mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicular mobile terminal for transmitting vehicular data and other data to one or more receiving entities, wherein the vehicular mobile terminal is configured to transmit the vehicular data and the other data via a sidelink radio interface to another vehicular entity, wherein the vehicular mobile terminal comprises: a receiver operative to receive an uplink grant from a radio base station controlling the cell to which the vehicular mobile terminal is attached, wherein the uplink grant indicates radio resources usable by the vehicular mobile terminal to transmit the vehicular data and/or the other data, and a transmitter operative to transmit the vehicular data and/or the other data using the radio resources indicated in the uplink grant, wherein the vehicular mobile terminal is operative to handle the vehicular data and the other data separately from one another, wherein the received uplink grant is a vehicular-data-specific uplink grant, indicating radio resources to be used by the vehicular mobile terminal to transmit only the vehicular data, and wherein the transmitter is operative to transmit the vehicular data using the radio resources indicated in the vehicular-data-specific uplink grant to the other vehicular entity. a receiver operative to receive an uplink grant from a radio base station controlling the cell to which the vehicular mobile terminal is attached, wherein the uplink grant indicates radio resources usable by the vehicular mobile terminal to transmit the vehicular data and/or the other data, and a transmitter operative to transmit the vehicular data and/or the other data using the radio resources indicated in the uplink grant,
A pair of sliding parts respectively having sealing faces (S) that relatively slide on each other, the sliding parts constituting a pair of rotating and stationary sealing rings suitable for a mechanical seal device, wherein: each of the sealing faces (S) is a flat sealing face, at least one of the sealing faces (S) having a large number of dimples formed therein, and wherein: the large number of dimples have different opening diameters, each of the dimples being provided independently from the other dimples on the sealing face (S), the dimples being arranged in such a manner that the large number of dimples having different opening diameters is randomly distributed, a high-pressure fluid side existing on an inner peripheral side of the sliding parts, and a low-pressure fluid side existing on an outer peripheral side of the sliding parts, a sectional shape of one of the sliding parts being a convex shape and a top face thereof forming the flat sealing face (S) having the large number of dimples, characterized in that , on the one of the sliding parts: the large number of dimples are provided not over the entire width in the radial direction of the sealing face (s) and are isolated from the low-pressure fluid side by a flat seal face , , the dimples being arranged to communicate with the inner peripheral side. the large number of dimples have different opening diameters, each of the dimples being provided independently from the other dimples on the sealing face (S), the dimples being arranged in such a manner that the large number of dimples having different opening diameters is randomly distributed, a high-pressure fluid side existing on an inner peripheral side of the sliding parts, and a low-pressure fluid side existing on an outer peripheral side of the sliding parts, a sectional shape of one of the sliding parts being a convex shape and a top face thereof forming the flat sealing face (S) having the large number of dimples,
Device for controlling a load flow in an alternating-voltage network , wherein the device includes: - a modular series connection of bipolar switching modules , which can be serially inserted into a phase line of the alternating-voltage network , wherein each switching module exhibits an energy-storage device and also power semiconductors that are capable of being driven and capable of being switched on and off, and is capable of being driven in such a manner that at its poles a switching-module voltage can be generated that corresponds to a positive or negative energy-storage voltage or to a voltage having the value zero, and - a control device for driving the switching modules , which has been set up to drive the switching modules in such a manner that a periodic longitudinal voltage can be generated at the modular series connection ; characterized in that the device further includes - a further modular series connection of the bipolar switching modules , which can be inserted into an outgoing line of the alternating-voltage network which is connected to the phase line , and by means of which a longitudinal voltage can be generated, and also - an energy-exchange device which can be connected to the modular series connection and to the further modular series connection and which has been set up for the exchange of electrical energy between the phase line and the outgoing line . - a modular series connection of bipolar switching modules , which can be serially inserted into a phase line of the alternating-voltage network , wherein each switching module exhibits an energy-storage device and also power semiconductors that are capable of being driven and capable of being switched on and off, and is capable of being driven in such a manner that at its poles a switching-module voltage can be generated that corresponds to a positive or negative energy-storage voltage or to a voltage having the value zero, and - a control device for driving the switching modules , which has been set up to drive the switching modules in such a manner that a periodic longitudinal voltage can be generated at the modular series connection ; - a further modular series connection of the bipolar switching modules , which can be inserted into an outgoing line of the alternating-voltage network which is connected to the phase line , and by means of which a longitudinal voltage can be generated, and also - an energy-exchange device which can be connected to the modular series connection and to the further modular series connection and which has been set up for the exchange of electrical energy between the phase line and the outgoing line .
A power conversion device comprising: - an inverter circuit that includes a bridge-connected power semiconductor element and is connected to a DC power supply through an openable and closable contactor ; - a driver circuit to drive the power semiconductor element; - a driver circuit control part that performs Pulse Width Modulation, PWM, control on the driver circuit and causes the power semiconductor element to perform a switching operation; - a voltage smoothing capacitor connected in parallel to an input side of the inverter circuit ; - a driver power supply circuit that is connected in parallel to the voltage smoothing capacitor , is inputted with a voltage applied to the voltage smoothing capacitor and supplies electric power to the driver circuit , wherein a discharge power consuming resistor (R10) is provided at a secondary side of the driver power supply circuit and in parallel to the driver circuit ; - a discharge circuit that includes a resistor for discharging an electric charge of the voltage smoothing capacitor and a discharging switching element connected in series to the resistor , and is connected in parallel to the voltage smoothing capacitor ; and - a discharge control part that turns on the discharging switching element when the contactor is placed in an open state and causes the discharge circuit to discharge. - an inverter circuit that includes a bridge-connected power semiconductor element and is connected to a DC power supply through an openable and closable contactor ; - a driver circuit to drive the power semiconductor element; - a driver circuit control part that performs Pulse Width Modulation, PWM, control on the driver circuit and causes the power semiconductor element to perform a switching operation; - a voltage smoothing capacitor connected in parallel to an input side of the inverter circuit ; - a driver power supply circuit that is connected in parallel to the voltage smoothing capacitor , is inputted with a voltage applied to the voltage smoothing capacitor and supplies electric power to the driver circuit , wherein a discharge power consuming resistor (R10) is provided at a secondary side of the driver power supply circuit and in parallel to the driver circuit ; - a discharge circuit that includes a resistor for discharging an electric charge of the voltage smoothing capacitor and a discharging switching element connected in series to the resistor , and is connected in parallel to the voltage smoothing capacitor ; and - a discharge control part that turns on the discharging switching element when the contactor is placed in an open state and causes the discharge circuit to discharge.
A method for preventing sharing vehicle parking congestion, performed in at least a node of a parking wireless network, wherein a sharing vehicle and a coordinator in a parking region form the parking wireless network such as ad hoc mesh network and wherein each sharing vehicle and the coordinator are deemed as a node in the parking wireless network; the method comprising: detecting , by a first node, an incoming sharing vehicle; and wherein a command message comprising parking-related information is sent to the incoming sharing vehicle, and the command message is generated based on a congestion state of the parking wireless network. wherein a sharing vehicle and a coordinator in a parking region form the parking wireless network such as ad hoc mesh network and wherein each sharing vehicle and the coordinator are deemed as a node in the parking wireless network; the method comprising: detecting , by a first node, an incoming sharing vehicle; and wherein a command message comprising parking-related information is sent to the incoming sharing vehicle, and the command message is generated based on a congestion state of the parking wireless network.
An injectable aqueous implant formulation which has been sterilized by gamma-ray or X-ray- irradiation and which comprises 25-45 w/w % of a mixture of nanocrystalline hydroxyapatite particles derived from natural bone having a size of 50 to 200 μm as determined by sieving and fragments of naturally crosslinked fibrous collagen material that pass through a 0.5 mm sieve, whereby the w/w ratio of nanocrystalline hydroxyapatite to collagen is from 1.8 to 4.5, characterized in that it contains 0.1-1 w/w % ascorbic acid.
A screening chip for cell sorting, said screening chip comprising a substrate having opposing first and second surfaces, wherein at least a portion of said first surface is coated with a Raman-inactive coating material which can be vaporised by laser irradiation at a wavelength λ 1 and wherein said substrate is transparent to laser radiation at wavelength λ 1 ; characterized in that the Raman-inactive coating material is a composite comprising a Raman-inactive layer and a Raman-active layer, wherein the Raman-active layer is in contact with the substrate such that the Raman-inactive layer is separated from the substrate by the Raman-active layer.
An absorbent structure comprising: a first area of fibrous absorbent material; and a second area of fibrous absorbent material; the first area having a greater basis weight than the second area, the second area including a plurality of segments separated by vertical interfaces , each of the vertical interfaces having a width less than 1 cm, bridging of fibrous absorbent material extends across the vertical interfaces , characterised in that the first area is free from voids and vertical interfaces such that it is substantially continuous, the first area covers between 34% and 70% of the entire area of the absorbent structure and the second area covers between 30% and 66% of the entire area of the absorbent structure , and the first area is formed in a median area of the absorbent structure. a first area of fibrous absorbent material; and a second area of fibrous absorbent material; the first area having a greater basis weight than the second area, the second area including a plurality of segments separated by vertical interfaces , each of the vertical interfaces having a width less than 1 cm, bridging of fibrous absorbent material extends across the vertical interfaces , characterised in that the first area is free from voids and vertical interfaces such that it is substantially continuous, the first area covers between 34% and 70% of the entire area of the absorbent structure and the second area covers between 30% and 66% of the entire area of the absorbent structure , and the first area is formed in a median area of the absorbent structure.
Method for separation and reprocessing of composed materials, preferably waste construction materials, by using a plant according to claim 3, said method including the following steps; a) - shredding of the composed material in a shredder b) - feeding the shredded material into a roller/wrenching unit , arranged directly below the shredder , c) - screening of the shredded and crushed material in a drum screen to separate the sub-components in the composed material , : d) - transport of the separated sub-components to bins, heaps, or containers , : wherein between process steps b) and c) a first segregation of metals from the crushed material is carried out in a first magnet separator , and wherein between the process steps c) and d) a second segregation of metals is carried out in a second magnet separator relative to one or several of the separated sub-components, wherein between the drum screen and the interior cantilevered roller being in contact with the interior side of the screen a step of crushing and releasing the gypsum from the cardboard pieces takes place. a) - shredding of the composed material in a shredder b) - feeding the shredded material into a roller/wrenching unit , arranged directly below the shredder , c) - screening of the shredded and crushed material in a drum screen to separate the sub-components in the composed material , : d) - transport of the separated sub-components to bins, heaps, or containers , : wherein between process steps b) and c) a first segregation of metals from the crushed material is carried out in a first magnet separator , and wherein between the process steps c) and d) a second segregation of metals is carried out in a second magnet separator relative to one or several of the separated sub-components, wherein between the drum screen and the interior cantilevered roller being in contact with the interior side of the screen a step of crushing and releasing the gypsum from the cardboard pieces takes place. wherein between process steps b) and c) a first segregation of metals from the crushed material is carried out in a first magnet separator , and wherein between the process steps c) and d) a second segregation of metals is carried out in a second magnet separator relative to one or several of the separated sub-components, wherein between the drum screen and the interior cantilevered roller being in contact with the interior side of the screen a step of crushing and releasing the gypsum from the cardboard pieces takes place.
A method of fabricating a waveguide device comprising: providing a rib waveguide, the rib waveguide comprising: a base, and a ridge extending from the base; wherein: the base includes a first slab region at a first side of the ridge and a second slab region at a second side of the ridge; and creating a first doped slab region which extends along the first slab region; the step of creating the first doped slab region comprising: providing a photoresist over at least a portion of the second slab region, the photoresist extending further from the base than the ridge extends from the base; implanting the first slab region with a dopant at an angle α to the first sidewall of the waveguide, using the photoresist as a mask to cast a shadow over regions not to be doped including the second sidewall of the ridge. providing a rib waveguide, the rib waveguide comprising: a base, and a ridge extending from the base; wherein: the base includes a first slab region at a first side of the ridge and a second slab region at a second side of the ridge; and a base, and a ridge extending from the base; wherein: the base includes a first slab region at a first side of the ridge and a second slab region at a second side of the ridge; and creating a first doped slab region which extends along the first slab region; the step of creating the first doped slab region comprising: providing a photoresist over at least a portion of the second slab region, the photoresist extending further from the base than the ridge extends from the base; implanting the first slab region with a dopant at an angle α to the first sidewall of the waveguide, using the photoresist as a mask to cast a shadow over regions not to be doped including the second sidewall of the ridge. providing a photoresist over at least a portion of the second slab region, the photoresist extending further from the base than the ridge extends from the base; implanting the first slab region with a dopant at an angle α to the first sidewall of the waveguide, using the photoresist as a mask to cast a shadow over regions not to be doped including the second sidewall of the ridge.
An antibody which specifically binds integrin β1 comprising a heavy chain variable (VH) region and a light chain variable (VL) region, wherein the antibody comprises a VH region having an amino acid sequence as set forth in SEQ ID NO:12 and a VL region having an amino acid sequence as set forth in SEQ ID NO:22.
An apparatus for controlling a network gateway , comprising at least one means for communication configured for communicating in at least one computer network; and a means for processing configured for at least partially executing at least a first software module and a second software module , wherein the first software module is configured to provide a gateway functionality of the network gateway via the at least one means for communication , wherein a functionality of the second software module is different from the gateway functionality of the first software module , and wherein the second software module is encapsulated from the first software module by providing a software interface (1020; 1025) between the first software module and the second software module , wherein the means for processing is configured for limiting an access from the second software module to the first software module through the software interface (1020; 1025) based on a plurality of access rights. at least one means for communication configured for communicating in at least one computer network; and a means for processing configured for at least partially executing at least a first software module and a second software module , wherein the first software module is configured to provide a gateway functionality of the network gateway via the at least one means for communication , wherein a functionality of the second software module is different from the gateway functionality of the first software module , and wherein the second software module is encapsulated from the first software module by providing a software interface (1020; 1025) between the first software module and the second software module , wherein the means for processing is configured for limiting an access from the second software module to the first software module through the software interface (1020; 1025) based on a plurality of access rights.
An organic photovoltaic device, in a layered structure, comprising: - a substrate , - a bottom electrode , - a top electrode , wherein the bottom electrode is closer to the substrate than the top electrode , - an electronically active region , the electronically active region being provided between and being in electrical contact with the bottom electrode and the top electrode , - a light absorbing region provided in the electronically active region , and - a non-flat layer provided in the electronically active region , wherein the non-flat layer is a non-closed layer comprising a plurality of particles provided on an underlying layer and separated from each other by spaces free of such particles, characterized in that the non-flat layer causes the top electrode to be provided with an electrode roughness by roughening the top electrode on an outer side of the top electrode facing away from the electronically active region such that the top electrode is a non-flat electrode. - a substrate , - a bottom electrode , - a top electrode , wherein the bottom electrode is closer to the substrate than the top electrode , - an electronically active region , the electronically active region being provided between and being in electrical contact with the bottom electrode and the top electrode , - a light absorbing region provided in the electronically active region , and - a non-flat layer provided in the electronically active region ,
A power module substrate comprising: a ceramic substrate; and a circuit layer which is formed on one surface of the ceramic substrate and has a circuit pattern, wherein the circuit layer is made of Cu or a Cu alloy, in an interface between the circuit layer and the ceramic substrate, a Cu-Sn layer in which Sn forms a solid solution in Cu and a Ti-containing layer containing Ti are laminated in this order from the ceramic substrate side, characterized in that in a cross-sectional shape of an end portion of the circuit pattern of the circuit layer, an angle θ formed between a surface of the ceramic substrate and an end face of the Cu-Sn layer is set in a range equal to or greater than 80° and equal to or smaller than 100°, and a maximum protrusion length L of the Cu-Sn layer or the Ti-containing layer from an end face of the circuit layer is set in a range equal to or greater than 2 μm and equal to or smaller than 15 μm. a ceramic substrate; and a circuit layer which is formed on one surface of the ceramic substrate and has a circuit pattern, wherein the circuit layer is made of Cu or a Cu alloy, in an interface between the circuit layer and the ceramic substrate, a Cu-Sn layer in which Sn forms a solid solution in Cu and a Ti-containing layer containing Ti are laminated in this order from the ceramic substrate side, characterized in that in a cross-sectional shape of an end portion of the circuit pattern of the circuit layer, an angle θ formed between a surface of the ceramic substrate and an end face of the Cu-Sn layer is set in a range equal to or greater than 80° and equal to or smaller than 100°, and a maximum protrusion length L of the Cu-Sn layer or the Ti-containing layer from an end face of the circuit layer is set in a range equal to or greater than 2 μm and equal to or smaller than 15 μm.
A chewable oral delivery vehicle comprising a chewable matrix and at least one soft gelatin capsule encapsulating an oxidizable fatty acid composition, wherein said at least one soft gelatin capsule is incorporated into said chewable matrix, and wherein said soft gelatin capsule has a volume of from 0.10 ml to 0.50 ml.