mhurhangee/ep-ind-claims huggingface dataset:
A catheter, comprising: an elongate shaft body (106, 306, 406) extending from a proximal end to a distal end and defining an inner lumen, the shaft body including a liner, a braid or coil (336, 338) surrounding the liner, and a polymer cover (340, 440) surrounding the braid or coil (336, 338); a distal outer surface portion of the polymer cover (340, 440) of the shaft body including one or more helical threads configured to urge movement of the shaft body within vasculature via rotation applied to the shaft body's proximal end; and a tip member disposed at the distal end of the shaft body, characterised in that an outer wrapper is covering the distal outer surface portion of the polymer cover (340, 440) and the one or more helical threads. an elongate shaft body (106, 306, 406) extending from a proximal end to a distal end and defining an inner lumen, the shaft body including a liner, a braid or coil (336, 338) surrounding the liner, and a polymer cover (340, 440) surrounding the braid or coil (336, 338); a distal outer surface portion of the polymer cover (340, 440) of the shaft body including one or more helical threads configured to urge movement of the shaft body within vasculature via rotation applied to the shaft body's proximal end; and a tip member disposed at the distal end of the shaft body, characterised in that an outer wrapper is covering the distal outer surface portion of the polymer cover (340, 440) and the one or more helical threads.
Process for controlling continuous tempering of a fat-containing, crystallizable mass, such as chocolate mass, nougat mass or creme mass being pumped continuously through a pre-cooling stage in which it is cooled to a mass pre-cooling temperature above the crystal-creation temperature of the particular mass, where after the mass is pumped through a crystallization cooling stage in which the mass is cooled so that crystals are created in the mass thereby having a mass outlet temperature, entering a set-point value for the mass outlet temperature at the touch-screen of a HMI-unit, adjusting the crystallization amount to be achieved, wherein the crystallization amount to be achieved is adjusted as a crystal control value on a scale on the touch-screen of the HMI-unit, the HMI-unit calculates and transmits a set-point value for the water temperature of the crystallization cooling stage, characterized in that afterwards the HMI-unit continuedly repeats: receiving from a mass outlet temperature PID-sensor an outlet temperature value reflecting the actual mass outlet temperature, calculating deviation of the actual outlet temperature value from the set-point value for the mass outlet temperature, and calculating and transmitting a set-point value for the water temperature of the pre-cooling stage. entering a set-point value for the mass outlet temperature at the touch-screen of a HMI-unit, adjusting the crystallization amount to be achieved, wherein the crystallization amount to be achieved is adjusted as a crystal control value on a scale on the touch-screen of the HMI-unit, the HMI-unit calculates and transmits a set-point value for the water temperature of the crystallization cooling stage, characterized in that afterwards the HMI-unit continuedly repeats: receiving from a mass outlet temperature PID-sensor an outlet temperature value reflecting the actual mass outlet temperature, calculating deviation of the actual outlet temperature value from the set-point value for the mass outlet temperature, and calculating and transmitting a set-point value for the water temperature of the pre-cooling stage. receiving from a mass outlet temperature PID-sensor an outlet temperature value reflecting the actual mass outlet temperature, calculating deviation of the actual outlet temperature value from the set-point value for the mass outlet temperature, and calculating and transmitting a set-point value for the water temperature of the pre-cooling stage.
A system for building automation, made up of a portable or handheld apparatus for situation-related information configuration and of at least two stationary unit, in which system the apparatus comprises a proximity sensor, a communication unit for wireless communication with at least one of the stationary units, an evaluation and control unit having at least one processor or logic unit and a memory, an information output unit, and an energy reservoir, wherein a wireless communication connection between the apparatus and at least one of the stationary units is created via the communication unit as a consequence of an approach by the apparatus, as ascertained by the proximity sensor, to at least one stationary unit, and a state of the at least one stationary unit is displayed via the information output unit, characterized in that the apparatus is able to detect a hierarchy between the at least two stationary units, wherein the apparatus comprises at least one functionality whose manifestation depends on an existing hierarchy between the stationary units.
A method for transmitting a binary data frame comprising two logical statuses between a first and at least a second piece of communication equipment, wherein said two logical statuses are encoded by a first and a second distinct pulse widths, said method comprising a step where: - the number of occurrences of each logical status within the binary data frame is determined, said method being characterized by a step where - the binary data frame is pulse-width modulated so that the smaller pulse width of said distinct first and second pulse widths is assigned to the logical status with the larger number of occurrences within the binary data frame. - the number of occurrences of each logical status within the binary data frame is determined, said method being characterized by a step where - the binary data frame is pulse-width modulated so that the smaller pulse width of said distinct first and second pulse widths is assigned to the logical status with the larger number of occurrences within the binary data frame.
A frequency comb generating device comprising a pulsed optical light source, a sequence generator, a light receiving unit and a switching unit, the sequence generator being configured to generate a repeating sequence signal and to forward the repeating sequence signal at least to the switching unit, the pulsed optical light source being configured to generate optical electromagnetic wave packets, and the pulsed optical light source being synchronized with the sequence generator, and the light receiving unit being configured to receive the electromagnetic wave packets, and the light receiving unit being configured to convert the electromagnetic wave packets into an electrical signal, characterized in that the switching unit is configured to control the light receiving unit based on the repeating sequence signal. a pulsed optical light source, a sequence generator, a light receiving unit and a switching unit, the sequence generator being configured to generate a repeating sequence signal and to forward the repeating sequence signal at least to the switching unit, the pulsed optical light source being configured to generate optical electromagnetic wave packets, and the pulsed optical light source being synchronized with the sequence generator, and the light receiving unit being configured to receive the electromagnetic wave packets, and the light receiving unit being configured to convert the electromagnetic wave packets into an electrical signal, characterized in that the switching unit is configured to control the light receiving unit based on the repeating sequence signal.
A system, comprising: a gantry; an emission device coupled to the gantry and configured to emit an imaging radiation beam and a treatment radiation beam; a radiotherapy beam shaping device configured to define a treatment field of view (410, 610, 645) an imaging device coupled to the gantry and configured to detect images of a patient area (405, 605) within the treatment field of view (410, 610, 645) based on the imaging radiation beam; and a processor configured to: determine a treatment motion model that predicts, based on images detected by the imaging device, a prediction treatment period during which the patient area (405, 605) will be within the treatment field of view (410, 610) of the radiotherapy beam shaping device and the patient is in a phase of the breathing cycle between 80% and 100% of exhalation at which the patient area (405, 605) is relatively motionless; and cause the emission device to deliver the treatment radiation beam to the patient area (405, 605) for a time period equal to the prediction treatment period. a gantry; an emission device coupled to the gantry and configured to emit an imaging radiation beam and a treatment radiation beam; a radiotherapy beam shaping device configured to define a treatment field of view (410, 610, 645) an imaging device coupled to the gantry and configured to detect images of a patient area (405, 605) within the treatment field of view (410, 610, 645) based on the imaging radiation beam; and a processor configured to: determine a treatment motion model that predicts, based on images detected by the imaging device, a prediction treatment period during which the patient area (405, 605) will be within the treatment field of view (410, 610) of the radiotherapy beam shaping device and the patient is in a phase of the breathing cycle between 80% and 100% of exhalation at which the patient area (405, 605) is relatively motionless; and cause the emission device to deliver the treatment radiation beam to the patient area (405, 605) for a time period equal to the prediction treatment period. determine a treatment motion model that predicts, based on images detected by the imaging device, a prediction treatment period during which the patient area (405, 605) will be within the treatment field of view (410, 610) of the radiotherapy beam shaping device and the patient is in a phase of the breathing cycle between 80% and 100% of exhalation at which the patient area (405, 605) is relatively motionless; and cause the emission device to deliver the treatment radiation beam to the patient area (405, 605) for a time period equal to the prediction treatment period.
A method for transmission source detection comprising: receiving, by a base station, a first transmission comprising data and an explicit first source identification, ID, of a user equipment, UE; adding the first source ID to a list of active source IDs; receiving, by the base station, a second transmission, wherein the second transmission does not comprise any explicit source ID, and wherein at least a portion of the second transmission is scrambled with a source ID of the second transmission; determining, by the base station, a source of the second transmission using the list of active source IDs, and wherein determining the source of the second transmission comprises descrambling the portion of the second transmission using the list of active source IDs; and removing inactive source IDs from the list of active source IDs; wherein adding the first source ID further comprises setting a timer for the first source ID, and removing inactive source IDs from the list of active source IDs comprises removing the first source ID from the list of active source IDs when the timer expires. receiving, by a base station, a first transmission comprising data and an explicit first source identification, ID, of a user equipment, UE; adding the first source ID to a list of active source IDs; receiving, by the base station, a second transmission, wherein the second transmission does not comprise any explicit source ID, and wherein at least a portion of the second transmission is scrambled with a source ID of the second transmission; determining, by the base station, a source of the second transmission using the list of active source IDs, and wherein determining the source of the second transmission comprises descrambling the portion of the second transmission using the list of active source IDs; and removing inactive source IDs from the list of active source IDs;
A medical container unit for designing and manufacturing a patient-specific implant, comprising a plurality of container subunits (4a, 4b, 4c, 4d) each of which forms a sector (2a, 2b, 2c, 2d), characterized in that a sector of a container subunit is equipped with a means for designing the implant in the form of a design unit comprising a computer including drawing software as well as with a cleaning and/or packaging unit, and further sector of a further container subunit is equipped with at least one means for machine manufacturing an implant in the form of a manufacturing unit, and wherein each container subunit (4b, 4d) is formed by self-supporting partial substructures on at least two sides.
A method for forming a barbed suture comprising an elongate body provided with barbs extending substantially radially out from said elongate body, said method being characterized by comprising the following steps: a) producing a knit on a warp knitting machine comprising at least two guide bars, a first guide bar B1 and a second guide bar B2, by knitting together i) a set of chain stitch yarns of a first biocompatible material threaded in said first guide bar B1 and producing chain stitches and ii) a set of monofilament weft yarns of a second biocompatible material threaded in said second guide bar B2, the knitting pattern followed by the second guide bar B2 producing at least a partial weft in which said monofilament weft yarns complete weft stitches with at least one of said chain stitches, thereby producing at least one weft stitched chain stitch, -b) cutting the knit along the warp direction on both sides of said at least one weft stitched chain stitch, so as to isolate said weft stitched chain stitch from the rest of the produced knit, the chain stitch yarn of said at least one weft stitched chain stitch forming said elongate body of said barbed suture and the monofilament cuts extending from said weft stitches of said at least one weft stitched chain stitch forming said barbs of said barbed suture. a) producing a knit on a warp knitting machine comprising at least two guide bars, a first guide bar B1 and a second guide bar B2, by knitting together i) a set of chain stitch yarns of a first biocompatible material threaded in said first guide bar B1 and producing chain stitches and ii) a set of monofilament weft yarns of a second biocompatible material threaded in said second guide bar B2, the knitting pattern followed by the second guide bar B2 producing at least a partial weft in which said monofilament weft yarns complete weft stitches with at least one of said chain stitches, thereby producing at least one weft stitched chain stitch, i) a set of chain stitch yarns of a first biocompatible material threaded in said first guide bar B1 and producing chain stitches and ii) a set of monofilament weft yarns of a second biocompatible material threaded in said second guide bar B2, the knitting pattern followed by the second guide bar B2 producing at least a partial weft in which said monofilament weft yarns complete weft stitches with at least one of said chain stitches, thereby producing at least one weft stitched chain stitch, -b) cutting the knit along the warp direction on both sides of said at least one weft stitched chain stitch, so as to isolate said weft stitched chain stitch from the rest of the produced knit,
A method for controlling gain in a multi-carrier wireless device, the method comprising: estimating or measuring, by the wireless device (110, 120), indications of received signal quality for at least two aggregated component carriers, CCs, (402a, 402b, 402c, 404a, 404b, 404c) in a same radio frequency band, the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) comprising a primary component carrier, PCC, (402a, 402b, 402c) and one or more secondary component carriers, SCCs, (404a, 404b, 404c); determining a common gain for the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) using a first function when the indication of received signal quality of the PCC (402a, 402b, 402c) is better than or within some predetermined tolerance of the indication of received signal quality of a set of one or more CCs (402a, 402b, 404c, 404a, 404b, 404c) including only one or more SCCs (404a, 404b, 404c) and using a second function when the indication of received signal quality of the PCC (402a, 402b, 402c) is worse than the indication of received signal quality of the set of one or more CCs (402a, 402b, 402c, 404a, 404b, 404c), wherein the first function is based on one or more received signal characteristics of the PCC (402a, 402b, 402c), and wherein the second function comprises a linear combination of received signal characteristics associated with the PCC (402a, 402b, 402c) and at least one of the SCCs (404a, 404b, 404c); and applying the common gain to received signals of the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) to obtain adjusted received signals. estimating or measuring, by the wireless device (110, 120), indications of received signal quality for at least two aggregated component carriers, CCs, (402a, 402b, 402c, 404a, 404b, 404c) in a same radio frequency band, the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) comprising a primary component carrier, PCC, (402a, 402b, 402c) and one or more secondary component carriers, SCCs, (404a, 404b, 404c); determining a common gain for the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) using a first function when the indication of received signal quality of the PCC (402a, 402b, 402c) is better than or within some predetermined tolerance of the indication of received signal quality of a set of one or more CCs (402a, 402b, 404c, 404a, 404b, 404c) including only one or more SCCs (404a, 404b, 404c) and using a second function when the indication of received signal quality of the PCC (402a, 402b, 402c) is worse than the indication of received signal quality of the set of one or more CCs (402a, 402b, 402c, 404a, 404b, 404c), wherein the first function is based on one or more received signal characteristics of the PCC (402a, 402b, 402c), and wherein the second function comprises a linear combination of received signal characteristics associated with the PCC (402a, 402b, 402c) and at least one of the SCCs (404a, 404b, 404c); and applying the common gain to received signals of the at least two CCs (402a, 402b, 402c, 404a, 404b, 404c) to obtain adjusted received signals.
A method (500, 600) for allocating multi-carrier resources at a base station in a wireless communication network, comprising: allocating (502, 602), at a base station, multiple carriers to a connection with a mobile device (116, 122, 700) facilitating communication therewith; setting (404, 504, 604) a plurality of inactivity timers, wherein each inactivity timer is associated with a different carrier of the multiple carriers; reducing (504, 506, 508, 604, 606, 608), at the base station, the connection with the mobile device to a single allocated carrier by progressively deallocating carriers based at least in part on the plurality of inactivity timers; receiving, at the base station, a request for data over the single allocated carrier of the connection; and allocating, at the base station, one or more additional carriers to the connection based at least in part on the request for data, wherein the multiple carriers are at least three carriers. allocating (502, 602), at a base station, multiple carriers to a connection with a mobile device (116, 122, 700) facilitating communication therewith; setting (404, 504, 604) a plurality of inactivity timers, wherein each inactivity timer is associated with a different carrier of the multiple carriers; reducing (504, 506, 508, 604, 606, 608), at the base station, the connection with the mobile device to a single allocated carrier by progressively deallocating carriers based at least in part on the plurality of inactivity timers; receiving, at the base station, a request for data over the single allocated carrier of the connection; and allocating, at the base station, one or more additional carriers to the connection based at least in part on the request for data, wherein the multiple carriers are at least three carriers.
An automatic syringe comprising: a tubular housing having a proximal end and a distal end; a reservoir disposed in the tubular housing; a plunger in cooperative engagement with the reservoir for expelling a beneficial agent and movable between a first plunger position and a second plunger position; a first spring biased to urge the plunger toward the second plunger position with respect to the tubular housing, the first spring being disposed around a shaft of the plunger; an actuator to deploy the first spring; a removable cover positioned on the distal end of the tubular housing before the automatic syringe is used; a tubular member slidably arranged inside the tubular housing, the tubular member moveable between a retracted position and an extended position; a second spring disposed in the tubular housing and biased to urge the tubular member to the extended position in a distal direction; and an interlocking assembly interactively coupled to the plunger and the tubular member to maintain the second spring in an undeployed state in a first condition and deploy the second spring in a second condition to urge the tubular member toward the extended position; wherein the interlocking assembly is coupled with the plunger so as to be switched from the first condition to the second condition when the plunger is moved to the second plunger position; and so that the switching from the first condition to the second condition is obtained by the movement of the plunger to the second plunger position. a tubular housing having a proximal end and a distal end; a reservoir disposed in the tubular housing; a plunger in cooperative engagement with the reservoir for expelling a beneficial agent and movable between a first plunger position and a second plunger position; a first spring biased to urge the plunger toward the second plunger position with respect to the tubular housing, the first spring being disposed around a shaft of the plunger; an actuator to deploy the first spring; a removable cover positioned on the distal end of the tubular housing before the automatic syringe is used; a tubular member slidably arranged inside the tubular housing, the tubular member moveable between a retracted position and an extended position; a second spring disposed in the tubular housing and biased to urge the tubular member to the extended position in a distal direction; and an interlocking assembly interactively coupled to the plunger and the tubular member to maintain the second spring in an undeployed state in a first condition and deploy the second spring in a second condition to urge the tubular member toward the extended position; wherein the interlocking assembly is coupled with the plunger so as to be switched from the first condition to the second condition when the plunger is moved to the second plunger position; and so that the switching from the first condition to the second condition is obtained by the movement of the plunger to the second plunger position.