mhurhangee/patent-ind-claim-en huggingface dataset:
A surgical instrument for ablating tissue, comprising: a handle portion ; and a shaft assembly extending distally from the handle portion and including: an outer shaft having a distal portion ; a coaxial cable extending through the outer shaft and having a distal portion disposed within the distal portion of the outer shaft, the distal portion of the coaxial cable forming a microwave antenna configured to transmit microwave energy radially outward and through the outer shaft; and at least one electrode coupled to the distal portion of the outer shaft and configured to transmit radiofrequency energy, wherein an actuation of the surgical instrument activates at least one of the transmission of the microwave energy from the microwave antenna or the transmission of the radiofrequency energy from the at least one electrode; and wherein the outer shaft defines a longitudinal axis (X) and characterized in that the distal portion of the outer shaft has a triangular or wedge-shaped cross-sectional profile in the plane orthogonal to the longitudinal axis. a handle portion ; and a shaft assembly extending distally from the handle portion and including: an outer shaft having a distal portion ; a coaxial cable extending through the outer shaft and having a distal portion disposed within the distal portion of the outer shaft, the distal portion of the coaxial cable forming a microwave antenna configured to transmit microwave energy radially outward and through the outer shaft; and at least one electrode coupled to the distal portion of the outer shaft and configured to transmit radiofrequency energy, wherein an actuation of the surgical instrument activates at least one of the transmission of the microwave energy from the microwave antenna or the transmission of the radiofrequency energy from the at least one electrode; an outer shaft having a distal portion ; a coaxial cable extending through the outer shaft and having a distal portion disposed within the distal portion of the outer shaft, the distal portion of the coaxial cable forming a microwave antenna configured to transmit microwave energy radially outward and through the outer shaft; and at least one electrode coupled to the distal portion of the outer shaft and configured to transmit radiofrequency energy, wherein an actuation of the surgical instrument activates at least one of the transmission of the microwave energy from the microwave antenna or the transmission of the radiofrequency energy from the at least one electrode; and wherein the outer shaft defines a longitudinal axis (X) and characterized in that the distal portion of the outer shaft has a triangular or wedge-shaped cross-sectional profile in the plane orthogonal to the longitudinal axis.
An electronics device , the electronics device comprising: a circuit board ; an electronics component ; and a rotating disk player ; the rotating disk player having an air flow inlet to receive air from the exterior of the electronics device and an air flow outlet arranged such that air flow generated by a disk rotating in the rotating disk player causes air to flow from the exterior of the electronics device through the air flow inlet and out through the air flow outlet towards at least one of the circuit board and the electronics component to cool the at least one of the circuit board and the electronics component . a circuit board ; an electronics component ; and a rotating disk player ; the rotating disk player having an air flow inlet to receive air from the exterior of the electronics device and an air flow outlet arranged such that air flow generated by a disk rotating in the rotating disk player causes air to flow from the exterior of the electronics device through the air flow inlet and out through the air flow outlet towards at least one of the circuit board and the electronics component to cool the at least one of the circuit board and the electronics component .
A method for determining a line-of-sight error to a target with a Semi-Active Laser (SAL) sensor, the method comprising: receiving a plurality of target pulses ; starting a target track for pulses that cross a noise threshold; opening a pulse gate within the target track; for every laser pulse received within the pulse gate crossing the noise threshold, determining a time index relative to the pulse gate center and stored in a memory; temporally offsetting the stored pulses based on their corresponding time indexes; summing the offset pulses together to generate a summed pulse signal; and determining the line-of-sight error to the target from the summed pulse signal. receiving a plurality of target pulses ; starting a target track for pulses that cross a noise threshold; opening a pulse gate within the target track; for every laser pulse received within the pulse gate crossing the noise threshold, determining a time index relative to the pulse gate center and stored in a memory; temporally offsetting the stored pulses based on their corresponding time indexes; summing the offset pulses together to generate a summed pulse signal; and determining the line-of-sight error to the target from the summed pulse signal.
Screw comprising - a shank having a tip end , a rear end , which is located opposite the tip end , and a longitudinal axis , which extends through the rear end and through the tip end , - at least one screw thread , which is arranged on the shank , winds around the shank and protrudes from the shank , and - a separate helix element , which is arranged non-monolithically on the shank , wherein the separate helix element winds around the shank , protrudes from the shank , and constitutes at least a section of the at least one screw thread , - wherein the screw further comprises at least one first claw , which projects from the shank , and which has both radial and axial overlap with the separate helix element , - wherein the shank and the at least one first claw are monolithic with respect to one another, - wherein the shank is provided with a helical groove , which winds around the longitudinal axis of the shank , and which projects, on the lateral surface of the shank , radially into the shank , wherein the separate helix element is arranged within the groove , characterized in that - the groove subducts in its starting section located close to the tip end , wherein this subduction of the groove is accompanied by a subduction of the screw thread in its starting section located close to the tip end . - a shank having a tip end , a rear end , which is located opposite the tip end , and a longitudinal axis , which extends through the rear end and through the tip end , - at least one screw thread , which is arranged on the shank , winds around the shank and protrudes from the shank , and - a separate helix element , which is arranged non-monolithically on the shank , wherein the separate helix element winds around the shank , protrudes from the shank , and constitutes at least a section of the at least one screw thread , - wherein the screw further comprises at least one first claw , which projects from the shank , and which has both radial and axial overlap with the separate helix element , - wherein the shank and the at least one first claw are monolithic with respect to one another, - wherein the shank is provided with a helical groove , which winds around the longitudinal axis of the shank , and which projects, on the lateral surface of the shank , radially into the shank , wherein the separate helix element is arranged within the groove , - the groove subducts in its starting section located close to the tip end , wherein this subduction of the groove is accompanied by a subduction of the screw thread in its starting section located close to the tip end .
A ruggedized, handheld radio for bidirectional field communication, comprising: means for transmitting signals in a single communication channel in half-duplex mode over a radio network, wherein the transmitting means comprises a single transceiver; means for receiving signals in the single communication channel in half-duplex mode over the radio network, wherein the receiving means comprises the single transceiver; means for switching from a voice reception mode to a voice transmission mode, wherein the switching means comprises at least one of a first push-to-talk, PTT, switch (205a-b) and a second PTT switch (205a-b), wherein the first PTT switch is located on a left side of the radio and the second PTT switch is located on a right side of the radio , and wherein the first and second PTT switches (205a-b) are independently operable to actuate the transmission of radio signals via the single transceiver; keypad means including a plurality of buttons; means for storing a plurality of functional profiles associated with the PTT switches (205a-b); and processing means for permitting user selection of one of the functional profiles and, after user selection, configuring functional operation of a combination of the buttons of the keypad means and at least one of the PTT switches (205a-b) according to the selected functional profile. means for transmitting signals in a single communication channel in half-duplex mode over a radio network, wherein the transmitting means comprises a single transceiver; means for receiving signals in the single communication channel in half-duplex mode over the radio network, wherein the receiving means comprises the single transceiver; means for switching from a voice reception mode to a voice transmission mode, wherein the switching means comprises at least one of a first push-to-talk, PTT, switch (205a-b) and a second PTT switch (205a-b), wherein the first PTT switch is located on a left side of the radio and the second PTT switch is located on a right side of the radio , and wherein the first and second PTT switches (205a-b) are independently operable to actuate the transmission of radio signals via the single transceiver; keypad means including a plurality of buttons; means for storing a plurality of functional profiles associated with the PTT switches (205a-b); and processing means for permitting user selection of one of the functional profiles and, after user selection, configuring functional operation of a combination of the buttons of the keypad means and at least one of the PTT switches (205a-b) according to the selected functional profile.
A method, for use at a location server , wherein the location server comprises a SUPL Location Platform, SLP, the method comprising: transmitting a location identifier for a mobile station to the mobile station , wherein the location identifier comprises a location Universal Resource Identifier, URI; receiving a request for a location estimate of the mobile station from an external entity , the request comprising the location identifier; and selectively authorizing the request for the location estimate based at least in part on the location identifier. transmitting a location identifier for a mobile station to the mobile station , wherein the location identifier comprises a location Universal Resource Identifier, URI; receiving a request for a location estimate of the mobile station from an external entity , the request comprising the location identifier; and selectively authorizing the request for the location estimate based at least in part on the location identifier.
A system comprising: a processor; and a memory device comprising instructions, which when executed by the processor, cause the processor to: access a feedback input based on at least one of: patient input, clinician input, or automatic input; identify a neuromodulation parameter set to be programmed into a neuromodulator by implementing an automated, iterative search method with adaptive learning designed to use the feedback input to select a schedule of one or more candidate neuromodulation parameter sets for evaluation; and program a neuromodulator with the neuromodulation parameter set identified by the automated, iterative search method. a processor; and a memory device comprising instructions, which when executed by the processor, cause the processor to: access a feedback input based on at least one of: patient input, clinician input, or automatic input; identify a neuromodulation parameter set to be programmed into a neuromodulator by implementing an automated, iterative search method with adaptive learning designed to use the feedback input to select a schedule of one or more candidate neuromodulation parameter sets for evaluation; and program a neuromodulator with the neuromodulation parameter set identified by the automated, iterative search method. access a feedback input based on at least one of: patient input, clinician input, or automatic input; identify a neuromodulation parameter set to be programmed into a neuromodulator by implementing an automated, iterative search method with adaptive learning designed to use the feedback input to select a schedule of one or more candidate neuromodulation parameter sets for evaluation; and program a neuromodulator with the neuromodulation parameter set identified by the automated, iterative search method.
A workstation system , in particular an office desk having a seated work area and a standing working area, comprising a support frame height-adjustable along the vertical axis H for synchronously adjusting the height of two desktops (T1, T2) attached to said frame at different work levels (A1, A2) for forming respective seated and standing working areas, wherein the desktops (T1, T2) are attached to the support frame at a fixed distance to each other on the vertical axis H, wherein the upper desktop (T2) is arranged above the working level (A1) of the lower desktop (T1) as seen along the vertical axis, the upper desktop (T2) has a width (B2) which corresponds to about 30-60 of the width (B1) of the lower desktop (T1), characterized in that the fixed distance of a top (O) from the lower desktop (T1) to a bottom (U) of the upper desktop (T2) lies in the range between 27-39 cm, and wherein a height adjustment device is provided with a travel of no more than 14 cm.
A satellite provided with a device for stabilising and deorbiting a satellite , the device including a pair of coplanar masts each carrying at least one membrane forming an aerobraking sail, said masts being fastened to the satellite so that their longitudinal axes are not parallel to each other and being each provided at their end opposite their end fastened to the satellite with a mass (m) for generating a gravity gradient and for which the masts are disposed so as to form with the bisector between the masts a fixed angle α adapted to align the bisector with the velocity vector of the satellite at any altitude, said bisector being an axis of the main reference frame of the inertia matrix of the satellite such that inertia IZ along said bisector is between the inertia values on both other axes of the main reference frame.
A method of treating a wood product comprising the step of contacting a composition comprising polypropylene glycol or a polypropylene glycol copolymer with an average molecular weight of between at least 500 and 100,000 with a wood product; wherein said polypropylene glycol or polypropylene glycol copolymer has a solubility in water no greater than 1.0% w/w at 25 °C.
A method comprising: receiving, by a first wireless device from a base station, one or more radio resource control messages comprising configuration parameters of feedback resources, wherein the configuration parameters indicate a quantity of the feedback resources; receiving, by the first wireless device from a second wireless device, a sidelink control information, SCI, wherein the SCI: comprises a parameter for feedback resource indication; and schedules a transport block via a sidelink; receiving, by the first wireless device from the second wireless device, the transport block via the sidelink; and transmitting, by the first wireless device to the second wireless device, an acknowledgement for the transport block via a feedback resource determined, from the feedback resources, based on: the parameter of the SCI; and a modulo operation associated with an identity of the first wireless device and the quantity of the feedback resources. receiving, by a first wireless device from a base station, one or more radio resource control messages comprising configuration parameters of feedback resources, wherein the configuration parameters indicate a quantity of the feedback resources; receiving, by the first wireless device from a second wireless device, a sidelink control information, SCI, wherein the SCI: comprises a parameter for feedback resource indication; and schedules a transport block via a sidelink; comprises a parameter for feedback resource indication; and schedules a transport block via a sidelink; receiving, by the first wireless device from the second wireless device, the transport block via the sidelink; and transmitting, by the first wireless device to the second wireless device, an acknowledgement for the transport block via a feedback resource determined, from the feedback resources, based on: the parameter of the SCI; and a modulo operation associated with an identity of the first wireless device and the quantity of the feedback resources. the parameter of the SCI; and a modulo operation associated with an identity of the first wireless device and the quantity of the feedback resources.
A monoclonal antibody that specifically binds to BDCA2 and specifically depletes plasmacytoid dendritic cells (pDC) in vivo when administered to a subject, wherein the antibody comprises an amino acid sequence comprising the heavy chain variable region of the amino acid sequence of Figure 18 and an amino acid sequence comprising the light chain variable region of the amino acid sequence of Figure 19, or an amino acid sequence comprising the heavy chain variable region of the amino acid sequence of Figure 21 and an amino acid sequence comprising the light chain variable region of the amino acid sequence of Figure 22. an amino acid sequence comprising the heavy chain variable region of the amino acid sequence of Figure 18 and an amino acid sequence comprising the light chain variable region of the amino acid sequence of Figure 19, or an amino acid sequence comprising the heavy chain variable region of the amino acid sequence of Figure 21 and an amino acid sequence comprising the light chain variable region of the amino acid sequence of Figure 22.
A pesticide formulation comprising: a solvent comprising an ether ester of Formula 1: wherein R 1 and R 2 are each independently one of an alkyl group having 1 to 4 carbon atoms or an aryl group, wherein R 3 is hydrogen, methyl, or ethyl, and wherein n is 1 to 6; and a pesticide; wherein the pesticide comprises one or more of chlopyrifos, tebuconazole, difenoconazole, triazolone, quizalofop-p-ethyl, myclobutanil, pyraclostrobin, bifenthrin, buprofezin, and beta-cypermethrin. a solvent comprising an ether ester of Formula 1: wherein R 1 and R 2 are each independently one of an alkyl group having 1 to 4 carbon atoms or an aryl group, wherein R 3 is hydrogen, methyl, or ethyl, and wherein n is 1 to 6; and a pesticide; wherein the pesticide comprises one or more of chlopyrifos, tebuconazole, difenoconazole, triazolone, quizalofop-p-ethyl, myclobutanil, pyraclostrobin, bifenthrin, buprofezin, and beta-cypermethrin.
A method, comprising: calculating an expected throughput for each of a plurality of different codebook sizes given one or more measured characteristics of a wireless communication channel between a first communication device and a second communication device, wherein each of the plurality of different codebook sizes corresponds to a different number of precoding matrices; selecting a codebook size from the plurality of different codebook sizes using the expected throughput for each of the plurality of different codebook sizes given the one or more measured characteristics of the wireless communication channel, wherein a codebook of the selected codebook size includes precoding matrices for precoding signals that are to be wirelessly transmitted; selecting , based on matrix selection criteria, a precoding matrix corresponding to the codebook of the selected codebook size; and transmitting an indicator of the selected precoding matrix to the second communication device. calculating an expected throughput for each of a plurality of different codebook sizes given one or more measured characteristics of a wireless communication channel between a first communication device and a second communication device, wherein each of the plurality of different codebook sizes corresponds to a different number of precoding matrices; selecting a codebook size from the plurality of different codebook sizes using the expected throughput for each of the plurality of different codebook sizes given the one or more measured characteristics of the wireless communication channel, wherein a codebook of the selected codebook size includes precoding matrices for precoding signals that are to be wirelessly transmitted; selecting , based on matrix selection criteria, a precoding matrix corresponding to the codebook of the selected codebook size; and transmitting an indicator of the selected precoding matrix to the second communication device.
An implant loading system including: a funnel for loading an expandable implant into a guide catheter for delivery to a ventricle to treat heart failure, the funnel having a first portion having a flared first end and a tapering receptacle for receiving and collapsing the expandable implant and a second tubular portion extending from the first portion comprising a lumen having a first diameter, the funnel having a second end with a coupling for removably coupling the funnel to a sleeve; and a sleeve having a coupling element located in a central portion thereof for coupling with the coupling at the second end of the funnel to enable the sleeve to be removably coupled to the second end of the funnel, and first and second tubular sleeve portions located distally and proximally, respectively, of the centrally located coupling element, wherein the first tubular sleeve portion is configured to be inserted into the second tubular portion of the funnel and the second tubular sleeve portion extends from the second end of the funnel when the funnel and sleeve are coupled together, wherein the sleeve has a lumen with a second diameter which is less than the first diameter and is configured to receive and transfer the expandable implant to the guide catheter. a funnel for loading an expandable implant into a guide catheter for delivery to a ventricle to treat heart failure, the funnel having a first portion having a flared first end and a tapering receptacle for receiving and collapsing the expandable implant and a second tubular portion extending from the first portion comprising a lumen having a first diameter, the funnel having a second end with a coupling for removably coupling the funnel to a sleeve; and a sleeve having a coupling element located in a central portion thereof for coupling with the coupling at the second end of the funnel to enable the sleeve to be removably coupled to the second end of the funnel, and first and second tubular sleeve portions located distally and proximally, respectively, of the centrally located coupling element, wherein the first tubular sleeve portion is configured to be inserted into the second tubular portion of the funnel and the second tubular sleeve portion extends from the second end of the funnel when the funnel and sleeve are coupled together, wherein the sleeve has a lumen with a second diameter which is less than the first diameter and is configured to receive and transfer the expandable implant to the guide catheter.