Ergotron, Inc.

Jeffrey Aymond

William Dale Tischer

Nicholas Simon Hazzard

Mustafa A Ergun

Shaun Christopher Lindblad

Jeffrey Randall Mensing

Thomas Peter Pinewski

Jason Charles Jaeger

The present disclosure relates to a workstation and a technique to automatically configure the workstation. The workstation can be used to perform various tasks including but not limited to medication delivery, collection of medical records, patient care, manufacturing operations, and others. The workstation can be configured by the user depending on the tasks to be performed using the workstation. Various sensors (e.g., hall effect sensors, optical sensors, or the like) can be coupled to the workstation, and sensor operators (e.g., magnets, color coded strips, or the like) can be coupled to the modules. By aligning sensor operators with sensors when modules are coupled to the workstation, a configuration (e.g., size, shape, location, or the like) of modules can be automatically detected by the workstation controller. The controller of the workstation can then adapt to perform certain tasks (e.g., lock/unlock drawers, or the like) depending on the detected configuration of modules.

Configuration techniques for an appliance with changeable components

A workstation including a height-adjustable work surface is described. The workstation includes a frame, and the work surface is configured to translate relative to the frame to vary a height of the work surface. A lift assembly configured to assist translation of the work surface relative to the frame. The lift assembly includes a moveable component and translation of the moveable component results in a translation of the work surface relative to the frame. A translation sensor is coupled to one of the frame or the movable component, and it is configured to measure translation of the moveable component relative to the frame. A control circuit is in communication with the translation sensor to determine an amount of translation of the work surface relative to the frame.

Workstation height-adjustment monitoring

A powered furniture system can include at least a first article of powered furniture having a control circuit, a first number of power outlets, and a first identification circuit, and a second article of powered furniture having a second number of power outlets and a second identification circuit. A method of controlling power distribution in the system can include separately communicating with the first and second identification circuits over a communications channel, receiving data representing the first and second numbers of power outlets, determining, using the received data representing the first and second numbers of power outlets, a total number of power outlets in the system, and controlling application of power to the first and second numbers of power outlets using the determined total number of power outlets in the system.

Techniques for controlling A/C power distribution in powered furniture

In an example, a method of controlling power distribution in a powered furniture system including a first article of powered furniture having a first controller and a first number of power outlets and a second article of powered furniture having a second number of power outlets and a second controller can include determining a first total number of power outlets in the system, wherein the first total number of power outlets includes at least the first number of power outlets of the first article of powered furniture. The method can include controlling application of power to the first number of power outlets associated with the first article of powered furniture using the determined first total number of power outlets in the system, and transmitting the first total number of power outlets to a second controller of a second article of powered furniture having a second number of power outlets.

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Burnsville, MN, United States of America

Jeffrey Aymond