Abstract: Systems and methods of transmitting heat out a medical imaging device are disclosed herein. In one embodiment, a medical imaging device includes a housing having electronics and a heat sink. The heat sink is positioned near a first end of the housing, a groove that is configured to receive at least a portion of an operator's hand is positioned at a second end of the housing. A heat pipe in the housing extends from the electronics toward the first end of the housing and is configured to transfer heat produced by the electronics toward the heat sink and away from the groove.

Abstract: Systems and methods of transmitting heat out a medical imaging device are disclosed herein. In one embodiment, a medical imaging device includes a housing having electronics and a heat sink. The heat sink is positioned near a first end of the housing, a groove that is configured to receive at least a portion of an operator's hand is positioned at a second end of the housing. A heat pipe in the housing extends from the electronics toward the first end of the housing and is configured to transfer heat produced by the electronics toward the heat sink and away from the groove.

Abstract: Systems and methods of transmitting heat out a medical imaging device are disclosed herein. In one embodiment, a medical imaging device includes a housing having electronics and a heat sink. The heat sink is positioned near a first end of the housing, a groove that is configured to receive at least a portion of an operator's hand is positioned at a second end of the housing. A heat pipe in the housing extends from the electronics toward the first end of the housing and is configured to transfer heat produced by the electronics toward the heat sink and away from the groove.

Abstract: Systems and methods providing clocking between various components or sub-components are shown. Embodiments implement an implied clock technique which reduces the number of signal lines, signaling overhead required for an encoded clock signal, and/or and power consumption for a high speed communication link. In accordance with embodiments efficient communication is provided between a core device and a remote device by the core device providing both clock and data signals to the remote device and the remote device providing a data signal at a predetermined clock rate without communicating its clock signal. The core device of this embodiment determines an “implied clock” suitable for accurately receiving data from the remote device.

Abstract: Systems and methods providing clocking between various components or sub-components are shown. Embodiments implement an implied clock technique which reduces the number of signal lines, signaling overhead required for an encoded clock signal, and/or and power consumption for a high speed communication link. In accordance with embodiments efficient communication is provided between a core device and a remote device by the core device providing both clock and data signals to the remote device and the remote device providing a data signal at a predetermined clock rate without communicating its clock signal. The core device of this embodiment determines an “implied clock” suitable for accurately receiving data from the remote device.

Abstract: Systems and methods providing clocking between various components or sub-components are shown. Embodiments implement an implied clock technique which reduces the number of signal lines, signaling overhead required for an encoded clock signal, and/or and power consumption for a high speed communication link. In accordance with embodiments efficient communication is provided between a core device and a remote device by the core device providing both clock and data signals to the remote device and the remote device providing a data signal at a predetermined clock rate without communicating its clock signal. The core device of this embodiment determines an “implied clock” suitable for accurately receiving data from the remote device.