mhurhangee/ep-ind-claims huggingface dataset:
A method for providing capability information of a Condition Based Uniform Resource Identifiers, URIs, Selection, CBUS, server, comprising: receiving a capability information query request sent by a CBUS client; sending the capability information of the CBUS server to the CBUS client according to the capability information query request sent by the CBUS client; and receiving a first URI selection request generated by the CBUS client according to the capability information. receiving a capability information query request sent by a CBUS client; sending the capability information of the CBUS server to the CBUS client according to the capability information query request sent by the CBUS client; and receiving a first URI selection request generated by the CBUS client according to the capability information.
A vehicle comprising: an electric storage unit that has a plurality of electric storage elements and outputs energy for use in running of the vehicle; a blower that is placed closer to the exterior of a vehicle body relative to the electric storage unit and supplies the electric storage unit with air for adjusting a temperature of the electric storage element; an intake duct that is connected to a duct of the blower; and a lower case that has a bottom portion and a pedestal, the bottom portion on which the electric storage unit is placed and the pedestal to which the blower is attached, wherein the pedestal has a first attachment portion and a second attachment portion for attaching the blower; and a first bottom area and a second bottom area that are located to be flush with the bottom portion; characterized by a first inclined area that extends from and connects the first bottom area to the first attachment portion and is inclined with respect to the bottom portion at a first inclination angle (Θ1); and a second inclined area that extends from and connects the second bottom area to the second attachment portion and is inclined with respect to the bottom portion at a second inclination angle (Θ2) larger than the first inclination angle (Θ1), and wherein the first inclined area and the second inclined area are configured to come closer to the first bottom area and the second bottom area, respectively to allow movement of the blower to a position off the electric storage unit through deformation in response to an external force acting the blower. an electric storage unit that has a plurality of electric storage elements and outputs energy for use in running of the vehicle; a blower that is placed closer to the exterior of a vehicle body relative to the electric storage unit and supplies the electric storage unit with air for adjusting a temperature of the electric storage element; an intake duct that is connected to a duct of the blower; and a lower case that has a bottom portion and a pedestal, the bottom portion on which the electric storage unit is placed and the pedestal to which the blower is attached, wherein the pedestal has a first attachment portion and a second attachment portion for attaching the blower; and a first bottom area and a second bottom area that are located to be flush with the bottom portion; characterized by a first inclined area that extends from and connects the first bottom area to the first attachment portion and is inclined with respect to the bottom portion at a first inclination angle (Θ1); and a second inclined area that extends from and connects the second bottom area to the second attachment portion and is inclined with respect to the bottom portion at a second inclination angle (Θ2) larger than the first inclination angle (Θ1), and wherein the first inclined area and the second inclined area are configured to come closer to the first bottom area and the second bottom area, respectively to allow movement of the blower to a position off the electric storage unit through deformation in response to an external force acting the blower.
A silicone represented by the following formula: wherein R 1 is, independently of each other, a group represented by the following formula: wherein n is an integer of from 2 to 8, and R 4 is a methyl group or a hydrogen atom, R 2 is, independently of each other, a substituted or unsubstituted, monovalent hydrocarbon group having 1 to 10 carbon atoms, R 3 is, independently of each other, an alkyl group having 1 to 6 carbon atoms, A 1 is a group represented by the following formula: -C m H 2m -X wherein m is an integer of from 2 to 10, X is an alkyl group having three hydroxyl groups, represented by -C p H 2p-2 3 and, may be branched, and p is an integer of from 1 to 6, a is an integer of from 1 to 500, b is an integer of from 1 to 100, and the total of a and b is 50 to 600. wherein R 1 is, independently of each other, a group represented by the following formula: wherein n is an integer of from 2 to 8, and R 4 is a methyl group or a hydrogen atom, R 2 is, independently of each other, a substituted or unsubstituted, monovalent hydrocarbon group having 1 to 10 carbon atoms, R 3 is, independently of each other, an alkyl group having 1 to 6 carbon atoms, A 1 is a group represented by the following formula: -C m H 2m -X wherein m is an integer of from 2 to 10, X is an alkyl group having three hydroxyl groups, represented by -C p H 2p-2 3 and, may be branched, and p is an integer of from 1 to 6, a is an integer of from 1 to 500, b is an integer of from 1 to 100, and the total of a and b is 50 to 600.
An RF bidirectional communication device utilizing active load modulation, the device comprising a resonance circuit including an antenna, an adjustable resistive circuit, and a control unit for controlling communication of the device, including switching between a transmission mode and a receiving modes, wherein the control unit is adapted to modify a configuration of the resonance circuit such that the resonance circuit has a first resonance frequency (f0+Δf, f0-Δf) when the device is in the receiving mode and a second resonance frequency when the device is in the transmission mode, characterized in that the control unit is adapted to adjust the resistance of the resistive circuit in an alternating manner when the device is in the transmission mode such that a Q-factor of the resonance circuit is periodically modified while the device is in the transmission mode, the adjustable resistive circuit being controlled through a periodic control signal.
A compound of formula: or a stereoisomer thereof, or a pharmaceutically acceptable salt thereof, wherein R 1 is or R 1 is or n is 0, 1, 2, 3 or 4; each R 2 is independently halogen, cyano, C 1-6 alkyl, C 3 cycloalkyl, -C 1-6 haloalkyl, -OR, -NR 2 or -SR; and each R is independently hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkyl-O-C 1-6 alkyl, -C 1-6 alkyl-NHC H, optionally substituted C 3-6 cycloalkyl, optionally substituted 4-10 membered heterocycloalkyl, optionally substituted -C 1-6 alkyl-(4-10 membered heterocycloalkyl), optionally substituted heteroaryl, optionally substituted -C 1-6 alkyl-heteroaryl. or a stereoisomer thereof, or a pharmaceutically acceptable salt thereof, wherein R 1 is or R 1 is or n is 0, 1, 2, 3 or 4; each R 2 is independently halogen, cyano, C 1-6 alkyl, C 3 cycloalkyl, -C 1-6 haloalkyl, -OR, -NR 2 or -SR; and each R is independently hydrogen, C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 alkyl-O-C 1-6 alkyl, -C 1-6 alkyl-NHC H, optionally substituted C 3-6 cycloalkyl, optionally substituted 4-10 membered heterocycloalkyl, optionally substituted -C 1-6 alkyl-(4-10 membered heterocycloalkyl), optionally substituted heteroaryl, optionally substituted -C 1-6 alkyl-heteroaryl.
Device for determining the charge carrier lifetime of a semiconductor substrate by measurement of electroluminescent radiation, having a detector for detecting the intensity of the electroluminescent radiation emitted by the semiconductor substrate (c), an excitation unit, for exciting the semiconductor substrate, in the form of a modulatable voltage source (a) which is electrically connectible to the semiconductor substrate (c), and a control/analysis unit which is designed to co-operate with the detector and the excitation unit in such a way that by means of the control/analysis unit the application of time-modulated voltage to the semiconductor substrate is specifiable and the measurement signals of the detector are analysable, wherein the excitation unit is configured in such a way that time-modulated electrical voltage can be applied to the semiconductor substrate (c) in dependence upon control signals of the control/analysis unit, and the device comprises a calibration radiator which is electrically conductively connectible to the voltage source (a) instead of the semiconductor substrate and to which the time-modulated voltage of the voltage source (a) can be applied in such a way that by means of the calibration radiator to which the time-modulated voltage is applied a radiation is generated that is at least partly incident on the detector, wherein the calibration radiator has an electric relaxation time of less than 100 ns and/or wherein the calibration radiator is in the form of a semiconductor light-emitting diode and wherein the control/analysis unit is configured for performing a calibration in such a way that a response time, which is determined by means of the device when the calibration radiator is used, is used as correction for the measured values measured by means of the device during measurement of the semiconductor substrate.
A breathing apparatus comprising a pneumatic system for conveying breathing gas in a flow direction (d) to a patient and optionally from a patient, wherein the breathing apparatus comprises at least one light source (41, 42, 43), wherein the at least one light source (41, 42, 43) is oriented in an emission direction (r) toward the breathing gas and/or toward the pneumatic system and at least one of the light sources (41, 42, 43) is designed and configured at least partially to extinguish and/or to inactivate pathogens by the radiated light, characterized in that the pneumatic system has a pneumatic circuit system for conveying breathing gas in a flow direction (d) to a patient, and a plurality of particle filters (31, 32, 33) with in each case a decreasing pore size in the flow direction (d) are arranged inside the pneumatic switching system, and pathogens are at least decelerated in their flow rate by the particle filters (31, 32, 33) and wherein at least one light source (41, 42, 43) which is designed and configured at least to weaken or to inactivate pathogens by the radiated light is oriented in a light emission direction (r) toward at least one particle filter (31, 32, 33).
An electrophysiologic catheter having: an elongated catheter body; a control handle proximal of the catheter body; and a tip electrode distal of the catheter body, the tip electrode configured for irrigation and having a shell and a support member defining an internal chamber, and a fluid tube extending longitudinally into the chamber, the fluid tube having a side wall with a plurality of apertures, wherein the plurality of apertures are arranged in a predetermined pattern, and characterized in that the predetermined pattern includes a greater spacing between more-proximal adjacent apertures and a lesser spacing between more-distal adjacent apertures in the longitudinal direction. an elongated catheter body; a control handle proximal of the catheter body; and a tip electrode distal of the catheter body, the tip electrode configured for irrigation and having a shell and a support member defining an internal chamber, and a fluid tube extending longitudinally into the chamber, the fluid tube having a side wall with a plurality of apertures, wherein the plurality of apertures are arranged in a predetermined pattern, and characterized in that the predetermined pattern includes a greater spacing between more-proximal adjacent apertures and a lesser spacing between more-distal adjacent apertures in the longitudinal direction.
A storage device for storing a key, the storage device comprising: - a housing (12, 38); - a blocking structure; - a carrier for carrying a key, the carrier being movable relative to the housing (12, 38) between a closed position, in which the carrier is accommodated within the housing (12, 38), and an open position, in which the carrier at least partly protrudes from the housing (12, 38) for retrieval of a key from the carrier, the carrier comprising a blocking member and a biasing device arranged to bias the blocking member into engagement with the blocking structure in the closed position; and - an actuator comprising a locking structure, the actuator being arranged to move the locking structure between a locking position to lock the blocking member when engaging the blocking structure, and an unlocking position in which the blocking member is not locked by the locking structure. - a housing (12, 38); - a blocking structure; - a carrier for carrying a key, the carrier being movable relative to the housing (12, 38) between a closed position, in which the carrier is accommodated within the housing (12, 38), and an open position, in which the carrier at least partly protrudes from the housing (12, 38) for retrieval of a key from the carrier, the carrier comprising a blocking member and a biasing device arranged to bias the blocking member into engagement with the blocking structure in the closed position; and - an actuator comprising a locking structure, the actuator being arranged to move the locking structure between a locking position to lock the blocking member when engaging the blocking structure, and an unlocking position in which the blocking member is not locked by the locking structure.
Charging and/or discharging system for a thermal energy storage (1, 1', 1 ", 1"') with a liquid container with at least one liquid inlet and at least one liquid discharge, wherein the liquid inlet and/or the liquid discharge comprises at least one liquid line (10, 11, 12, 13), which opens into a radial diffuser (5, 6), through which liquid is led into respectively out of the liquid container, and wherein the diffuser (5, 6) comprises a centrally arranged diffuser connecting area being connected to the liquid line (10, 11, 12, 13) and spaced apart diffuser plates (8, 9) radially extending from the diffuser connecting area, and at least one insert is provided in the diffuser connecting area, which has a flow resistance, being higher than the flow resistance of the liquid line (10, 11, 12, 13) is characterized in that the insert comprises a fitting and the fitting comprises a bidirectional Borda opening, wherein the Borda opening is an insert in form of a cylindrical pipe socket, allowing passage of liquid therethrough in both directions, that is bidirectionally.
A gas turbine engine, comprising: a first and second engine wing (72, 74), a fan, a fan case surrounding the fan, and a nacelle surrounding the fan case; wherein the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing; characterised in that: the engine wings (72, 74) are directly mounted to the fan case; the first engine wing and the second engine wing project radially outward from the fan case; and the first engine wing and second engine wing project radially outward beyond the nacelle. a first and second engine wing (72, 74), a fan, a fan case surrounding the fan, and a nacelle surrounding the fan case; wherein the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing; characterised in that: the engine wings (72, 74) are directly mounted to the fan case; the first engine wing and the second engine wing project radially outward from the fan case; and the first engine wing and second engine wing project radially outward beyond the nacelle. the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing; characterised in that: the engine wings (72, 74) are directly mounted to the fan case; the first engine wing and the second engine wing project radially outward from the fan case; and the first engine wing and second engine wing project radially outward beyond the nacelle. the engine wings (72, 74) are directly mounted to the fan case; the first engine wing and the second engine wing project radially outward from the fan case; and the first engine wing and second engine wing project radially outward beyond the nacelle.
A sock for preventing ankle injury of a subject, comprising a sock body which includes a leg section and a foot section, wherein the leg section comprises a fixation band comprising a first zone of high compression, configured to contour the transversal leg subject body, characterised in that the foot section comprises a second zone of high compression positioned to match the back of the ankle of the subject and configured to minimize subject adduction/abduction movements; and a third zone of high compression (2b, 2c) that bounds to the subject leg section and foot section with a X-shape that begins in the fixation band and contours the plant of the foot section and the upper part of the foot section, configured to restrict the movement of subject plantar flexion, wherein the first zone and the second zone of high compression are bound by a vertical band with moderate compression, wherein such vertical band accompanies laterally the peroneal alignment path of the subject ending in the fixation band, wherein the remaining zones are low compression zones, such that said low compression is lower compression than said high compression, such that said moderate compression is between said low and high compression.
A process for separation of olefin and paraffin mixtures comprising sending at least one hydrocarbon stream to a distillation column and a membrane unit to produce an olefin stream comprising at least 92 mol% olefin wherein said at least one hydrocarbon stream first passes to said distillation column to produce an upper stream more concentrated in olefin than said at least one hydrocarbon stream and a bottom stream more concentrated in paraffin than the hydrocarbon stream and then humidifying a portion of the said upper stream by injecting water into the said upper stream, maintaining a constant temperature of the humidified portion of the upper stream, and then sending said upper stream to a membrane unit to separate said upper stream into a permeate stream comprising at least 90-98 mol% olefin and a retentate stream comprising paraffin; wherein said membrane unit comprises a plurality of membranes wherein said membranes are facilitated transport membranes that comprise a solid nonporous polymer matrix layer on top of a nanoporous support membrane and metal ions incorporated into said nonporous polymer matrix layer; and wherein said olefin is C3 or C4 olefin, wherein said paraffin is C3 or C4 paraffin, and wherein said hydrocarbon stream comprises C3 or C4 olefin and C3 or C4 paraffin hydrocarbons. wherein said membrane unit comprises a plurality of membranes wherein said membranes are facilitated transport membranes that comprise a solid nonporous polymer matrix layer on top of a nanoporous support membrane and metal ions incorporated into said nonporous polymer matrix layer; and wherein said olefin is C3 or C4 olefin, wherein said paraffin is C3 or C4 paraffin, and wherein said hydrocarbon stream comprises C3 or C4 olefin and C3 or C4 paraffin hydrocarbons.
A thin film transistor substrate comprising: a substrate; a gate electrode disposed on the substrate; a semiconductor layer, the semiconductor layer comprising: a channel area, at least a portion of the channel area overlapping with the gate electrode and including a first oxide semiconductor material that is a combination of oxygen, nitrogen as a doping material, indium, gallium, and zinc, the first oxide semiconductor material comprising oxygen vacancies, wherein nitrogen particles occupy 60-80 % of the oxygen vacancies; a source area extending from one side of the channel area, wherein the source area and the gate electrode are free of mutual overlap; and a drain area extending from another side of the channel area, wherein the drain area and the gate electrode are free of mutual overlap; a gate insulating layer in between the gate electrode and the semiconductor layer; a source electrode connected to at least a portion of the source area; and a drain electrode connected to at least a portion of the drain area. a substrate; a gate electrode disposed on the substrate; a semiconductor layer, the semiconductor layer comprising: a channel area, at least a portion of the channel area overlapping with the gate electrode and including a first oxide semiconductor material that is a combination of oxygen, nitrogen as a doping material, indium, gallium, and zinc, the first oxide semiconductor material comprising oxygen vacancies, wherein nitrogen particles occupy 60-80 % of the oxygen vacancies; a source area extending from one side of the channel area, wherein the source area and the gate electrode are free of mutual overlap; and a drain area extending from another side of the channel area, wherein the drain area and the gate electrode are free of mutual overlap; a channel area, at least a portion of the channel area overlapping with the gate electrode and including a first oxide semiconductor material that is a combination of oxygen, nitrogen as a doping material, indium, gallium, and zinc, the first oxide semiconductor material comprising oxygen vacancies, wherein nitrogen particles occupy 60-80 % of the oxygen vacancies; a source area extending from one side of the channel area, wherein the source area and the gate electrode are free of mutual overlap; and a drain area extending from another side of the channel area, wherein the drain area and the gate electrode are free of mutual overlap; a gate insulating layer in between the gate electrode and the semiconductor layer; a source electrode connected to at least a portion of the source area; and a drain electrode connected to at least a portion of the drain area.