mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communications device comprising: a radio frequency, RF, component to receive a Request to Send, RTS, frame over a communications channel ; a memory storing instructions, and processing circuitry coupled to the memory, the processing circuitry to implement the instructions to: process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field , the Duration field indicating: whether a Network Allocation Vector (NAV) is set at the wireless communication device for at least one of two or more directional channels of the communications channel , or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication , wherein the indication indicates which at least part of the communications channel is detected to be busy. a radio frequency, RF, component to receive a Request to Send, RTS, frame over a communications channel ; a memory storing instructions, and processing circuitry coupled to the memory, the processing circuitry to implement the instructions to: process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field , the Duration field indicating: whether a Network Allocation Vector (NAV) is set at the wireless communication device for at least one of two or more directional channels of the communications channel , or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication , wherein the indication indicates which at least part of the communications channel is detected to be busy. process the RTS frame received over the communications channel; generate a Denial to Send, DTS, frame, wherein the DTS frame comprises at least a Duration field , the Duration field indicating: whether a Network Allocation Vector (NAV) is set at the wireless communication device for at least one of two or more directional channels of the communications channel , or a duration value specifying a length of time for which the NAV is set; the RF component further to transmit the Denial to Send, DTS, frame over one or more of the two or more directional channels; and wherein the DTS frame further comprises a channel bandwidth indication , wherein the indication indicates which at least part of the communications channel is detected to be busy.
An apparatus for providing power to an electric powered system comprising: a generator set configured to be coupled to the electric powered system and to generate electrical energy; a load bank coupled to the generator set and configured to switchably receive the electrical energy generated by the generator set; and a control system coupled to the generator set; characterized in that the control system is configured to: in response to detecting a placing of the electric powered system in an armed mode, increase the generation of the electrical energy and transmit at least some of the increased electrical energy generated by the generator set to the load bank, and in response to detecting a triggering of the electric powered system, switch a destination of at least some of the increased electrical energy generated by the generator set to the electric powered system. a generator set configured to be coupled to the electric powered system and to generate electrical energy; a load bank coupled to the generator set and configured to switchably receive the electrical energy generated by the generator set; and a control system coupled to the generator set; characterized in that the control system is configured to: in response to detecting a placing of the electric powered system in an armed mode, increase the generation of the electrical energy and transmit at least some of the increased electrical energy generated by the generator set to the load bank, and in response to detecting a triggering of the electric powered system, switch a destination of at least some of the increased electrical energy generated by the generator set to the electric powered system. in response to detecting a placing of the electric powered system in an armed mode, increase the generation of the electrical energy and transmit at least some of the increased electrical energy generated by the generator set to the load bank, and in response to detecting a triggering of the electric powered system, switch a destination of at least some of the increased electrical energy generated by the generator set to the electric powered system.
A system for image completion, comprising: a coordinate generation module configured to receive first past frames and a first present frame , the first past frames and the first present frame having a first field-of-view, FoV, and to generate a set of coordinate maps , one for each of the received first past frames , wherein the coordinate map corresponding to a first past frame provides a spatial mapping of the first past frame to a coordinate system of the first present frame ; and a frame aggregation module configured to receive as input the first past frames , the first present frame , and the coordinate maps and to synthesize, based on said input, a second present frame having a second FoV equal or greater than the first FoV; said system being characterized in that said frame aggregation module comprises: an encoder configured to generate a plurality of feature maps based on each of the first past frames and the first present frame ; a warping module configured, for each of the first past frames and the first present frame , to warp the plurality of feature maps associated with said each frame, using the respective coordinate map associated with said each frame, to generate a plurality of warped feature maps for said each frame; and an attention-based feature aggregation, AFA, module configured to aggregate, over all of the first past frames and the first present frame , the generated warped feature maps to generate a set of aggregated feature maps . a coordinate generation module configured to receive first past frames and a first present frame , the first past frames and the first present frame having a first field-of-view, FoV, and to generate a set of coordinate maps , one for each of the received first past frames , wherein the coordinate map corresponding to a first past frame provides a spatial mapping of the first past frame to a coordinate system of the first present frame ; and a frame aggregation module configured to receive as input the first past frames , the first present frame , and the coordinate maps and to synthesize, based on said input, a second present frame having a second FoV equal or greater than the first FoV; an encoder configured to generate a plurality of feature maps based on each of the first past frames and the first present frame ; a warping module configured, for each of the first past frames and the first present frame , to warp the plurality of feature maps associated with said each frame, using the respective coordinate map associated with said each frame, to generate a plurality of warped feature maps for said each frame; and an attention-based feature aggregation, AFA, module configured to aggregate, over all of the first past frames and the first present frame , the generated warped feature maps to generate a set of aggregated feature maps .
A method for filling medical packaging , preferably designed as a pouch, wherein the packaging is filled with a liquid via an inlet and the inlet is provided in a protective gas atmosphere during filling, wherein the packaging is filled with an inert gas by means of a gas nozzle prior to being filled with the liquid, wherein at least one opening extends, at least in sections, around the gas nozzle in order to provide the protective gas atmosphere.
Thermal energy recovery system of a lubrication device of a mechanical system of a vehicle , said thermal energy recovery system comprising a lubrication device provided with at least one reservoir containing a lubricating liquid and at least one lubrication circuit in which said lubricating liquid circulates for lubricating said mechanical system of said vehicle , said thermal energy recovery system comprising a thermal energy recovery circuit in which a heat transfer fluid circulates, said thermal energy recovery circuit being provided with: - a first flow generator of said heat transfer fluid; - at least one first heat exchanger connected to one of said lubrication circuits and allowing a heat exchange between said heat transfer fluid and said lubricating liquid circulating in said lubrication device ; and - pipes in which said heat transfer fluid circulates, at least one lubrication circuit having a cooling device for cooling said lubricating liquid, and said lubricating device comprising a temperature sensor measuring the temperature of said lubricating liquid and at least one bypass system of a cooling device , each bypass system being provided with a bypass device and a bypass line , said bypass system being configured so that said lubricating liquid does not circulate in said cooling device , but flows in said bypass line when the temperature of said lubricating liquid is below an operating temperature (T1), characterised in that said lubricating device comprises a pressure sensor for said lubricating liquid circulating in said main lubrication circuit and said thermal energy recovery circuit comprises a regulating device for the flow rate of said heat transfer fluid, said regulating device being configured to maximise the flow rate of said heat transfer fluid circulating in said thermal energy recovery circuit so that the heat exchange is maximised between said heat transfer fluid and said lubricating liquid in each first heat exchanger so as to limit heating of said lubricating liquid when the pressure of said lubricating liquid circulating in said main lubrication circuit is lower than an operating pressure (P1). - a first flow generator of said heat transfer fluid; - at least one first heat exchanger connected to one of said lubrication circuits and allowing a heat exchange between said heat transfer fluid and said lubricating liquid circulating in said lubrication device ; and - pipes in which said heat transfer fluid circulates,
A liquid-sealed cartridge comprising: a liquid storage portion configured to store liquid; a flow path in which the liquid stored in the liquid storage portion flows; and a liquid sealing portion configured to seal the liquid in the liquid storage portion , wherein the liquid sealing portion has an outer circumferential portion and a center-side low strength portion (31-1) disposed closer to a center than the outer circumferential portion , and the center-side low strength portion (31-1) is broken when pressed, to allow the liquid in the liquid storage portion to flow in the flow path by applying an external force to the liquid in the liquid storage portion for which the center-side low strength portion (31-1) has been broken, the liquid sealing portion being integrated with the liquid storage portion , characterized in that : the center-side low strength portion (31-1) is disposed at a center portion of the liquid sealing portion . a liquid storage portion configured to store liquid; a flow path in which the liquid stored in the liquid storage portion flows; and a liquid sealing portion configured to seal the liquid in the liquid storage portion , wherein the liquid sealing portion has an outer circumferential portion and a center-side low strength portion (31-1) disposed closer to a center than the outer circumferential portion , and the center-side low strength portion (31-1) is broken when pressed, to allow the liquid in the liquid storage portion to flow in the flow path by applying an external force to the liquid in the liquid storage portion for which the center-side low strength portion (31-1) has been broken, the liquid sealing portion being integrated with the liquid storage portion , characterized in that : the center-side low strength portion (31-1) is disposed at a center portion of the liquid sealing portion .
A former for manufacturing a wall thickness-variable glove by dipping, comprising a base , an arm portion , a palm portion and finger portions, wherein the base , the arm portion , the palm portion and the finger portions are connected in sequence, the palm portion comprises a palm center member and a palm back member connected to the palm center member , the finger portions comprise a thumb member , a forefinger member , a middle finger member , a ring finger member and a little finger member , characterized in that a first recessed area with a depth of 0.3-1.5mm is formed on the palm back member ; the thumb member is provided with a second recessed area at one side of the palm back member , or the forefinger member is provided with a second recessed area at one side of the palm back member , or the thumb member , the forefinger member , the middle finger member , the ring finger member and the little finger member are provided with a second recessed area at one side of the palm back member respectively; the second recessed area with a depth of 0.3-1.5mm is connected with the first recessed area ; and surfaces of the first recessed area and the second recessed area are respectively provided with a hydrophilic coating with a thickness of 1-300μm.
A sealing system for use in treating a tissue site on a patient with reduced pressure, the sealing system comprising: an outer layer formed from a drape material and having a first side and a second side , to be facing a patient, wherein the outer layer is formed with a plurality of perforations; a high-strength adhesive coupled to the second side of the outer layer , wherein the high-strength adhesive has a first side , a second side , to be facing a patient, and a tackiness; the high-strength adhesive covering the plurality of perforations; and a switching solution, wherein when the switching solution is applied to the high-strength adhesive , the tackiness of the high-strength adhesive decreases, characterised in that the perforations comprise a plurality of apertures extending through the outer layer and a surface area of the drape material removed to form the plurality of apertures is between 0.2% to 13% of a surface area of the outer layer . an outer layer formed from a drape material and having a first side and a second side , to be facing a patient, wherein the outer layer is formed with a plurality of perforations; a high-strength adhesive coupled to the second side of the outer layer , wherein the high-strength adhesive has a first side , a second side , to be facing a patient, and a tackiness; the high-strength adhesive covering the plurality of perforations; and a switching solution, wherein when the switching solution is applied to the high-strength adhesive , the tackiness of the high-strength adhesive decreases, characterised in that the perforations comprise a plurality of apertures extending through the outer layer and a surface area of the drape material removed to form the plurality of apertures is between 0.2% to 13% of a surface area of the outer layer .
A lateral flow device for an assay device for analyzing a fluid sample, the lateral flow device comprising: - a support structure , - a flow channel formed into the support structure , and - an injection zone in fluidic connection with the flow channel for introducing the fluid sample into the flow channel , characterized in that : - the flow channel comprises a first indicator zone capable of facilitating an optically detectable response signal of the fluid sample interacting with an indicator substance, - the lateral flow device comprises a second indicator zone capable of facilitating an optically detectable response signal of the fluid sample interacting with an indicator substance and arranged parallel: ∘ to the first indicator zone , wherein the first and second indicator zones are located side-by-side in a direction transverse to direction of fluid flow in the flow channel or ∘ to another flow channel formed into the support structure , and in that - the first and second indicator zone are arranged at least partly adjacent to each other so as to fit into an imaging area having a diameter of 5 mm, in particular 3 mm, in a plane of the support structure . - a support structure , - a flow channel formed into the support structure , and - an injection zone in fluidic connection with the flow channel for introducing the fluid sample into the flow channel , - the flow channel comprises a first indicator zone capable of facilitating an optically detectable response signal of the fluid sample interacting with an indicator substance, - the lateral flow device comprises a second indicator zone capable of facilitating an optically detectable response signal of the fluid sample interacting with an indicator substance and arranged parallel: ∘ to the first indicator zone , wherein the first and second indicator zones are located side-by-side in a direction transverse to direction of fluid flow in the flow channel or ∘ to another flow channel formed into the support structure , and in that ∘ to the first indicator zone , wherein the first and second indicator zones are located side-by-side in a direction transverse to direction of fluid flow in the flow channel or ∘ to another flow channel formed into the support structure , and in that - the first and second indicator zone are arranged at least partly adjacent to each other so as to fit into an imaging area having a diameter of 5 mm, in particular 3 mm, in a plane of the support structure .
A computing device comprising: a chassis with at least one outer surface; a display device operably attached to a first external surface of the chassis; a support component moveably attached to the chassis adjacent to a second external surface of the chassis to support different viewing positions of the display device relative to a surface on which the computing device is placed; a single portion of fabric that is laminated to an outer surface of the support component and the second external surface, the single portion of fabric being cut to allow movement of the support component relative to the chassis; wherein the support component is movably attached to the computing device via a hinge mechanism , and the support component is attached to the hinge mechanism via a hinge ring which is rotatably and/or movably positioned within a body of the hinge mechanism ; wherein the hinge mechanism includes a mounting channel , and the support component is mounted to the computing device via insertion of the hinge ring into the mounting channel ; and wherein the support component is attached to the chassis along a particular edge of the support component , and wherein the single portion of fabric is not cut along the particular edge of the support component . a chassis with at least one outer surface; a display device operably attached to a first external surface of the chassis; a support component moveably attached to the chassis adjacent to a second external surface of the chassis to support different viewing positions of the display device relative to a surface on which the computing device is placed; a single portion of fabric that is laminated to an outer surface of the support component and the second external surface, the single portion of fabric being cut to allow movement of the support component relative to the chassis; wherein the support component is movably attached to the computing device via a hinge mechanism , and the support component is attached to the hinge mechanism via a hinge ring which is rotatably and/or movably positioned within a body of the hinge mechanism ; wherein the hinge mechanism includes a mounting channel , and the support component is mounted to the computing device via insertion of the hinge ring into the mounting channel ; and wherein the support component is attached to the chassis along a particular edge of the support component , and wherein the single portion of fabric is not cut along the particular edge of the support component .
An HVDC air-core reactor with at least two electrical connections , comprising: - at least one hollow-cylindrical winding layer (2-2′′′), the conductor wire of which is helically wound about a coil axis along with its jacket-side insulation layer , - a charge dissipating layer with a predetermined electrical conductivity, which charge dissipating layer is applied at least to an outer lateral surface of the at least one hollow-cylindrical winding layer (2-2′′′) and is connected in an electrically conductive manner to at least one of the electrical connections of the air-core reactor , characterized in that - the charge dissipating layer comprises at least one first tape element of electrically conductive material, which extends helically around the coil axis and abuts on the outer lateral surface of the at least one hollow-cylindrical winding layer (2-2′′′), - and that the at least one first tape element has a predetermined electrical conductivity, which is lower than an electrical conductivity of the electrical conductor wire while still being higher than an electrical conductivity of the jacket-side insulation layer of the conductor wire . - at least one hollow-cylindrical winding layer (2-2′′′), the conductor wire of which is helically wound about a coil axis along with its jacket-side insulation layer , - a charge dissipating layer with a predetermined electrical conductivity, which charge dissipating layer is applied at least to an outer lateral surface of the at least one hollow-cylindrical winding layer (2-2′′′) and is connected in an electrically conductive manner to at least one of the electrical connections of the air-core reactor , characterized in that - the charge dissipating layer comprises at least one first tape element of electrically conductive material, which extends helically around the coil axis and abuts on the outer lateral surface of the at least one hollow-cylindrical winding layer (2-2′′′), - and that the at least one first tape element has a predetermined electrical conductivity, which is lower than an electrical conductivity of the electrical conductor wire while still being higher than an electrical conductivity of the jacket-side insulation layer of the conductor wire .