement of the directional antenna, wherein the detected signal strength is correlated to a projected orientation of the directional antenna at a time the signal strength is detected, and further wherein an antenna orientation control loop communicates a reorientation instruction for the directional antenna.

Directional antenna with signal strength feedback and methods

Disclosed are devices, systems and methods employing a directional antenna with a single rotational degree of freedom and using multiple signal-quality measurements to define best orientation with respect to a remote communication point and to align the antenna along the highest-signal-quality path. This simplifies alignment upon installation and facilitates higher signal levels, resulting in more reliable communication and higher data throughput.

Directional antenna arrays and methods

An antenna mountable directly into an aperture in a body panel of, for example, a vehicle is disclosed. The antenna elements can be flat, substantially flat or pre-contoured to match a specific curve of a body panel. As a result the antenna is positionable within a body panel hole or aperture so that the antenna sits flush with the body panel and can be sanded and painted like any other portion of the body panel so that, once painted, the antenna panel is not visibly distinguishable from the body panel. Suitable antennas include, for example, slot radiators and patch antenna. Antennas can be a rigid PCB, a flex PCB, a ceramic element or metal stamping.

Antenna systems and methods for incorporating into a body panel

Disclosed are devices configurable with, for example, the location and motion of satellites can be configured to drive actuators connected to the motion of a steerable device. A steerable device may be augmented, for example, with gears or drivers to drive orientation, sensors to report current position and a mechanism to lock the device in place for the duration of the steering process such that power gears from the device mesh and can drive gears in the steerable device. Signals from the device intelligently guide the actuators to steer the orientation of the steerable device towards a satellite selected by a person or algorithm. Upon completion of the steering of steerable device by the device, the device can be detached, leaving the steerable device locked in place and fully functional as a steerable device, while also leaving the device capable if engaging with another similarly steerable device.

Steering systems and methods

Antenna

Disclosed are devices configurable with the location and motion of satellites can be configured to drive actuators connected to the motion of a steerable device. A steerable device may be augmented, for example, with gears or drivers to drive orientation, sensors to report current position and a mechanism to lock the device in place for the duration of the steering process such that power gears from the device mesh and can drive gears in the steerable device. Signals from the device intelligently guide the actuators to steer the orientation of the steerable device towards a satellite selected by a person or algorithm. Upon completion of the steering of steerable device by the device, the device can be detached, leaving the steerable device locked in place and fully functional as a steerable device, while also leaving the device capable if engaging with another similarly steerable device.

A system and method for tracking and communicating time and attendance data for workers at a remote worksite is disclosed. A portable time and attendance device is configured to receive and store worker time attendance data and transmit the data to a remote computer via a wireless network, such as a wireless cellular communications network. In order to conserve battery power, a main unit of the device periodically queries an electronic time and attendance clock of the device according to a pre-established schedule to determine if new worker time and attendance data has been received. If so, according to the pre-established schedule, the new worker time and attendance data is transmitted to the remote computer via the wireless network. Otherwise, certain functions and components of the device remain in a low battery usage sleep mode.

Growing community of inventors

Minneapolis, MN, United States of America

Christopher M Anderson