mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit comprising: a printed circuit board, PCB,; a signal integrity, SI, channel interconnected on the PCB, the SI channel comprising parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in an asymmetric spacing (b1, b2, b3, b4); a system on chip, SoC die interconnected on the SI channel, the SOC die comprising a parallel memory interface coupled to the parallel signal traces (dq3, dq4, dq5, dq6, dq7) through package interconnects; and a memory device package on the SoC die and coupled to the parallel memory interface of the SoC die through the parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in the asymmetric spacing (b1, b2, b3, b4), in which a variable spacing (b1, b2, b3, b4) is provided between the parallel signal traces for a majority portion of the parallel signal traces (dq3, dq4, dq5, dq6, dq7) of a longest leg of an internal signal integrity channel. a printed circuit board, PCB,; a signal integrity, SI, channel interconnected on the PCB, the SI channel comprising parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in an asymmetric spacing (b1, b2, b3, b4); a system on chip, SoC die interconnected on the SI channel, the SOC die comprising a parallel memory interface coupled to the parallel signal traces (dq3, dq4, dq5, dq6, dq7) through package interconnects; and a memory device package on the SoC die and coupled to the parallel memory interface of the SoC die through the parallel signal traces (dq3, dq4, dq5, dq6, dq7) arranged in the asymmetric spacing (b1, b2, b3, b4), in which a variable spacing (b1, b2, b3, b4) is provided between the parallel signal traces for a majority portion of the parallel signal traces (dq3, dq4, dq5, dq6, dq7) of a longest leg of an internal signal integrity channel.
A catheter for insertion into a hollow viscus of a subject, comprising: a drainage opening and an instillation opening at a distal end; an inlet port at a proximal end for instilling a fluid; an outlet port at the proximal end for draining fluid from the viscus; a drainage channel connecting the drainage opening to the outlet port; an instillation channel connecting the inlet port to the instillation opening; a valve that is located proximate the drainage opening at the distal end for closing it against the entry of fluid from the viscus; characterised in that said catheter further comprises: a valve control port at the proximal end for receiving a viscous control gel under pressure; and a control channel which is a narrow lumen connecting the valve control port to the valve such that the valve is responsive to admitted control gel under pressure to close itself, the arrangement being such that flow of the control fluid to the valve is one way and the valve stays closed after the control gel has entered the catheter under pressure even when the pressure is reduced or eliminated. a drainage opening and an instillation opening at a distal end; an inlet port at a proximal end for instilling a fluid; an outlet port at the proximal end for draining fluid from the viscus; a drainage channel connecting the drainage opening to the outlet port; an instillation channel connecting the inlet port to the instillation opening; a valve that is located proximate the drainage opening at the distal end for closing it against the entry of fluid from the viscus; characterised in that said catheter further comprises: a valve control port at the proximal end for receiving a viscous control gel under pressure; and a control channel which is a narrow lumen connecting the valve control port to the valve such that the valve is responsive to admitted control gel under pressure to close itself, the arrangement being such that flow of the control fluid to the valve is one way and the valve stays closed after the control gel has entered the catheter under pressure even when the pressure is reduced or eliminated. a valve control port at the proximal end for receiving a viscous control gel under pressure; and a control channel which is a narrow lumen connecting the valve control port to the valve such that the valve is responsive to admitted control gel under pressure to close itself, the arrangement being such that flow of the control fluid to the valve is one way and the valve stays closed after the control gel has entered the catheter under pressure even when the pressure is reduced or eliminated.
An air/water heat pump for outdoor installation, comprising a refrigerant circuit, having an evaporator with angular cross-section, through which outdoor air can flow, comprising an axial fan, comprising a number of fan blades, an air guide between the evaporator and the axial fan, wherein the air guide has a round fan duct surrounding the fan blades of the axial fan, wherein the air guide transitions from the angular contour of the evaporator to the round shape of the fan duct, so that an essentially closed air guide from the evaporator to the fan is formed, characterised in that the air guide is assembled from at least two duct parts (310, 320), wherein the air guide is made of plastic foam. comprising an axial fan, comprising a number of fan blades, an air guide between the evaporator and the axial fan, wherein the air guide has a round fan duct surrounding the fan blades of the axial fan, wherein the air guide transitions from the angular contour of the evaporator to the round shape of the fan duct, so that an essentially closed air guide from the evaporator to the fan is formed, characterised in that the air guide is assembled from at least two duct parts (310, 320), wherein the air guide is made of plastic foam.
An absorbent bone hemostatic material composition comprising 50 to 70 parts by weight of polyethylene glycol-ran-propylene glycol based on 30 to 50 parts by weight of poloxamer, wherein the poloxamer has a weight average molecular weight of 7,000 to 10,000, characterized in that the polyethylene glycol-ran-propylene glycol has a weight average molecular weight of 6,000 to 12,000. wherein the poloxamer has a weight average molecular weight of 7,000 to 10,000, characterized in that the polyethylene glycol-ran-propylene glycol has a weight average molecular weight of 6,000 to 12,000.
Capper for containers, in particular bottles, comprising a capping head which is operative in a clean room, and an electric motor comprising at least one rotor and at least one stator, and wherein the capping head is connected to the rotor and a clean-room separation element is formed between the rotor and the stator, characterized in that the clean-room separation element comprises at least two individual elements (9c, 9d, 9e) that are separable via at least one separation point (10, 16) for removing the rotor and/or the capping head.
A composition comprising a thermoplastic material and a CO 2 releasing material; wherein the CO 2 releasing material comprises: a) a carbon and oxygen containing salt of an alkali or alkaline earth metal; and b) an acid; wherein in the presence of water, the CO 2 releasing material reacts to release CO 2 gas through the thermoplastic material into a surrounding environment, and wherein a biologically active ingredient is incorporated into the composition, and wherein the biologically active ingredient comprises a biocide.
A mixture of lipids capable of encapsulating an active agent to form a liposome, said mixture comprising phosphatidylcholine and phosphatidylethanolamine in a molar ratio of phosphatidylethanolamine to phosphatidylcholine in the range of 0.5 to 8 and further comprising a plurality of charged amphiphiles which in combination with one another have amphoteric character, said plurality of charged amphiphiles being negatively charged or neutral at pH 7.4 and positively charged at pH 4, and comprising at least one pH sensitive anionic lipid and at least one pH sensitive cationic lipid, wherein said anionic lipid is selected from DOGSucc, POGSucc, DMGSucc, DPGSucc and CHEMS, and said cationic lipid is selected from MoChol, HisChol and CHIM.
A method for determining a transmission bandwidth, comprising: receiving, by a terminal device (10, 40), first indication information sent by a network device (20, 30); and determining, by the terminal device (10, 40) according to the first indication information, the set of sub-bands on an unlicensed carrier that are used for transmission of downlink channels or signals, wherein the unlicensed carrier comprises N sub-bands, the N sub-bands being indexed, said method characterized in that the first indication information is used to determine the sub-band with a smallest index among the set of sub-bands on the unlicensed carrier that are used for transmission of downlink channels or signals, and the number of sub-bands included in said set, wherein an index of the sub-band with the smallest index in said set is S, the number of sub-bands included in said set is L, and the value of the first indication information is R, wherein for the cases in which the L sub-bands are continuous, the value of the first indication information satisfies: R = N ∗ L − 1 + S if L − 1 ⩽ floor N / 2; otherwise, R = N ∗ N − L + 1 + N − 1 − S, wherein floor represents round down, L≥1 and L is not greater than N-S, 0≤S ≤N-1. receiving, by a terminal device (10, 40), first indication information sent by a network device (20, 30); and determining, by the terminal device (10, 40) according to the first indication information, the set of sub-bands on an unlicensed carrier that are used for transmission of downlink channels or signals, wherein the unlicensed carrier comprises N sub-bands, the N sub-bands being indexed, said method characterized in that the first indication information is used to determine the sub-band with a smallest index among the set of sub-bands on the unlicensed carrier that are used for transmission of downlink channels or signals, and the number of sub-bands included in said set, wherein an index of the sub-band with the smallest index in said set is S, the number of sub-bands included in said set is L, and the value of the first indication information is R, wherein for the cases in which the L sub-bands are continuous, the value of the first indication information satisfies: R = N ∗ L − 1 + S if L − 1 ⩽ floor N / 2; otherwise, R = N ∗ N − L + 1 + N − 1 − S, wherein floor represents round down, L≥1 and L is not greater than N-S, 0≤S ≤N-1.
A method of operation by a wireless device configured for operation in a wireless communication network, the method comprising: receiving sidelink configuration information for a second cell of the wireless communication network via a cellular connection with a first cell, to be used during a cellular handover process to the second cell, the sidelink configuration information indicating sidelink resources and sidelink timing using a sidelink timing reference associated with the second cell; receiving handover signaling indicating a cellular handover of the wireless device from the first cell of the wireless communication network to the second cell, and, in response: performing a cellular handover process with respect to the second cell, including performing a cellular synchronization process with respect to the second cell using a downlink timing reference; and performing a sidelink synchronization process with respect to the second cell using the sidelink timing reference, and resuming or initiating sidelink communications using the sidelink resources and the sidelink timing associated with the second cell during the cellular handover process, once sidelink synchronized with respect to the second cell via the sidelink synchronization process, wherein the sidelink timing reference is different than the downlink timing reference. receiving sidelink configuration information for a second cell of the wireless communication network via a cellular connection with a first cell, to be used during a cellular handover process to the second cell, the sidelink configuration information indicating sidelink resources and sidelink timing using a sidelink timing reference associated with the second cell; receiving handover signaling indicating a cellular handover of the wireless device from the first cell of the wireless communication network to the second cell, and, in response: performing a cellular handover process with respect to the second cell, including performing a cellular synchronization process with respect to the second cell using a downlink timing reference; and performing a sidelink synchronization process with respect to the second cell using the sidelink timing reference, and resuming or initiating sidelink communications using the sidelink resources and the sidelink timing associated with the second cell during the cellular handover process, once sidelink synchronized with respect to the second cell via the sidelink synchronization process, performing a cellular handover process with respect to the second cell, including performing a cellular synchronization process with respect to the second cell using a downlink timing reference; and performing a sidelink synchronization process with respect to the second cell using the sidelink timing reference, and resuming or initiating sidelink communications using the sidelink resources and the sidelink timing associated with the second cell during the cellular handover process, once sidelink synchronized with respect to the second cell via the sidelink synchronization process, wherein the sidelink timing reference is different than the downlink timing reference.
Apparatus comprising an annuloplasty system for use on a subject, which comprises: an annuloplasty ring, which comprises a sleeve having a wall defining a lumen that extends longitudinally along a length of the sleeve; at least one anchor, shaped so as to define a tissue coupling element, which tissue coupling element is shaped so as to define a longitudinal axis, and is configured to penetrate cardiac tissue of the subject in a direction parallel to the longitudinal axis; and an anchor deployment manipulator, which comprises an outer tube, and which is configured to be removably positioned within the lumen of the sleeve, and, while so positioned, to deploy the tissue coupling element from a distal end of the deployment manipulator by penetrating the wall of the sleeve into the cardiac tissue in the direction parallel to the longitudinal axis of the tissue coupling element and parallel to a central longitudinal axis of the deployment manipulator through the distal end of the deployment manipulator, characterized in that: the annuloplasty system further comprises a pusher tube, which is removably coupled at a distal end thereof to a proximal end of the sleeve, and the pusher tube passes over the outer tube. an annuloplasty ring, which comprises a sleeve having a wall defining a lumen that extends longitudinally along a length of the sleeve; at least one anchor, shaped so as to define a tissue coupling element, which tissue coupling element is shaped so as to define a longitudinal axis, and is configured to penetrate cardiac tissue of the subject in a direction parallel to the longitudinal axis; and an anchor deployment manipulator, which comprises an outer tube, and which is configured to be removably positioned within the lumen of the sleeve, and, while so positioned, to deploy the tissue coupling element from a distal end of the deployment manipulator by penetrating the wall of the sleeve into the cardiac tissue in the direction parallel to the longitudinal axis of the tissue coupling element and parallel to a central longitudinal axis of the deployment manipulator through the distal end of the deployment manipulator, characterized in that: the annuloplasty system further comprises a pusher tube, which is removably coupled at a distal end thereof to a proximal end of the sleeve, and the pusher tube passes over the outer tube. the annuloplasty system further comprises a pusher tube, which is removably coupled at a distal end thereof to a proximal end of the sleeve, and the pusher tube passes over the outer tube.
A method of operating a hearing aid system comprising the steps of: - providing an electrical input signal representing an acoustical signal from an input transducer of the hearing aid system; - splitting the input signal into a plurality of frequency bands; - forming a first group of frequency bands and a second group of frequency bands, wherein the first group of frequency bands comprises frequency bands that are interleaved with respect to frequency bands comprised in the second group of frequency bands; - alternating between selecting the first group of frequency bands or the second group of frequency bands; - processing the selected frequency bands in a first manner, hereby providing processed selected frequency bands; - processing the non-selected frequency bands in a second manner such that the non-selected frequency bands are attenuated relative to the selected frequency bands, hereby providing processed non-selected frequency bands; - providing an output signal based on the processed selected and non-selected frequency bands; and - using the output signal to drive an output transducer of the hearing aid system. - providing an electrical input signal representing an acoustical signal from an input transducer of the hearing aid system; - splitting the input signal into a plurality of frequency bands; - forming a first group of frequency bands and a second group of frequency bands, wherein the first group of frequency bands comprises frequency bands that are interleaved with respect to frequency bands comprised in the second group of frequency bands; - alternating between selecting the first group of frequency bands or the second group of frequency bands; - processing the selected frequency bands in a first manner, hereby providing processed selected frequency bands; - processing the non-selected frequency bands in a second manner such that the non-selected frequency bands are attenuated relative to the selected frequency bands, hereby providing processed non-selected frequency bands; - providing an output signal based on the processed selected and non-selected frequency bands; and - using the output signal to drive an output transducer of the hearing aid system.
A method for detecting individual heart beat cycles in a cardiac output related waveform comprising: providing cardiac output related waveform data; calculating a first derivative function for the waveform data and reversing the time order of the data; comparing the amplitude of the first derivative function to a threshold value, the threshold value being a percentage of the maximum amplitude in the first derivative function; and determining the start of a heart beat cycle by identifying the first time the first derivative function equals zero immediately after the point at which the amplitude of the first derivative function is greater than the threshold value in the reversed time order data, wherein the first time the first derivative function equals zero indicates the beginning of a heart beat cycle. providing cardiac output related waveform data; calculating a first derivative function for the waveform data and reversing the time order of the data; comparing the amplitude of the first derivative function to a threshold value, the threshold value being a percentage of the maximum amplitude in the first derivative function; and determining the start of a heart beat cycle by identifying the first time the first derivative function equals zero immediately after the point at which the amplitude of the first derivative function is greater than the threshold value in the reversed time order data, wherein the first time the first derivative function equals zero indicates the beginning of a heart beat cycle.
A method for controlling video sharing through a rich communication suite, RCS, service by an electronic device, the method comprising: receiving (401, 501) a resource change request from a network; determining (403, 503) whether there is a video sharing operation through the RCS service upon receiving the request; determining (405, 505) whether a cell connected with the electronic device is a cell supporting a high speed packet access, HSPA, communication method when there is the video sharing operation; determining (407, 507) whether a transmission amount of data is equal to or greater than a predetermined transmission amount when it is determined that the cell connected with the electronic device is the cell supporting the HSPA communication method; and transmitting (411, 511) the request to an application supporting the RCS service when the transmission amount of data is equal to or greater than the predetermined transmission amount. receiving (401, 501) a resource change request from a network; determining (403, 503) whether there is a video sharing operation through the RCS service upon receiving the request; determining (405, 505) whether a cell connected with the electronic device is a cell supporting a high speed packet access, HSPA, communication method when there is the video sharing operation; determining (407, 507) whether a transmission amount of data is equal to or greater than a predetermined transmission amount when it is determined that the cell connected with the electronic device is the cell supporting the HSPA communication method; and transmitting (411, 511) the request to an application supporting the RCS service when the transmission amount of data is equal to or greater than the predetermined transmission amount.
A power conversion device, which comprises a rectifying diode bridge configured to rectify an AC power supply, a semiconductor switch circuit for power factor correction of the power supply, which converts the current from the AC power supply to a DC to drive a DC load, or converts the DC to a pseudo-AC with an arbitrary frequency and amplitude to drive an AC load, and a shunt resistor that is inserted between an output terminal on a negative side of the rectifying diode bridge; and the semiconductor switch circuit; characterized by: a first inverting/level-shifting circuit (1101 - 1104, 1150) configured to perform inversion and level shifting; a second inverting/level-shifting circuit (1201 - 1204, 1150) configured to perform inversion and level shifting; and a differential circuit configured to output as current detection information a signal indicating a difference between the output of the first inverting/level-shifting circuit (1101 - 1104, 1150), and the output of the second inverting/level-shifting circuit (1201 - 1204, 1150), wherein one end of the resistor is connected to only the first inverting/level-shifting circuit (1101 - 1104, 1150), and the other end of the resistor is connected to only the second inverting/level-shifting circuit (1201 - 1204, 1150), outputs of the first and second inverting/level-shifting circuits (1101 - 1104, 1150; 1201 - 1204, 1150), are inputted to the differential circuit (1301 - 1305), and the semiconductor switch circuit is on/off-controlled by use of the current detection information. a first inverting/level-shifting circuit (1101 - 1104, 1150) configured to perform inversion and level shifting; a second inverting/level-shifting circuit (1201 - 1204, 1150) configured to perform inversion and level shifting; and a differential circuit configured to output as current detection information a signal indicating a difference between the output of the first inverting/level-shifting circuit (1101 - 1104, 1150), and the output of the second inverting/level-shifting circuit (1201 - 1204, 1150), wherein one end of the resistor is connected to only the first inverting/level-shifting circuit (1101 - 1104, 1150), and the other end of the resistor is connected to only the second inverting/level-shifting circuit (1201 - 1204, 1150), outputs of the first and second inverting/level-shifting circuits (1101 - 1104, 1150; 1201 - 1204, 1150), are inputted to the differential circuit (1301 - 1305), and the semiconductor switch circuit is on/off-controlled by use of the current detection information.