Dish Network LLC

Echostar Technologies Corporation

Conmed Corporation

Rodney Davis

Jamie Metzger

Ken Jones

Richard K Thompson

Jim Pantera

Ronald B Shores

Kenneth Jones

Geoffrey Dolan

Robert Wallen

Devices, systems, and processes for testing capacitors are disclosed. A system includes a digital signal processor configured to execute non-transient computer executable instructions for testing a device over at least three operating modes. The operating modes may include a start-up mode, during which the digital signal processor is configured to control initial charging of the device to a desired initial condition, a charge mode, during which the digital signal processor is configured to control replenishment of electrical energy in the device, and a test mode, during which the digital signal processor is configured to control testing of the device in accordance with at least one testing protocol. The device may include an energy capture circuit configured to capture recovered energy arising during a first test cycle and to provide the recovered energy to the device for use during a second test cycle.

Devices, systems and processes for capacitor testing

Various embodiments of the present disclosure describe devices, systems, and processes for testing capacitors. For an embodiment, a system includes a digital signal processor configured to execute non-transient computer executable instructions for testing a device over at least three operating modes. The operating modes may include a start-up mode, during which the digital signal processor is configured to control initial charging of the device to a desired initial condition, a charge mode, during which the digital signal processor is configured to control replenishment of electrical energy in the device, and a test mode, during which the digital signal processor is configured to control testing of the device in accordance with at least one testing protocol. The device may include an energy capture circuit configured to capture recovered energy arising during a first test cycle and to provide the recovered energy to the device for use during a second test cycle.

In various embodiments, a plurality of automated monitoring and control system modules (automated monitoring and control system module) are individually connected to respective receiving devices via the audio and video output ports of each respective receiving device. Each automated monitoring and control system module may be configured to receive a testing program from a centralized monitoring system for the receiving device based on identification data of the receiving device and execute the received testing program for the receiving device. Each automated monitoring and control system module is connected to the centralized monitoring system over a local area network (LAN) or the Internet in order to send testing results, diagnostic data and captured video and audio data for further processing by the centralized monitoring system.

Systems and methods for highly scalable automated testing and monitoring of receiving devices

Semi-autonomously executed routines accomplish the primary functions of electrosurgical energy delivery on a responsive basis for power control purposes and to adapt the delivered output waveform to perform new and better surgical procedures. The routines include and output voltage and output current sampling routine, a control routine for establishing the width of drive pulses used to create the output waveform, a pattern generation routine for establishing the pattern of drive pulses to be delivered in one mode cycle established by a selected mode of operation, a pattern delivery routine for repeatedly delivering sequences of the mode cycle pattern of drive pulses, and a power supply control routine for varying the voltage of the drive pulses in coordination with varying the width of the drive pulses.

Growing community of inventors

Parker, CO, United States of America

Rodney Davis