Abstract: A thermal cycler system comprises a sample block configured to receive a sample holder configured to receive a plurality of samples; an adaptor configured to surround a periphery of the sample block; and a drip pan configured to surround a periphery of the adaptor. The drip pan comprises one or more ejector mechanisms and one or more openings, the one or more ejector mechanisms configured to respectively extend through the one or more openings into contact with the sample holder in a state of the sample holder received by the sample block and the adaptor surrounding the periphery of the sample block.

Abstract: A thermal cycler system comprises a sample block configured to receive a sample holder configured to receive a plurality of samples; an adaptor configured to surround a periphery of the sample block; and a drip pan configured to surround a periphery of the adaptor. The drip pan comprises one or more ejector mechanisms and one or more openings, the one or more ejector mechanisms configured to respectively extend through the one or more openings into contact with the sample holder in a state of the sample holder received by the sample block and the adaptor surrounding the periphery of the sample block.

Abstract: A thermal block assembly for use in a biological analysis system includes a sample block, a heating and cooling element, a heat sink including a surface, the surface including a plurality of projections for engaging the heating and cooling element to hold the heating and cooling element on the heat sink. A thermal block assembly for use in a biological analysis system includes a heating and cooling element, a sample block including a lower surface configured to be thermally coupled to the heating and cooling element, one or more temperature sensors configured to extend through the one or more slots of the lower surface of the sample block, and one or more thermal pads between the one or more temperature sensors and heating and cooling element.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block having an upstanding peripheral side wall and being configured to receive the sample holder and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block. When the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder.

Abstract: A system and method are provided for treating an aneurysm or other vessel disease or defect. The present disclosure includes an expandable device for placement in a vessel, where the mechanically expandable device includes a membrane. Also disclosed is a delivery device constructed and arranged to position the expandable device such that the exterior surface of the expandable device engages with the inner surface of the vessel and maintains a fluid pathway through said vessel.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block configured to receive the sample holder, a cover lid configured to move in a direction toward the sample block from an open position to a closed position, a heated cover operatively coupled to the cover lid and configured to move in a direction toward the sample block from a raised position to a first lowered position, in which the heated cover contacts the sample holder when the sample holder is received by the sample block, and a drive assembly including a motion guide configured to move in a direction toward the sample block from a first position, wherein the cover lid is in the open position and the heated cover is in the raised position, to a second position, wherein the cover lid is in the closed position.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block configured to receive the sample holder, a cover lid configured to move in a direction toward the sample block from an open position to a closed position, a heated cover operatively coupled to the cover lid and configured to move in a direction toward the sample block from a raised position to a first lowered position, in which the heated cover contacts the sample holder when the sample holder is received by the sample block, and a drive assembly including a motion guide configured to move in a direction toward the sample block from a first position, wherein the cover lid is in the open position and the heated cover is in the raised position, to a second position, wherein the cover lid is in the closed position.

Abstract: A system and method are provided for treating an aneurysm or other vessel disease or defect. The present disclosure includes an expandable device for placement in a vessel, where the mechanically expandable device includes a membrane. Also disclosed is a delivery device constructed and arranged to position the expandable device such that the exterior surface of the expandable device engages with the inner surface of the vessel and maintains a fluid pathway through said vessel.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block having an upstanding peripheral side wall and being configured to receive the sample holder and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block. When the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block configured to receive the sample holder, a cover lid configured to move in a direction toward the sample block from an open position to a closed position, a heated cover operatively coupled to the cover lid and configured to move in a direction toward the sample block from a raised position to a first lowered position, in which the heated cover contacts the sample holder when the sample holder is received by the sample block, and a drive assembly including a motion guide configured to move in a direction toward the sample block from a first position, wherein the cover lid is in the open position and the heated cover is in the raised position, to a second position, wherein the cover lid is in the closed position.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block having an upstanding peripheral side wall and being configured to receive the sample holder and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block. When the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block configured to receive the sample holder, a cover lid configured to move in a direction toward the sample block from an open position to a closed position, a heated cover operatively coupled to the cover lid and configured to move in a direction toward the sample block from a raised position to a first lowered position, in which the heated cover contacts the sample holder when the sample holder is received by the sample block, and a drive assembly including a motion guide configured to move in a direction toward the sample block from a first position, wherein the cover lid is in the open position and the heated cover is in the raised position, to a second position, wherein the cover lid is in the closed position.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block configured to receive the sample holder, a cover lid configured to move in a direction toward the sample block from an open position to a closed position, a heated cover operatively coupled to the cover lid and configured to move in a direction toward the sample block from a raised position to a first lowered position, in which the heated cover contacts the sample holder when the sample holder is received by the sample block, and a drive assembly including a motion guide configured to move in a direction toward the sample block from a first position, wherein the cover lid is in the open position and the heated cover is in the raised position, to a second position, wherein the cover lid is in the closed position.

Abstract: A thermal cycler system for use with a sample holder configured to receive a plurality of samples includes a sample block having an upstanding peripheral side wall and being configured to receive the sample holder and an adaptor having an upstanding peripheral side wall configured to be positioned about the peripheral side wall of the sample block. When the peripheral side wall of the adaptor is positioned about the peripheral side wall of the sample block and the sample holder is received in the sample block, the peripheral side wall of the adaptor extends in an upward direction toward the sample holder.

Abstract: A thermal block assembly for use in a biological analysis system includes a sample block, a heating and cooling element, a heat sink including a surface, the surface including a plurality of projections for engaging the heating and cooling element to hold the heating and cooling element on the heat sink. A thermal block assembly for use in a biological analysis system includes a heating and cooling element, a sample block including a lower surface configured to be thermally coupled to the heating and cooling element, one or more temperature sensors configured to extend through the one or more slots of the lower surface of the sample block, and one or more thermal pads between the one or more temperature sensors and heating and cooling element.

Abstract: A system and method are provided for treating an aneurysm or other vessel disease or defect. The present disclosure includes an expandable device for placement in a vessel, where the mechanically expandable device includes a membrane. Also disclosed is a delivery device constructed and arranged to position the expandable device such that the exterior surface of the expandable device engages with the inner surface of the vessel and maintains a fluid pathway through said vessel.

Abstract: Communication equipment includes a circuit generating an RF input signal; a PA receiving a supply voltage, receiving the RF input signal, and providing an amplified version of the RF input signal as an output signal that is associated with an output power of the communication equipment; and an output circuit that includes an antenna for transmitting the output signal. The communication equipment also includes: a voltage detector circuit including sensing circuitry for sensing the supply voltage and a comparator for comparing the supply voltage to a first voltage threshold and generating a control signal when the supply voltage exceeds the first voltage threshold; and a disabling circuit coupled to the voltage detection circuit for disabling a portion of the communication equipment in response to the control signal to maintain output power of the communication equipment below a maximum output power level.

Abstract: A method and circuit are described for estimating I and Q amplitude imbalance occurring in a signal received by a direct conversion receiver (DCR). The DCR generates a mixing signal having a frequency substantially the same as the carrier signal of the signal received by an antenna. A mixing module mixes the mixing signal at different phases with the received signal to generate I and Q baseband signals. A frequency offset circuit generates an offset signal having a frequency offset from the carrier signal frequency. A coupling circuit selectively decouples the antenna from the DCR and couples the offset signal to the mixing module to generate a baseband test signal in the I and Q signal paths for determining an imbalance in the amplitudes of the baseband test signals between the I and Q signal paths.

Abstract: Communication equipment includes a circuit generating an RF input signal; a PA receiving a supply voltage, receiving the RF input signal, and providing an amplified version of the RF input signal as an output signal that is associated with an output power of the communication equipment; and an output circuit that includes an antenna for transmitting the output signal. The communication equipment also includes: a voltage detector circuit including sensing circuitry for sensing the supply voltage and a comparator for comparing the supply voltage to a first voltage threshold and generating a control signal when the supply voltage exceeds the first voltage threshold; and a disabling circuit coupled to the voltage detection circuit for disabling a portion of the communication equipment in response to the control signal to maintain output power of the communication equipment below a maximum output power level.

Abstract: A circuit (100) comprising an antenna (105) for receiving a carrier signal modulated by a data signal, a direct conversion receiver (180) for receiving the modulated carrier signal, a signal generator circuit (140, 145, 150) arranged to generate a mixing signal having a frequency substantially the same as the carrier signal, a mixing module (125i, 125q) having an in-phase and a quadrature phase signal path (120i, 120q) arranged to mix the mixing signal at different phases with the received modulated carrier signal in order to generate an in-phase and a quadrature baseband signal, a frequency offset circuit (155, 200) arranged to generate an offset signal having a frequency offset from the frequency of the carrier signal, a coupling circuit (170a, 170b, 170c) arranged to selectively decouple the antenna from the direct conversion receiver and to couple the offset signal to the mixing module in order to generate a baseband test signal in the in-phase and quadrature signal paths for determining an imbalance in t