mhurhangee/patent-ind-claim-en huggingface dataset:
A building element for the tiled cladding of a vertical façade and the generation of heat from solar radiation energy by means of transparent thermal insulation , comprising: a) an air conditioning element with - a flat carrier element for flat application to a façade ; - a flat absorber layer applied to the exterior side of the carrier element with a vertical height (b) for the absorption of incident solar radiation ; - and a flat, transparent thermal insulation that completely covers the absorber layer ; b) and a flat slat element as a shading element, which can be applied to the lower or upper edge of the air conditioning element horizontally or sloping outwardly at an angle (α) thereto, and, in the mounted state as viewed in a vertical direction, is located next to the absorber layer and next to the transparent thermal insulation and projects horizontally over the absorber layer on an overhang for shading an absorber layer arranged below it during use; wherein the ratio between the overhang and the height (b) of the absorber layer makes it possible to set a limit angle (β) at which incident solar radiation can at least partially hit the absorber layer and over which the absorber layer is completely shaded. a) an air conditioning element with - a flat carrier element for flat application to a façade ; - a flat absorber layer applied to the exterior side of the carrier element with a vertical height (b) for the absorption of incident solar radiation ; - and a flat, transparent thermal insulation that completely covers the absorber layer ; - a flat carrier element for flat application to a façade ; - a flat absorber layer applied to the exterior side of the carrier element with a vertical height (b) for the absorption of incident solar radiation ; - and a flat, transparent thermal insulation that completely covers the absorber layer ; b) and a flat slat element as a shading element, which can be applied to the lower or upper edge of the air conditioning element horizontally or sloping outwardly at an angle (α) thereto, and, in the mounted state as viewed in a vertical direction, is located next to the absorber layer and next to the transparent thermal insulation and projects horizontally over the absorber layer on an overhang for shading an absorber layer arranged below it during use;
Coach body for a rail vehicle, having a coach body shell , which has at least one roof opening which extends in the transverse direction of the coach body shell between side wall upper chords of the coach body shell , and having a removable roof element for completely closing the at least one roof opening , wherein the roof element is configured as a roof module which is releasably fastened to the side wall upper chords on both sides and has a nonload-carrying outer skin , at least one bow extending in the transverse direction of the coach body and below the outer skin and serving for the load-carrying connection of side walls of the coach body shell , characterized in that the roof element has at least one functional layer arranged below the outer skin , wherein the outer skin , the at least one bow and the at least one functional layer are fixedly connected to one another and form a preassemblable unit.
A method for wireless communications at a user equipment, UE, comprising: monitoring (1505; 1605; 1705) one or more of a plurality of frequency sub-bands for a synchronization signal block, SSB, from a base station, wherein each of the plurality of frequency sub-bands carries a non-overlapping instance of the SSB that does not overlap in frequency or time with other SSB instances; receiving (1510; 1610; 1710) a first instance of the SSB via at least a first frequency sub-band of the plurality of frequency sub-bands based at least in part on the monitoring; determining (1515; 1615; 1715) a reference timing of the base station based at least in part on one or more of information from the first instance of the SSB or a frequency location of the first frequency sub-band relative to a reference frequency sub-band of the plurality of frequency sub-bands; identifying (1520; 1620; 1720), based at least in part on the reference timing, a set of resources for a control channel transmission from the base station, wherein the set of resources spans two or more of the plurality of frequency sub-bands; and receiving (1525; 1625; 1725) the control channel transmission via the set of resources. monitoring (1505; 1605; 1705) one or more of a plurality of frequency sub-bands for a synchronization signal block, SSB, from a base station, wherein each of the plurality of frequency sub-bands carries a non-overlapping instance of the SSB that does not overlap in frequency or time with other SSB instances; receiving (1510; 1610; 1710) a first instance of the SSB via at least a first frequency sub-band of the plurality of frequency sub-bands based at least in part on the monitoring; determining (1515; 1615; 1715) a reference timing of the base station based at least in part on one or more of information from the first instance of the SSB or a frequency location of the first frequency sub-band relative to a reference frequency sub-band of the plurality of frequency sub-bands; identifying (1520; 1620; 1720), based at least in part on the reference timing, a set of resources for a control channel transmission from the base station, wherein the set of resources spans two or more of the plurality of frequency sub-bands; and receiving (1525; 1625; 1725) the control channel transmission via the set of resources.
A shoe comprising: a first forming portion provided on a medial side and a second forming portion provided on a lateral side across a central opening formed forward from a foot insertion portion of an upper on each of which a string passing portion is formed; a first support member a tip end of which is fixed to the second forming portion , including a first string passing structure provided at the tip end , and extending downward so as to abut a medial side of a foot; a second support member a tip end of which is fixed to the first forming portion, including a second string passing structure provided at the tip end , and extending downward so as to abut a lateral side of the foot; and a shoelace which passes through the string passing portion and continuously passes through the first and second string passing structures (32g and 34g) . a first forming portion provided on a medial side and a second forming portion provided on a lateral side across a central opening formed forward from a foot insertion portion of an upper on each of which a string passing portion is formed; a first support member a tip end of which is fixed to the second forming portion , including a first string passing structure provided at the tip end , and extending downward so as to abut a medial side of a foot; a second support member a tip end of which is fixed to the first forming portion, including a second string passing structure provided at the tip end , and extending downward so as to abut a lateral side of the foot; and a shoelace which passes through the string passing portion and continuously passes through the first and second string passing structures (32g and 34g) .
A method of enforcing a policy for a cluster-deployed distributed workload, comprising: receiving , at a component in a network, a packet that is to be routed to one of a plurality of software containers in a containerized cluster deployment of different applications spanning multiple compute nodes , the applications running in the software containers; extracting , at the network layer, container identification data from an IPv6 extension header or an IPv4 option field of the packet, the container identification data identifying the one software container (202-214) on the network; and applying a policy to the packet at the component based on the container identification data, wherein the policy is a workload-based policy and is applied to a workload associated with the packet. receiving , at a component in a network, a packet that is to be routed to one of a plurality of software containers in a containerized cluster deployment of different applications spanning multiple compute nodes , the applications running in the software containers; extracting , at the network layer, container identification data from an IPv6 extension header or an IPv4 option field of the packet, the container identification data identifying the one software container (202-214) on the network; and applying a policy to the packet at the component based on the container identification data, wherein the policy is a workload-based policy and is applied to a workload associated with the packet.
Sample collecting kit , being adapted to collect plant samples, in particular algae samples for biomedical applications, comprising - at least one sample container adapted to receive plant samples, - a sensor arrangement with multiple sensors (21, 22, ...) with which sample data can be detected, - a data recording device adapted to record the sample data, - a tool assembly with collecting tools (41, 42, ...) adapted to harvest the plant samples and with processing tools (51, 52, ...) adapted to process the plant samples, - a device assembly with auxiliary devices (61, 62, ...) which can be used for collecting, transporting and processing the plant samples and which include electrically operated auxiliary devices, and - a container device adapted to receive the tool assembly and the device assembly in a condition isolated from the environment, characterized by - identification marks including identification data and being provided at the at least one sample container, the collecting tools (41, 42, ...) and the processing tools (51, 52, ...), wherein - the container device is provided with a charging interface via which the electrically operated auxiliary devices of the device assembly can be supplied with electrical charging current. - at least one sample container adapted to receive plant samples, - a sensor arrangement with multiple sensors (21, 22, ...) with which sample data can be detected, - a data recording device adapted to record the sample data, - a tool assembly with collecting tools (41, 42, ...) adapted to harvest the plant samples and with processing tools (51, 52, ...) adapted to process the plant samples, - a device assembly with auxiliary devices (61, 62, ...) which can be used for collecting, transporting and processing the plant samples and which include electrically operated auxiliary devices, and - a container device adapted to receive the tool assembly and the device assembly in a condition isolated from the environment, characterized by - identification marks including identification data and being provided at the at least one sample container, the collecting tools (41, 42, ...) and the processing tools (51, 52, ...), wherein - the container device is provided with a charging interface via which the electrically operated auxiliary devices of the device assembly can be supplied with electrical charging current.
A battery module , comprising: a housing assembly comprising a first side wall and a second side wall , wherein the first side wall is provided with a first through hole , and the second side wall is provided with a second through hole ; and wherein the first side wall is provided with a first protrusion facing towards the second side wall , the first protrusion connects to an edge of the first through hole , the first protrusion is provided with a first hole , the first hole communicates with the first through hole ; a cell assembly accommodated in the housing assembly , wherein the cell assembly comprises cells ; each cell comprises a cell housing , an electrode assembly, and an electrode terminal ; the electrode assembly is disposed in the cell housing , and the electrode terminal is connected to the electrode assembly and is led out of the cell housing ; a circuit board connecting to the electrode terminal ; and a first connected member disposed between the circuit board and the cell housing , wherein the first connecting member is provided with a first channel , and the first channel communicates with the first through hole and the second through hole ; wherein the first connecting member is partially located in the first hole , an adhesive is provided between the first protrusion and the first connecting member , a gap between the first protrusion and the first connecting member is sealed by the adhesive. a housing assembly comprising a first side wall and a second side wall , wherein the first side wall is provided with a first through hole , and the second side wall is provided with a second through hole ; and wherein the first side wall is provided with a first protrusion facing towards the second side wall , the first protrusion connects to an edge of the first through hole , the first protrusion is provided with a first hole , the first hole communicates with the first through hole ; a cell assembly accommodated in the housing assembly , wherein the cell assembly comprises cells ; each cell comprises a cell housing , an electrode assembly, and an electrode terminal ; the electrode assembly is disposed in the cell housing , and the electrode terminal is connected to the electrode assembly and is led out of the cell housing ; a circuit board connecting to the electrode terminal ; and a first connected member disposed between the circuit board and the cell housing , wherein the first connecting member is provided with a first channel , and the first channel communicates with the first through hole and the second through hole ; wherein the first connecting member is partially located in the first hole , an adhesive is provided between the first protrusion and the first connecting member , a gap between the first protrusion and the first connecting member is sealed by the adhesive.
A composition comprising insulin as an active ingredient for use in a method of preventing or treating Charcot-Marie-Tooth disease in a subject in need thereof.
Catheter for the directional conductance of a bodily fluid, comprising a sheath having an inner chamber (V) and a frame , - the sheath having at least three openings and being formed as a conduit for the bodily fluid at least in a region between a first opening and a second opening , - a non-return valve being arranged at the second opening , - the sheath having a pump chamber portion, - the second opening being arranged in the pump chamber portion of the sheath, characterized in that - the non-return valve comprises a valve film , - the valve film is arranged inside the sheath such that the non-return valve acts as an inlet valve, - the valve film is fastened to the sheath at least in part such that the second opening can be fully covered by the film . - the sheath having at least three openings and being formed as a conduit for the bodily fluid at least in a region between a first opening and a second opening , - a non-return valve being arranged at the second opening , - the sheath having a pump chamber portion, - the second opening being arranged in the pump chamber portion of the sheath, - the non-return valve comprises a valve film , - the valve film is arranged inside the sheath such that the non-return valve acts as an inlet valve, - the valve film is fastened to the sheath at least in part such that the second opening can be fully covered by the film .
A method of determining a probabilistic metric for random hardware failure for an electronic system which comprises parts and safety mechanisms, the safety mechanisms including first layer safety mechanisms and second layer safety mechanisms, wherein a first layer safety mechanism provides at least partial coverage of failure of a part and a second layer safety mechanism provides at least partial coverage of failure of a first layer safety mechanism, the method being characterized by comprising: calculating a first set of probabilities associated with the first layer safety mechanisms; calculating a second set of probabilities associated with direct violation faults in the parts; calculating a third set of probabilities associated with indirect violation faults in the parts , wherein calculating the third set of probabilities comprises, for each part : determining whether the part is linked to another part ; determining a contribution to the probabilistic metric for random hardware failure due to indirect violation faults for the part and the other part ; and obtaining the value of probabilistic metric for random hardware failure in dependence on the first, second and third sets of probabilities. calculating a first set of probabilities associated with the first layer safety mechanisms; calculating a second set of probabilities associated with direct violation faults in the parts; calculating a third set of probabilities associated with indirect violation faults in the parts , wherein calculating the third set of probabilities comprises, for each part : determining whether the part is linked to another part ; determining a contribution to the probabilistic metric for random hardware failure due to indirect violation faults for the part and the other part ; and obtaining the value of probabilistic metric for random hardware failure in dependence on the first, second and third sets of probabilities.
An ultrasonic imaging apparatus comprising: an ultrasonic collector configured to collect ultrasonic waves from an object; a volume data generator configured to generate volume data based on the ultrasonic waves; and an image processor configured to perform volume rendering on the volume data with reference to a texture image, wherein a translucency property of the object is reflected to each texel of the texture image, characterised in that each texel to which the translucency property of the object has been reflected has a brightness value varying depending on a depth from a surface of the object with respect to a light source. an ultrasonic collector configured to collect ultrasonic waves from an object; a volume data generator configured to generate volume data based on the ultrasonic waves; and an image processor configured to perform volume rendering on the volume data with reference to a texture image, wherein a translucency property of the object is reflected to each texel of the texture image, characterised in that each texel to which the translucency property of the object has been reflected has a brightness value varying depending on a depth from a surface of the object with respect to a light source.
A method, comprising: detecting , at a first network device , a potential network attack by executing a classifier, wherein the classifier is configured to select a label from among a plurality of labels based on a set of input features; sending voting requests that identify the potential network attack to a plurality of neighboring network devices , wherein the voting requests include at least one of the set of input features that were used by the first network device to detect the potential network attack and values for the set of input features that were used by the first network device, to detect the potential network attack wherein a particular neighboring network device determines input features for a local classifier and uses the local classifier to generate a vote regarding the potential network attack, wherein the vote is generated by the particular neighboring network device using the set of input features or the values for the set of input features included in the voting request; receiving one or more votes regarding the potential network attack, one from each of the one or more of the neighboring network devices , the one or more votes including the vote from the particular neighboring network device; confirming , by the first network device , that the network attack is present based on the received votes; and generating , by the first network device, an alert that an attack has been detected. detecting , at a first network device , a potential network attack by executing a classifier, wherein the classifier is configured to select a label from among a plurality of labels based on a set of input features; sending voting requests that identify the potential network attack to a plurality of neighboring network devices , wherein the voting requests include at least one of the set of input features that were used by the first network device to detect the potential network attack and values for the set of input features that were used by the first network device, to detect the potential network attack wherein a particular neighboring network device determines input features for a local classifier and uses the local classifier to generate a vote regarding the potential network attack, wherein the vote is generated by the particular neighboring network device using the set of input features or the values for the set of input features included in the voting request; receiving one or more votes regarding the potential network attack, one from each of the one or more of the neighboring network devices , the one or more votes including the vote from the particular neighboring network device; confirming , by the first network device , that the network attack is present based on the received votes; and generating , by the first network device, an alert that an attack has been detected.
A compound represented by formula 2 below for use in prevention or treatment of pruritus:
A closing device for a disc brake , in particular for a sliding caliper disc brake for closing a brake disc, wherein the disc brake has at least one brake caliper for receiving the closing device and brake linings for closing the brake disc and the closing device comprises a closing lever having at least one closing lever base , wherein the closing lever base has a recess for receiving a bearing shell in the direction of the side facing the brake lining or the side averted from the brake lining , characterized in that pockets are arranged at the sides of the closing lever base for fixing the bearing shell .
A pulsed combustor assembly (A) for dehydration and/or granulation of a wet feedstock, in particular a viscous feedstock such as a feedstock containing natural fibres, sugars and/or vegetable starches, comprising a combustion chamber , at least one fuel supply line , at least one air supply line , and at least one pulsed air generator, wherein the pulsed air generator is connected to the air supply line for generating at least a first pulsed air stream with a pulse frequency f1 entering the combustion chamber , a second air supply line and a second pulsed air generator being connected to the second air supply line and configured to generate a second pulsed air stream with a pulse frequency f2 entering the combustion chamber, wherein f2 is higher or lower than f1.