mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic probe assembly for use in an ultrasonic system , comprising: a handle configured to be handheld, the handle including a housing that defines a chamber (20-1); a carriage slidably coupled to the housing in the chamber, the carriage configured to longitudinally move along the housing between a first position and a second position, the carriage having an operator arm (22-1) configured to be operable by a user to move the carriage between the first position and the second position; an ultrasonic catheter having a catheter sheath and an ultrasonic core wire , the ultrasonic catheter having a proximal end portion (26-1) and a distal end portion (26-2); an ultrasonic transducer positioned in the chamber of the housing, the ultrasonic transducer being connected to the proximal end portion of the ultrasonic catheter, and the ultrasonic transducer being connected to the carriage, wherein the ultrasonic transducer is configured to longitudinally move in the chamber of the housing between a retracted position and an extended position coincident with a corresponding longitudinal movement of the carriage, and wherein the ultrasonic catheter moves coincident with a longitudinal movement of the ultrasonic transducer. a handle configured to be handheld, the handle including a housing that defines a chamber (20-1); a carriage slidably coupled to the housing in the chamber, the carriage configured to longitudinally move along the housing between a first position and a second position, the carriage having an operator arm (22-1) configured to be operable by a user to move the carriage between the first position and the second position; an ultrasonic catheter having a catheter sheath and an ultrasonic core wire , the ultrasonic catheter having a proximal end portion (26-1) and a distal end portion (26-2); an ultrasonic transducer positioned in the chamber of the housing, the ultrasonic transducer being connected to the proximal end portion of the ultrasonic catheter, and the ultrasonic transducer being connected to the carriage, wherein the ultrasonic transducer is configured to longitudinally move in the chamber of the housing between a retracted position and an extended position coincident with a corresponding longitudinal movement of the carriage, and
Apparatus for processing data comprising: processing circuitry to perform processing operations under control of program instructions; and decoder circuitry to decode said program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said decoder circuitry is responsive to at least one context-data-dependent program instruction and context data to generate said control signals to control said processing circuitry to perform a context-data-dependent processing operation specified by said context-data-dependent program instruction and said context data, wherein said decoder circuitry is responsive to a context save instruction: when said context data is marked as having been used to control a context-data-dependent processing operation, to control said processing circuitry to save said context data to a data location; and when said context data is marked as having been unused to control a context-data-dependent processing operation, to control said processing circuitry to save default context data to said data location, wherein said default context data is default floating point configuration data. processing circuitry to perform processing operations under control of program instructions; and decoder circuitry to decode said program instructions to generate control signals to control said processing circuitry to perform said processing operations; wherein said decoder circuitry is responsive to at least one context-data-dependent program instruction and context data to generate said control signals to control said processing circuitry to perform a context-data-dependent processing operation specified by said context-data-dependent program instruction and said context data, wherein said decoder circuitry is responsive to a context save instruction: when said context data is marked as having been used to control a context-data-dependent processing operation, to control said processing circuitry to save said context data to a data location; and when said context data is marked as having been unused to control a context-data-dependent processing operation, to control said processing circuitry to save default context data to said data location, wherein said default context data is default floating point configuration data. when said context data is marked as having been used to control a context-data-dependent processing operation, to control said processing circuitry to save said context data to a data location; and when said context data is marked as having been unused to control a context-data-dependent processing operation, to control said processing circuitry to save default context data to said data location, wherein said default context data is default floating point configuration data.
A method of fabricating a cross-layer pattern in a layered object, the method being executed by an additive manufacturing system and comprising: dispensing a patterning material onto a receiving medium to form a first pattern element dispensing a first layer of modeling material onto said first pattern element, and a second layer of modeling material onto said first layer, while forming a first open cavity exposing at least a portion of said first pattern element beneath said layers of modeling material, said first open cavity being a stepped cavity; dispensing patterning material within said stepped cavity onto said exposed portion of said first pattern element and a wall of said stepped cavity to form, below an upper surface of a topmost layer of said stepped cavity, a second pattern element contacting said first pattern element; and leveling said topmost layer of said stepped cavity; thereby forming a cross-layer pattern of said patterning material. dispensing a patterning material onto a receiving medium to form a first pattern element dispensing a first layer of modeling material onto said first pattern element, and a second layer of modeling material onto said first layer, while forming a first open cavity exposing at least a portion of said first pattern element beneath said layers of modeling material, said first open cavity being a stepped cavity; dispensing patterning material within said stepped cavity onto said exposed portion of said first pattern element and a wall of said stepped cavity to form, below an upper surface of a topmost layer of said stepped cavity, a second pattern element contacting said first pattern element; and leveling said topmost layer of said stepped cavity; thereby forming a cross-layer pattern of said patterning material.
An apparatus, comprising: a medical probe configured to be inserted into a body cavity; a location sensor in the medical probe operating in a sensor coordinate system; and a processor configured: to receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the body cavity comprising open space and body tissue; to receive, from the medical probe, a signal indicating a location of a distal tip of the medical probe; to register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the indicated location; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. a medical probe configured to be inserted into a body cavity; a location sensor in the medical probe operating in a sensor coordinate system; and a processor configured: to receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the body cavity comprising open space and body tissue; to receive, from the medical probe, a signal indicating a location of a distal tip of the medical probe; to register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the indicated location; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. to receive, from an imaging system operating in an image coordinate system, a three-dimensional image of the body cavity comprising open space and body tissue; to receive, from the medical probe, a signal indicating a location of a distal tip of the medical probe; to register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the indicated location; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space.
An access multiplexer comprising: a plurality of ports which are connected to access network terminals ; a plurality of domain masters , each of which performs a master function on one of the ports of the access multiplexer ; a switch which is connected to the plurality of the domain masters ; wherein the ports are connected to the network terminals via bundle cables , wherein crosstalk occurs within the bundle cables , characterized in that the domain masters are synchronized at a pre-determined frequency of less than 10 kHz to reduce the crosstalk occurring in the bundle cables , wherein the communication of the terminals with the domain masters is synchronized without sending or receiving a clock signal, wherein each domain master is configured to accept communication from the corresponding terminal using a protocol being able to communicate with the domain master in at least one of a plurality of transmission opportunities, wherein one period of the frequency the domain masters are synchronized with is divided into this plurality of transmission opportunities. a plurality of ports which are connected to access network terminals ; a plurality of domain masters , each of which performs a master function on one of the ports of the access multiplexer ; a switch which is connected to the plurality of the domain masters ; wherein the ports are connected to the network terminals via bundle cables , wherein crosstalk occurs within the bundle cables , characterized in that the domain masters are synchronized at a pre-determined frequency of less than 10 kHz to reduce the crosstalk occurring in the bundle cables , wherein the communication of the terminals with the domain masters is synchronized without sending or receiving a clock signal, wherein each domain master is configured to accept communication from the corresponding terminal using a protocol being able to communicate with the domain master in at least one of a plurality of transmission opportunities, wherein one period of the frequency the domain masters are synchronized with is divided into this plurality of transmission opportunities.
An electronic apparatus comprising: a transceiver configured to wirelessly connect to an external apparatus; and a processor configured to: control the transceiver to transmit a control command for turning off the external apparatus to the external apparatus in response to an input corresponding to a power off command of the electronic apparatus being received, and turn off the electronic apparatus, in response to a user input to turn on the electronic apparatus being received while the electronic apparatus is turned off, control the transceiver to enter into a discoverable mode, and in response to an inquiry or a request for connection being received from the external apparatus, control the transceiver to transmit a response to the external apparatus, wherein the control command is generated according to a profile of a short range communication. a transceiver configured to wirelessly connect to an external apparatus; and a processor configured to: control the transceiver to transmit a control command for turning off the external apparatus to the external apparatus in response to an input corresponding to a power off command of the electronic apparatus being received, and turn off the electronic apparatus, in response to a user input to turn on the electronic apparatus being received while the electronic apparatus is turned off, control the transceiver to enter into a discoverable mode, and in response to an inquiry or a request for connection being received from the external apparatus, control the transceiver to transmit a response to the external apparatus, wherein the control command is generated according to a profile of a short range communication. control the transceiver to transmit a control command for turning off the external apparatus to the external apparatus in response to an input corresponding to a power off command of the electronic apparatus being received, and turn off the electronic apparatus, in response to a user input to turn on the electronic apparatus being received while the electronic apparatus is turned off, control the transceiver to enter into a discoverable mode, and in response to an inquiry or a request for connection being received from the external apparatus, control the transceiver to transmit a response to the external apparatus, wherein the control command is generated according to a profile of a short range communication.
Electrical contact element comprising a contact pin and a spring-action clamping element which is fastened to the contact element and has a clamping spring arm for making clamping contact with a braided conductor end between the clamping area of a contact-making section of a connection block of the contact element and the clamping spring arm , wherein the clamping element has at least one holding arm with an end-side encompassing section by way of which the spring-action clamping element is fastened to the connection block of the contact element with a form fit, characterized in that the encompassing section of the holding arm encompasses the outer contour of the contact pin in the fastening region of the contact-making section which is designed in the form of a cylindrical casing with a round or square cross section, and the encompassing section is designed in an L or C shape.
An evaporative personal air cooler, comprising: a housing with a top panel, a bottom panel, and side panels defining an interior of the evaporative air cooler; a water tank with a liquid inlet and a liquid outlet, wherein liquid enters the water tank through the liquid inlet and exits the water tank through the liquid outlet; a misting structure in liquid communication with the water tank and configured to create a mist within the evaporative air cooler; a filter structure having a plurality of filters positioned substantially parallel to each other and defining air gaps between the plurality of filters, wherein the filter structure is adjacent the bottom panel and at least one of the side panels; a fan configured to draw ambient air into the evaporative air cooler and direct the ambient air through the filter structure and out of the evaporative air cooler, wherein the evaporative air cooler is configured to cool the ambient air with the mist before exiting the evaporative air cooler; and the misting structure distributes the mist into the ambient and onto the plurality of filters characterized in that the water tank is positioned adjacent the top panel and at least one of the side panels and configured to receive, store, and release liquid; and further comprising a shroud adjacent to an underside of the water tank , wherein the shroud is v-shaped and directing the mist toward a top portion of the filter structure and through the filter structure . a housing with a top panel, a bottom panel, and side panels defining an interior of the evaporative air cooler; a water tank with a liquid inlet and a liquid outlet, wherein liquid enters the water tank through the liquid inlet and exits the water tank through the liquid outlet; a misting structure in liquid communication with the water tank and configured to create a mist within the evaporative air cooler; a filter structure having a plurality of filters positioned substantially parallel to each other and defining air gaps between the plurality of filters, wherein the filter structure is adjacent the bottom panel and at least one of the side panels; a fan configured to draw ambient air into the evaporative air cooler and direct the ambient air through the filter structure and out of the evaporative air cooler, wherein the evaporative air cooler is configured to cool the ambient air with the mist before exiting the evaporative air cooler; and the misting structure distributes the mist into the ambient and onto the plurality of filters characterized in that the water tank is positioned adjacent the top panel and at least one of the side panels and configured to receive, store, and release liquid; and further comprising a shroud adjacent to an underside of the water tank , wherein the shroud is v-shaped and directing the mist toward a top portion of the filter structure and through the filter structure .
A method performed by one or more processors configured with specific instructions, the method comprising: receiving , by a base station, a request to select an operating channel for a computing device; determining (302; 404), by the base station, a bandwidth associated with a backhaul that carries communications between the base station and a network; performing (310; 406), by the base station, a scan of at least a portion of an unlicensed spectrum; selecting (310; 408), by the base station, a band in the unlicensed spectrum based at least partly on the scan; determining , by the base station, a set of channel widths, wherein individual channel widths of the set of channel widths correspond to individual channels of a set of channels in the band; and selecting (314; 412), by the base station, the operating channel from the set of channels in the band based at least partly on a channel width of the operating channel, wherein the channel width of the operating channel supports the bandwidth associated with the backhaul. receiving , by a base station, a request to select an operating channel for a computing device; determining (302; 404), by the base station, a bandwidth associated with a backhaul that carries communications between the base station and a network; performing (310; 406), by the base station, a scan of at least a portion of an unlicensed spectrum; selecting (310; 408), by the base station, a band in the unlicensed spectrum based at least partly on the scan; determining , by the base station, a set of channel widths, wherein individual channel widths of the set of channel widths correspond to individual channels of a set of channels in the band; and selecting (314; 412), by the base station, the operating channel from the set of channels in the band based at least partly on a channel width of the operating channel, wherein the channel width of the operating channel supports the bandwidth associated with the backhaul.
Disc brake for a commercial vehicle, having a brake calliper encompassing a brake disc , at least one application device for applying the disc brake by means of a displaceably guided bridge , wherein the bridge has at least one threaded hole, into which an actuating spindle passing through a closure plate connected to the brake calliper and provided with a male thread is screwed, said spindle bearing a pressure piece , which can be rotated relative thereto, by means of which pressure piece a brake pad can be pressed against the brake disc , and a readjusting device operatively connected to the actuating spindle for readjusting a clearance, characterised in that a circlip is provided, which is held on the bridge so as to be secured axially and against rotation and which, in an end position of the actuating spindle screwed in counter to the application direction, in order to secure the actuating spindle against rotation, engages positively with a thread-free end region of the actuating spindle which is assigned to the pressure piece .
A series compensator, comprising: a series transformer , at least one series transformer bypass device , a voltage source converter , at least one high-speed converter bypass device , at least one high-speed switch , and at least one reactor , wherein the reactor and the high-speed switch are connected in parallel to form a current limiting module ; one winding of the series transformer has two ends connectible in series to a line, and the other winding thereof is sequentially connected to the current limiting module and the high-speed converter bypass device ; the voltage source converter and the high-speed converter bypass device are connected in parallel; and at least one winding of the series transformer are connected in parallel to the at least one series transformer bypass device . a series transformer , at least one series transformer bypass device , a voltage source converter , at least one high-speed converter bypass device , at least one high-speed switch , and at least one reactor , wherein the reactor and the high-speed switch are connected in parallel to form a current limiting module ; one winding of the series transformer has two ends connectible in series to a line, and the other winding thereof is sequentially connected to the current limiting module and the high-speed converter bypass device ; the voltage source converter and the high-speed converter bypass device are connected in parallel; and at least one winding of the series transformer are connected in parallel to the at least one series transformer bypass device .
A conditioning/moisturizing device for processing almond kernels, especially a device designed to provide the almond with suitable elasticity allowing splitting or fragmenting it into flakes, sticks, cubes or similar configurations generating minimum flour or other waste, which device is structured based on a generally elongated body with a cylindrical shape supported by a metal frame and with an internal screw conveyor extended longitudinally coinciding with the axis of the cylinder and driven to rotate by means of an external motor provided with means for varying the rotating speed, the cylindrical body further having a plurality of steam injection nozzles, characterized in that said cylindrical body is supported by said metal frame in a tilted position with respect to the horizontal such that the internal screw conveyor in use sweeps the almond in an upward direction, from the entrance of the fruit into the cylinder through a hopper positioned at the lowest end of the cylinder to collecting means located at the upper end of the cylindrical body , the mentioned plurality of steam nozzles preferably being aligned according to a generatrix of the cylinder and arranged for injecting steam into the cylinder, which steam is generated with external means and fed to the nozzles through an external distributor , extended close to the body and parallel to same, and further having means for keeping the temperature of the environment inside the cylindrical body below 60°C in a steam saturation state.