mhurhangee/patent-ind-claim-en huggingface dataset:
A slot offset determination method performed by a User Equipment, UE , the slot offset determination method comprising: receiving Channel State Information, CSI, report request information from a network device ; determining a reference slot offset T in accordance with the CSI report request information; and determining a slot offset for a CSI reference resource in accordance with the reference slot offset T, the slot offset determination method is characterized in that , the slot offset for the CSI reference resource refers to a time difference between a slot for CSI transmitted by the UE to the network device and another slot where the CSI reference resource is located, wherein the CSI reference resource is a downlink slot, and when the slot for CSI transmitted by the UE to the network device is n, and the slot offset for the CSI reference resource is n CQI_ref , then the downlink slot for the CSI reference resource is n-n CQI_ref , wherein the determining the reference slot offset T in accordance with the CSI report request information comprises: determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time. receiving Channel State Information, CSI, report request information from a network device ; determining a reference slot offset T in accordance with the CSI report request information; and determining a slot offset for a CSI reference resource in accordance with the reference slot offset T, the slot offset determination method is characterized in that , the slot offset for the CSI reference resource refers to a time difference between a slot for CSI transmitted by the UE to the network device and another slot where the CSI reference resource is located, wherein the CSI reference resource is a downlink slot, and when the slot for CSI transmitted by the UE to the network device is n, and the slot offset for the CSI reference resource is n CQI_ref , then the downlink slot for the CSI reference resource is n-n CQI_ref , wherein the determining the reference slot offset T in accordance with the CSI report request information comprises: determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time. determining a CSI computation time for the CSI report in accordance with the CSI report request information; and determining the reference slot offset T in accordance with the CSI computation time.
A piston compressor, comprising at least one piston compressor element that is provided with a housing with a compression chamber in which a piston is arranged movably back and forth in an axial direction (X-X') between an upper dead point and a lower dead point by means of a drive shaft driven by a rotary motor , and in which between this drive shaft and the piston , a kinematic transmission is provided for the primary drive of the piston , characterized in that the piston is provided with a complementary drive in the form of an electromagnetic linear drive.
An implantable medical device comprising: one or more electrodes comprising a tissue-piercing electrode implantable from the triangle of Koch region of the right atrium through the right atrial endocardium and central fibrous body to deliver cardiac therapy to or sense electrical activity of the left ventricle in the basal region, septal region, or basal-septal region of the left ventricular myocardium of a patient's heart, and an imageable member comprising an imageable material coupled to a housing or a lead configured, when viewed using two-dimensional imaging, to provide orientation information in a third dimension orthogonal to the two dimensions; a therapy delivery circuit operably coupled to the one or more electrodes to deliver cardiac therapy to the patient's heart; a sensing circuit operably coupled to the one or more electrodes to sense electrical activity of the patient's heart; and a controller comprising processing circuitry operably coupled to the therapy delivery circuit and the sensing circuit, the controller configured to: sense electrical activity using the one or more electrodes; and deliver cardiac therapy based on the sensed electrical activity. one or more electrodes comprising a tissue-piercing electrode implantable from the triangle of Koch region of the right atrium through the right atrial endocardium and central fibrous body to deliver cardiac therapy to or sense electrical activity of the left ventricle in the basal region, septal region, or basal-septal region of the left ventricular myocardium of a patient's heart, and an imageable member comprising an imageable material coupled to a housing or a lead configured, when viewed using two-dimensional imaging, to provide orientation information in a third dimension orthogonal to the two dimensions; a therapy delivery circuit operably coupled to the one or more electrodes to deliver cardiac therapy to the patient's heart; a sensing circuit operably coupled to the one or more electrodes to sense electrical activity of the patient's heart; and a controller comprising processing circuitry operably coupled to the therapy delivery circuit and the sensing circuit, the controller configured to: sense electrical activity using the one or more electrodes; and deliver cardiac therapy based on the sensed electrical activity. sense electrical activity using the one or more electrodes; and deliver cardiac therapy based on the sensed electrical activity.
A bearing member for supporting a rotatable axle, comprising - a bearing housing ; - at least one bearing inserted into the bearing housing ; wherein the bearing is configured to receive a rotatable shaft extending through the bearing; and - a tilting member arranged around the bearing housing ; characterised in that the tilting member comprises a pack of annular discs forming a through hole for receiving said bearing housing ; wherein each of the annular discs comprises a plurality of apertures extending through each of the discs and wherein the tilting member further comprises a sleeve element provided in each of the apertures for holding the annular discs together as a stack and arranged for receiving a fastening means for attaching the tilting member to said bearing housing or a stationary machine element ; and wherein the bearing member further comprises - at least one fastening element extending through a sleeve of the tilting member and attaching the tilting member to the bearing housing . - a bearing housing ; - at least one bearing inserted into the bearing housing ; wherein the bearing is configured to receive a rotatable shaft extending through the bearing; and - a tilting member arranged around the bearing housing ; characterised in that the tilting member comprises a pack of annular discs forming a through hole for receiving said bearing housing ; wherein each of the annular discs comprises a plurality of apertures extending through each of the discs and wherein the tilting member further comprises a sleeve element provided in each of the apertures for holding the annular discs together as a stack and arranged for receiving a fastening means for attaching the tilting member to said bearing housing or a stationary machine element ; and wherein the bearing member further comprises - at least one fastening element extending through a sleeve of the tilting member and attaching the tilting member to the bearing housing .
A method for preparing a cobalt catalyst precursor by (i) impregnating a catalyst support with an aqueous solution of cobalt nitrate, (ii) calcining the impregnated support in air at a temperature in the range 130 - 500°C for ≤ 24 hours to effect partial denitrification and form Co 3 O 4 , (iii) subsequently heating the calcined impregnated support comprising Co 3 O 4 to a temperature above 50°C and below 225°C in the presence of a gas mixture comprising 0.1-10% hydrogen by volume in an inert gas to form a catalyst precursor without causing any reduction of the cobalt to metallic form, and (iv) forming the catalyst precursor into shaped units.
A system for use with a wearable defibrillator worn by a patient , the system comprising: an electrode ; a source of pressurized fluid; a conductive fluid reservoir containing a conductive fluid , the conductive fluid reservoir comprising one or more outlets and an inflatable pouch ; a fluid channel fluidly connecting the source of pressurized fluid to the fluid reservoir ; and a controller configured to control selective delivery of a pressurized fluid from the source of pressurized fluid to the inflatable pouch , wherein the inflatable pouch is configured to be inflated from a deflated state to an inflated state in response to the pressurized fluid being delivered from the source of pressurized fluid; wherein, in the deflated state, a free end of the inflatable pouch covers the one or more outlets and seals the one or more outlets from the conductive fluid in the conductive fluid reservoir , and wherein, in the inflated state, the free end of the inflatable pouch is removed from the one or more outlets such that the conductive fluid is allowed to flow from the conductive fluid reservoir through the one or more outlets to increase electrical connectivity between the electrode and the patient. an electrode ; a source of pressurized fluid; a conductive fluid reservoir containing a conductive fluid , the conductive fluid reservoir comprising one or more outlets and an inflatable pouch ; a fluid channel fluidly connecting the source of pressurized fluid to the fluid reservoir ; and a controller configured to control selective delivery of a pressurized fluid from the source of pressurized fluid to the inflatable pouch , wherein the inflatable pouch is configured to be inflated from a deflated state to an inflated state in response to the pressurized fluid being delivered from the source of pressurized fluid; wherein, in the deflated state, a free end of the inflatable pouch covers the one or more outlets and seals the one or more outlets from the conductive fluid in the conductive fluid reservoir , and wherein, in the inflated state, the free end of the inflatable pouch is removed from the one or more outlets such that the conductive fluid is allowed to flow from the conductive fluid reservoir through the one or more outlets to increase electrical connectivity between the electrode and the patient.
A card device comprising a first interface (legacy I/F) that connects the card device with a host device, and is configured, after being supplied (S401) with a first voltage (VDD1) from the host device through one of terminals (R1) that constitute the first interface, to receive (S403), from the host device through the first interface, an inquiry on whether or not the card device includes the second interface (PCIe I/F) different from the first interface, and on whether or not the second interface supports a second voltage (VDD3) different from the first voltage (VDD1), the card device being further configured to notify (S404), through the first interface, the host device that the card device includes the second interface and that the second interface does not support the second voltage (VDD3), after the card device is supplied (S405) with a third voltage (VDD2) different from both the first voltage (VDD1) and the second voltage (VDD3) from the host device through one of the terminals (R2) that constitutes the second interface, the card device being further configured to set (S406) a signal of one of terminals that constitute the first interface to "LOW", and to allow the host device to initialize (S408) the second interface through the second interface. the card device being further configured to notify (S404), through the first interface, the host device that the card device includes the second interface and that the second interface does not support the second voltage (VDD3), after the card device is supplied (S405) with a third voltage (VDD2) different from both the first voltage (VDD1) and the second voltage (VDD3) from the host device through one of the terminals (R2) that constitutes the second interface, the card device being further configured to set (S406) a signal of one of terminals that constitute the first interface to "LOW", and to allow the host device to initialize (S408) the second interface through the second interface.
A method , performed by a network device, for information transmission, comprising transmitting a non-access stratum, NAS, message to a terminal, wherein multiple UMTS subscriber identity modules, USIMs, are installed on the terminal, wherein the terminal performs communication by using network connection corresponding to a USIM, and wherein the NAS message contains a capability parameter, the capability parameter being used to indicate a multi-card capability supported and/or allowed by the network device, and the multi-card capability supported and/or allowed by the network device comprising: receiving, from the terminal, a service list; supporting or allowing to determine, according to the service list, whether to transmit a paging message to the terminal, the service list containing service information indicative of that the network device is prohibited from transmitting the paging message to the terminal on condition that the terminal is in a radio resource control inactive, RRC-Inactive, state and/or a connection management idle, CM-IDLE, state.
Valve arrangement for dispensing a fluid (F), the valve arrangement having a valve plate for fixing the valve arrangement to a container , a valve housing and a fixing part for fixing the valve housing to the valve plate , wherein the valve plate has a receiving space for receiving the valve housing , wherein the fixing part is laser-welded or ultrasonically welded with the valve plate , and wherein the fixing part has a first cylindrical or conical portion which is inserted into the receiving space , and has a second collar- or flange-like portion which projects radially from the first portion and lies against an underside of the valve plate , characterized in that the valve housing is clamped between the valve plate and the fixing part without play. wherein the valve plate has a receiving space for receiving the valve housing , wherein the fixing part is laser-welded or ultrasonically welded with the valve plate , and wherein the fixing part has a first cylindrical or conical portion which is inserted into the receiving space , and has a second collar- or flange-like portion which projects radially from the first portion and lies against an underside of the valve plate , characterized in that the valve housing is clamped between the valve plate and the fixing part without play.
A system for configuration and control of a device , the system comprising: a device processor comprising at least two processing cores , the device processor configured to control a physical equipment system; a device firmware executed by one of the at least two processing cores , the device firmware including a device runtime system for the device ; a device-based engineering server executed on another one of the at least two processing cores independent of the device firmware for performing engineering services related to configuration and control of the device ; a hypervisor configured to manage communication between the device firmware and the device-based engineering server via a communication path ; a web server running on the device-based engineering server ; and a webApp for performing web-based functionality for configuration and control of the device ; wherein the webApp is configured to present a graphical user interface to a user's web browser running on a computer and being in communication with the web server running on the device-based engineering server ; wherein the device-based engineering server is configured to receive a configuration or control instruction, which is initiated via the user's web browser , and to communicate the received configuration or control instruction to the device firmware via the communication path established in the hypervisor ; and wherein the device runtime system of the device firmware is configured to execute the configuration or control instruction received via the communication path established in the hypervisor . a device processor comprising at least two processing cores , the device processor configured to control a physical equipment system; a device firmware executed by one of the at least two processing cores , the device firmware including a device runtime system for the device ; a device-based engineering server executed on another one of the at least two processing cores independent of the device firmware for performing engineering services related to configuration and control of the device ; a hypervisor configured to manage communication between the device firmware and the device-based engineering server via a communication path ; a web server running on the device-based engineering server ; and a webApp for performing web-based functionality for configuration and control of the device ; wherein the webApp is configured to present a graphical user interface to a user's web browser running on a computer and being in communication with the web server running on the device-based engineering server ; wherein the device-based engineering server is configured to receive a configuration or control instruction, which is initiated via the user's web browser , and to communicate the received configuration or control instruction to the device firmware via the communication path established in the hypervisor ; and wherein the device runtime system of the device firmware is configured to execute the configuration or control instruction received via the communication path established in the hypervisor .
An electroluminescence display comprising: a pixel on a substrate , the pixel comprising a thin film transistor (ST, DT) and a light emitting diode (OLE), the thin film transistor including a semiconductor layer (SA, DA), a gate electrode (SG, DG), a source electrode (SS, DS), and a drain electrode (SD, DD), and the light emitting diode including an anode electrode (ANO) that is connected to the thin film transistor; a repair element (RP) having a welding part (WD, WD1, WD2) that is configured to be connected to the thin film transistor; a planarization layer (PL) on the repair element, the planarization layer including a depression (WE) that overlaps the welding part of the repair element; characterized by an organic material (PM) in the depression of the planarization layer, wherein the anode electrode includes a first anode electrode layer (A1) and a second anode electrode layer (A2), the first anode electrode layer including a portion that is disposed in the depression of the planarization layer, and the second anode electrode layer on the first anode electrode layer and the organic material, and the first anode electrode layer (A1), the organic material (PM) and the second anode electrode layer (A2) are stacked sequentially. a pixel on a substrate , the pixel comprising a thin film transistor (ST, DT) and a light emitting diode (OLE), the thin film transistor including a semiconductor layer (SA, DA), a gate electrode (SG, DG), a source electrode (SS, DS), and a drain electrode (SD, DD), and the light emitting diode including an anode electrode (ANO) that is connected to the thin film transistor; a repair element (RP) having a welding part (WD, WD1, WD2) that is configured to be connected to the thin film transistor; a planarization layer (PL) on the repair element, the planarization layer including a depression (WE) that overlaps the welding part of the repair element; characterized by an organic material (PM) in the depression of the planarization layer, wherein the anode electrode includes a first anode electrode layer (A1) and a second anode electrode layer (A2), the first anode electrode layer including a portion that is disposed in the depression of the planarization layer, and the second anode electrode layer on the first anode electrode layer and the organic material, and the first anode electrode layer (A1), the organic material (PM) and the second anode electrode layer (A2) are stacked sequentially.
A computer-implemented method for simulating the effect of snowfall on LiDAR point clouds for a LiDAR system comprising: - obtaining a LiDAR dataset containing LiDAR point cloud data for a clear weather environment that has been collected by a LiDAR system in a real environment (S1), - simulating the effect of snowfall on the LiDAR point cloud data (S2), and - augmenting the LiDAR point cloud data based on the simulated effect of snowfall to generate partially synthetic snowy LiDAR data (S5); wherein simulating the effect of snowfall on the LiDAR point cloud data comprises: - sampling snow particles in 2D space for each LiDAR beam of the dataset (S3), each snow particle reflecting only a fraction of an opening angle of the beam, also letting a fraction of the beam reach a target; and - an analytical calculation of a received power received by a sensor of the LiDAR system, such received power being a superposition of multiple echoes, wherein each echo is associated with one of the snow particles or the target. - obtaining a LiDAR dataset containing LiDAR point cloud data for a clear weather environment that has been collected by a LiDAR system in a real environment (S1), - simulating the effect of snowfall on the LiDAR point cloud data (S2), and - augmenting the LiDAR point cloud data based on the simulated effect of snowfall to generate partially synthetic snowy LiDAR data (S5); - sampling snow particles in 2D space for each LiDAR beam of the dataset (S3), each snow particle reflecting only a fraction of an opening angle of the beam, also letting a fraction of the beam reach a target; and - an analytical calculation of a received power received by a sensor of the LiDAR system, such received power being a superposition of multiple echoes, wherein each echo is associated with one of the snow particles or the target.
A drafting system for a spinning machine for drafting a fiber strand , having at least one first roller pair made of a top roller and a bottom roller , and having a second roller pair made of a top output roller and a bottom output roller , and having a fiber condensing device for condensing the drafted fiber strand and disposed downstream of the output roller pair and comprising a pneumatic condensing device having a fiber bundling zone and having a suctionable suction tube enlaced by a lattice element , a first clamping point (K1) being defined by the first roller pair and a second clamping point (K2) being defined by the second roller pair , and the first clamping point (K1) and the second clamping point (K2) implementing a drafting zone plane transited by the fiber strand in a running direction from the first clamping point (K1) to the second clamping point (K2) and a third clamping point (K3) is defined by the top output roller and the lattice element , characterized in that the top output roller comprises an offset (A) in the drafting zone plane relative to the bottom output roller as seen in the running direction of the fiber strand , and wherein a clamping length (B) from the second clamping point (K2) to the third clamping point (K3) along a surface of the top output roller is less than an average staple length of the fiber strand to be drafted at the drafting system.