Abstract: A food delivery container including a plurality of insulated walls that form a food chamber, and a climate control system. The climate control system includes an air flow pathway and a heating and/or cooling element positioned within the air flow pathway. A fan is in air flow communication with the food chamber through a first inlet opening and a first outlet opening in the one of the plurality of insulated walls. The fan is configured to draw in air from the food chamber through the first inlet opening and push air into the food chamber through the first outlet opening such that air travels through the air flow pathway and over the cooling and/or heating element to circulate heated/cooled air within the food delivery container. The climate control system also includes a power supply configured to supply electrical power to the fan and the cooling/heating element.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a tracking device configured to provide a location and/or to track movement of the handheld X-ray interface device relative to the imaging system, wherein the location or tracked movement of the handheld X-ray interface device is communicated to the imaging system as an input for at least one control function of the imaging system.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and for receiving system operational data from the imaging system, wherein the handheld X-ray interface device is configured to provide a user detectable indication of the imaging system operational status based upon the received data.

Abstract: A system and method for pairing an X-ray system with a wireless device is provided. In one embodiment, a method includes generating a unique pairing code with control circuitry that controls the operation of the X-ray system, providing the unique pairing code to the wireless device in the form of a pulse sequence and receiving a wireless signal indicative of the unique pairing code from the wireless device. The wireless device is then paired and enabled for use with the X-ray system.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a user-viewable screen configured to display patient data and to receive user input.

Abstract: In one embodiment, a portable radiological imaging system includes a portable base station having an X-ray source and a power supply, a wireless X-ray detector configured to receive X-ray radiation from the source and to generate image data based upon the received radiation, and a portable image processing system removably carried by the base station and configured to receive the image data from the detector and to process the image data to produce and display a user-viewable image derived from the image data.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a tracking device configured to provide a location and/or to track movement of the handheld X-ray interface device relative to the imaging system, wherein the location or tracked movement of the handheld X-ray interface device is communicated to the imaging system as an input for at least one control function of the imaging system.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a tracking device configured to provide a location and/or to track movement of the handheld X-ray interface device relative to the imaging system, wherein the location or tracked movement of the handheld X-ray interface device is communicated to the imaging system as an input for at least one control function of the imaging system.

Abstract: A system and method for pairing an X-ray system with a wireless device is provided. In one embodiment, a method includes generating a unique pairing code with control circuitry that controls the operation of the X-ray system, providing the unique pairing code to the wireless device in the form of a pulse sequence and receiving a wireless signal indicative of the unique pairing code from the wireless device. The wireless device is then paired and enabled for use with the X-ray system.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a tracking device configured to provide a location and/or to track movement of the handheld X-ray interface device relative to the imaging system, wherein the location or tracked movement of the handheld X-ray interface device is communicated to the imaging system as an input for at least one control function of the imaging system.

Abstract: In one embodiment, a portable radiological imaging system includes a portable base station having an X-ray source and a power supply, a wireless X-ray detector configured to receive X-ray radiation from the source and to generate image data based upon the received radiation, and a portable image processing system removably carried by the base station and configured to receive the image data from the detector and to process the image data to produce and display a user-viewable image derived from the image data.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and for receiving system operational data from the imaging system, wherein the handheld X-ray interface device is configured to provide a user detectable indication of the imaging system operational status based upon the received data.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and a user-viewable screen configured to display patient data and to receive user input.

Abstract: In one embodiment, an X-ray system includes a handheld X-ray interface device. The handheld X-ray interface device includes a wireless interface for communicating with an imaging system and at least one input device to receive a user-input command for operation of the imaging system, wherein the interface device is configured to communicate the command wirelessly to the imaging system for operation of the imaging system.

Abstract: Systems, processes and apparatus are described through which signals are received from a controller, where the signals include a power ON signal. A time measurement element is started responsive to the power ON signal to assess a current duration of operation of the system. An existing cumulative record of system operation is recalled from a non-volatile memory in the system and the existing cumulative record is combined with the current duration to provide a representation of a running elapsed time, which is recorded in the non-volatile memory and is compared to a threshold to provide an indication when the running elapsed time has traversed the threshold.

Abstract: A status indication device configured for use in an x-ray system is disclosed. The device includes an audio receiver, a processor, a tone generator, and an adjustment mechanism. The audio receiver is configured and disposed to collect audio information surrounding the x-ray system. The processor is coupled to the audio receiver and receptive of a signal representative of the collected audio information. The tone generator is coupled and responsive to the processor and is configured to generate an audio tone in response to a defined status of the x-ray system. The adjustment mechanism is coupled to the tone generator and the processor and dynamically develops a set of audio properties that cause the audio tone to be distinguishable from the collected audio information.

Abstract: A status indication device configured for use in an x-ray system is disclosed. The device includes an audio receiver, a processor, a tone generator, and an adjustment mechanism. The audio receiver is configured and disposed to collect audio information surrounding the x-ray system. The processor is coupled to the audio receiver and receptive of a signal representative of the collected audio information. The tone generator is coupled and responsive to the processor and is configured to generate an audio tone in response to a defined status of the x-ray system. The adjustment mechanism is coupled to the tone generator and the processor and dynamically develops a set of audio properties that cause the audio tone to be distinguishable from the collected audio information.

Abstract: A mammography imaging assembly is provided comprising an imaging frame assembly, a imaging signal generation assembly mounted to the imaging frame, and an imaging detector bucky mounted to the imaging frame assembly. The imaging detector bucky comprises a patient exposure surface facing the imaging signal generation assembly. A thermo sensor assembly is positioned to monitor temperature at the patient exposure surface. A thermo generating element is in thermal communication with the patient exposure surface. A logic is in communication with the at least one thermo sensor assembly and the thermo generating element such that it controls heat generated by the thermo generating element and the temperature of the patient exposure side is controlled. A compression paddle is movably positioned between the imaging signal generation assembly and the imaging detector bucky.

Abstract: A heated patient diagnostic table 10 is provided, including a tabletop 12 and a heater array 14 in communication with the tabletop 12. The heater array 14 includes a conductive polymer coating 16 compatible for use in medical diagnostic imaging systems. The conductive polymer coating 16 is utilized to produce thermal energy capable of heating the tabletop 12 and thereby increase patient comfort.

Abstract: A heated patient diagnostic table 10 is provided, including a tabletop 12 and a heater array 14 in communication with the tabletop 12. The heater array 14 includes a conductive polymer coating 16 compatible for use in medical diagnostic imaging systems. The conductive polymer coating 16 is utilized to produce thermal energy capable of heating the tabletop 12 and thereby increase patient comfort.