mhurhangee/patent-ind-claim-en huggingface dataset:
Container for receiving different types of heat pack, the container comprising a base carrying a central support suitable for receiving equally well one or another of the heat packs, characterised in that the support includes at least a plurality of respective seats that are staggered so that each receives one of the heat packs, each seat being adapted to co-operate with at least an annular surface portion of the corresponding heat pack, the seats being defined one in relation to the others either because two adjacent seats have different slopes or because they are separated by a connecting zone that has a slope different to that of at least one of the seats that it connects.
A myoelectric sensor for detecting myoelectric signals caused by a body movement, the myoelectric sensor comprising: an elastically expandable and contractible annular wearing band adapted to be worn on a limb and tightly surrounding therearound; a plurality of myoelectric detection units arranged in a circumferential direction of said wearing band apart from each other and each having a plurality of myoelectric detection electrodes which adapts to contact with a surface of the limb and to detect myoelectric signals from corresponding parts of the limb; and connecting cables which electrically connect said myoelectric detection units adjacent to each other and transmit the myoelectric signals therebetween, wherein each of said connecting cables has at least one bent portion whose bent shape changes in accordance with a change in distance between the myoelectric detection units adjacent to each other, characterized in that each of said myoelectric detection units has a central part and a terminal part each having at least one of said myoelectric detection electrodes , the central part mounting a circuit board with at least an amplifying circuit, and the terminal part being engaged with said central part movably forward and backward while being prevented from twisting with respect to said central part . an elastically expandable and contractible annular wearing band adapted to be worn on a limb and tightly surrounding therearound; a plurality of myoelectric detection units arranged in a circumferential direction of said wearing band apart from each other and each having a plurality of myoelectric detection electrodes which adapts to contact with a surface of the limb and to detect myoelectric signals from corresponding parts of the limb; and connecting cables which electrically connect said myoelectric detection units adjacent to each other and transmit the myoelectric signals therebetween, wherein each of said connecting cables has at least one bent portion whose bent shape changes in accordance with a change in distance between the myoelectric detection units adjacent to each other, characterized in that each of said myoelectric detection units has a central part and a terminal part each having at least one of said myoelectric detection electrodes , the central part mounting a circuit board with at least an amplifying circuit, and the terminal part being engaged with said central part movably forward and backward while being prevented from twisting with respect to said central part .
A propulsion assembly for aircraft, comprising a turbomachine surrounded by a nacelle comprising an annular air intake lip extending around the turbomachine by two annular walls, inner and outer , respectively, intended for being swept across by air flows at least when the aircraft is in flight, characterized in that : - said inner and outer walls each comprise or support at least one network of pipes intended for transporting a liquid in contact with said inner wall or said outer wall, so as to form air-liquid heat exchangers respectively inner and outer, the pipes of each inner or outer heat exchanger being connected in parallel with each other, - a network of pipes of the inner wall having at least one liquid outlet connected in series with at least one liquid intake of a network of pipes of the outer wall, and - the propulsion assembly comprises means for circulating the liquid, connected to at least one liquid intake of a network of pipes of the inner wall for its liquid supply, and connected to at least one liquid outlet of the network of pipes of the outer wall for the recovery of the liquid. - said inner and outer walls each comprise or support at least one network of pipes intended for transporting a liquid in contact with said inner wall or said outer wall, so as to form air-liquid heat exchangers respectively inner and outer, the pipes of each inner or outer heat exchanger being connected in parallel with each other, - a network of pipes of the inner wall having at least one liquid outlet connected in series with at least one liquid intake of a network of pipes of the outer wall, and - the propulsion assembly comprises means for circulating the liquid, connected to at least one liquid intake of a network of pipes of the inner wall for its liquid supply, and connected to at least one liquid outlet of the network of pipes of the outer wall for the recovery of the liquid.
A pouch-type secondary battery, which includes an electrode assembly having a positive electrode plate and a negative electrode plate disposed to face each other and a pouch case having a concave groove formed to accommodate the electrode assembly , wherein the pouch case includes a first pouch film and a second pouch film thermally fused to the first pouch film , wherein the concave groove is formed in at least one of the first pouch film and the second pouch film , and wherein the electrode assembly is accommodated in the concave groove and the concave groove has a bottom surface on which the electrode assembly is placed so that the bottom surface has an area equal to or greater than an area of a reference surface that covers an opening of the concave groove , wherein the concave groove includes a first side surface region in which a full width of the concave groove is gradually decreased along the depth from the reference surface and a second side surface region in which the full width of the concave groove is gradually increased from an end point of the first side surface region to the bottom surface . wherein the pouch case includes a first pouch film and a second pouch film thermally fused to the first pouch film , wherein the concave groove is formed in at least one of the first pouch film and the second pouch film , and wherein the electrode assembly is accommodated in the concave groove and the concave groove has a bottom surface on which the electrode assembly is placed so that the bottom surface has an area equal to or greater than an area of a reference surface that covers an opening of the concave groove , wherein the concave groove includes a first side surface region in which a full width of the concave groove is gradually decreased along the depth from the reference surface and a second side surface region in which the full width of the concave groove is gradually increased from an end point of the first side surface region to the bottom surface .
A method of compensating for a movement of a head-mounted display, HMD, the method comprising: sensing (S1000) the movement of the HMD; predicting (S1010) a movement of the HMD at a first eye view point based on the sensed movement; projecting (S1020) and rendering an image based on the predicted movement of the HMD at the first eye view point; re-sensing the movement of the HMD; and re-predicting (S1040) the movement of the HMD at a second eye view point based on the re-sensed movement; determining (S1050) an error value based on a comparison between the predicted movement of the HMD at the first eye view point and the re-predicted movement of the HMD at the second eye view point; and re-projecting and rendering (S1060) the image based on the determined error value wherein a result of projecting three dimensional, 3D, geometry information on a two dimensional, 2D, plane for rendering of the first eye view point is re-projected as a re-projection result on a 2D plane of the second eye view point. sensing (S1000) the movement of the HMD; predicting (S1010) a movement of the HMD at a first eye view point based on the sensed movement; projecting (S1020) and rendering an image based on the predicted movement of the HMD at the first eye view point; re-sensing the movement of the HMD; and re-predicting (S1040) the movement of the HMD at a second eye view point based on the re-sensed movement; determining (S1050) an error value based on a comparison between the predicted movement of the HMD at the first eye view point and the re-predicted movement of the HMD at the second eye view point; and re-projecting and rendering (S1060) the image based on the determined error value wherein a result of projecting three dimensional, 3D, geometry information on a two dimensional, 2D, plane for rendering of the first eye view point is re-projected as a re-projection result on a 2D plane of the second eye view point.
A combination of prednisolone, methyl prednisolone, prednisone, prednicarbate or pharmaceutically acceptable salts thereof and a compound of the formula: wherein R 1 is a 5-membered heteroaryl radical which contains, as hetero atoms, 2 to 4 N-atoms or 1 or 2 N-atoms as well as 1 O- or S-atom, and which is unsubstituted or C-substituted by lower alkyl, phenyl or phenyl which is substituted by lower alkyl, lower alkoxy and/or halogen, or by lower alkoxy, hydroxy, di-lower alkylamino, lower alkylthio and/or halogen, and/or is N-substituted at a N-atom which is capable of substitution by lower alkyl, lower alkoxy and/or halogen, and R 2 is hydrogen, hydroxy, amino, lower alkylthio or halogen, wherein the term "lower" means from 1 to 7 carbon atoms, lower alkoxy is C 1-4 alkoxy, di-lower alkylamino is di- C 1-4 alkylamino, lower alkylthio is C 1-4 alkylthio, halogen is fluorine, chlorine or bromine for use in a method of treating or preventing osteoarthritis .
A sensor that is to be used for measuring biological information of a user, comprising: a substrate that includes an upper substrate and a lower substrate ; and an electrode that is provided on the lower substrate , wherein the upper substrate , the lower substrate , and the electrode are optically transparent or translucent; and characterised by an information display unit provided on the substrate which is configured to display identification information of the sensor by a pattern formed by using at least one of a transmitting portion that allows light entering the substrate to pass through and a light-blocking portion that blocks light entering the substrate . a substrate that includes an upper substrate and a lower substrate ; and an electrode that is provided on the lower substrate , wherein the upper substrate , the lower substrate , and the electrode are optically transparent or translucent; and characterised by an information display unit provided on the substrate which is configured to display identification information of the sensor by a pattern formed by using at least one of a transmitting portion that allows light entering the substrate to pass through and a light-blocking portion that blocks light entering the substrate .
A test system configured for testing MEMS angular rate sensors and comprising: a rotary platform adapted to undergo oscillatory motion about a fixed point; an inertial sensor being a first linear accelerometer mounted to said rotary platform at a first location , and for providing a first motion output signal indicative of said oscillatory motion; a second linear accelerometer mounted to said rotary platform at a second location and for providing a second motion output signal indicative of said oscillatory motion; and characterized by said second location being shifted one hundred eighty degrees about said fixed point from said first location; and by a controller in communication with said rotary platform and said inertial sensor, said controller being configured to receive said first and second motion output signals and provide a drive signal to said rotary platform responsive to said motion output signals, wherein said controller is configured to generate said drive signal in response to a predetermined test profile, and said motion output signals provide feedback of actual movement of said rotary platform, said motion output signals being input to said controller to ensure that said drive signal corresponds with said predetermined test profile and wherein the drive signal comprises a frequency sweep sine wave signal, said frequency sweep sine wave signal being characterized by a series of discrete frequencies, each of said discrete frequencies being continuous for a predetermined duration. a rotary platform adapted to undergo oscillatory motion about a fixed point; an inertial sensor being a first linear accelerometer mounted to said rotary platform at a first location , and for providing a first motion output signal indicative of said oscillatory motion; a second linear accelerometer mounted to said rotary platform at a second location and for providing a second motion output signal indicative of said oscillatory motion; and characterized by said second location being shifted one hundred eighty degrees about said fixed point from said first location; and by a controller in communication with said rotary platform and said inertial sensor, said controller being configured to receive said first and second motion output signals and provide a drive signal to said rotary platform responsive to said motion output signals, wherein said controller is configured to generate said drive signal in response to a predetermined test profile, and said motion output signals provide feedback of actual movement of said rotary platform, said motion output signals being input to said controller to ensure that said drive signal corresponds with said predetermined test profile and wherein the drive signal comprises a frequency sweep sine wave signal, said frequency sweep sine wave signal being characterized by a series of discrete frequencies, each of said discrete frequencies being continuous for a predetermined duration.
Apparatus for computing data for guiding an unmanned aerial vehicle , UAV, in a three-dimensional, 3D, flight area within airspace, comprising: a first interface configured for acquiring, from a data storage, stored network data including location data of network nodes of a wireless communication network within the flight area; a second interface configured for acquiring current network data including current connectivity data of the network nodes; circuitry configured for computing current 3D coverage data indicating current network coverage along three dimensions in the 3D flight area by correlating the stored network data and the current network data; and output interface configured for automatically reporting the current 3D coverage data to an aviation control node for granting an air traffic control clearance for the UAV in the flight area or for performing control of the UAV , wherein the current 3D coverage data include an indication of a handover probability of handover by the UAV from one network node to another network node. a first interface configured for acquiring, from a data storage, stored network data including location data of network nodes of a wireless communication network within the flight area; a second interface configured for acquiring current network data including current connectivity data of the network nodes; circuitry configured for computing current 3D coverage data indicating current network coverage along three dimensions in the 3D flight area by correlating the stored network data and the current network data; and output interface configured for automatically reporting the current 3D coverage data to an aviation control node for granting an air traffic control clearance for the UAV in the flight area or for performing control of the UAV , wherein the current 3D coverage data include an indication of a handover probability of handover by the UAV from one network node to another network node.
A method for manufacturing or adapting a batch of electronic devices, comprising: causing a first predetermined event to be performed for each of the batch of electronic devices by a first manufacturer or first adapter; storing a first event attestation in each of the batch of electronic devices, the first event attestation comprising a cryptographically authenticated attestation to the occurrence of the first predetermined event, wherein the first event attestation is signed using a first cryptographic key associated with the first manufacturer or first adapter; causing a second predetermined event to be performed for each of the batch of electronic devices by a second manufacturer or second adapter; and storing a second event attestation in each of the batch of electronic devices, the second event attestation comprising a cryptographically authenticated attestation to the occurrence of the second predetermined event, wherein the second event attestation is signed using a second cryptographic key associated with the second manufacturer or second adapter; wherein the first event attestation is cryptographically authenticated using the same first cryptographic key for each of the batch of electronic devices, and the second event attestation is cryptographically authenticated using the same second cryptographic key for each of the batch of electronic devices, and wherein the first manufacturer or first adapter is different from the second manufacturer or second adapter. causing a first predetermined event to be performed for each of the batch of electronic devices by a first manufacturer or first adapter; storing a first event attestation in each of the batch of electronic devices, the first event attestation comprising a cryptographically authenticated attestation to the occurrence of the first predetermined event, wherein the first event attestation is signed using a first cryptographic key associated with the first manufacturer or first adapter; causing a second predetermined event to be performed for each of the batch of electronic devices by a second manufacturer or second adapter; and storing a second event attestation in each of the batch of electronic devices, the second event attestation comprising a cryptographically authenticated attestation to the occurrence of the second predetermined event, wherein the second event attestation is signed using a second cryptographic key associated with the second manufacturer or second adapter; wherein the first event attestation is cryptographically authenticated using the same first cryptographic key for each of the batch of electronic devices, and the second event attestation is cryptographically authenticated using the same second cryptographic key for each of the batch of electronic devices, and wherein the first manufacturer or first adapter is different from the second manufacturer or second adapter.
An assembling method of a vehicular air-conditioning apparatus including various equipment, which is required for air-conditioning a vehicle, mounted in a vehicular-air-conditioner frame on a production line, the assembling method of the vehicular air-conditioning apparatus comprising the steps of: - modularizing a refrigerant cycle including at least a compressor , an indoor heat exchanger , and an outdoor heat exchanger and a refrigerant gas-liquid separator , among the various equipment, that are connected with refrigerant pipes by assembling the refrigerant cycle off the production line; - incorporating the modularized refrigerant cycle into assembly work on the production line as a refrigerant cycle module ; - providing a U-shaped notch in an upper portion of a partition plate provided in a substantially middle portion of the frame , wherein the partition plate forms an indoor compartment and an outdoor compartment by partitioning the vehicular-air-conditioner frame in the length direction of the vehicle; - receiving a refrigerant pipe of the refrigeration cycle module into the notch from above the notch when mounting the refrigerant cycle module into the frame , wherein the compressor and the refrigerant gas-liquid separator are provided on one side relative to the center line of the outdoor compartment ; - mounting an indoor fan on the center line of the indoor compartment in the length direction of the vehicle; - securing the indoor heat exchanger on one side of an indoor fan ; - mounting an outdoor fan on the center line of the outdoor compartment in the length direction of the vehicle; and - securing the outdoor heat exchanger on one side of the outdoor fan . - modularizing a refrigerant cycle including at least a compressor , an indoor heat exchanger , and an outdoor heat exchanger and a refrigerant gas-liquid separator , among the various equipment, that are connected with refrigerant pipes by assembling the refrigerant cycle off the production line; - incorporating the modularized refrigerant cycle into assembly work on the production line as a refrigerant cycle module ; - providing a U-shaped notch in an upper portion of a partition plate provided in a substantially middle portion of the frame , wherein the partition plate forms an indoor compartment and an outdoor compartment by partitioning the vehicular-air-conditioner frame in the length direction of the vehicle; - receiving a refrigerant pipe of the refrigeration cycle module into the notch from above the notch when mounting the refrigerant cycle module into the frame , wherein the compressor and the refrigerant gas-liquid separator are provided on one side relative to the center line of the outdoor compartment ; - mounting an indoor fan on the center line of the indoor compartment in the length direction of the vehicle; - securing the indoor heat exchanger on one side of an indoor fan ; - mounting an outdoor fan on the center line of the outdoor compartment in the length direction of the vehicle; and - securing the outdoor heat exchanger on one side of the outdoor fan .
A machine, comprising: a processor ; and a memory connected to the processor, the memory storing instructions executed by the processor to identify a domain name system resource exhaustion attack in response to spikes in the number of unique subdomains being queried per second level domain and spikes in the number of timeouts or delayed responses from a specified name server. a processor ; and a memory connected to the processor, the memory storing instructions executed by the processor to identify a domain name system resource exhaustion attack in response to spikes in the number of unique subdomains being queried per second level domain and spikes in the number of timeouts or delayed responses from a specified name server.
Method for controlling a volume by means of a display unit comprising the following steps: - representing a plurality of buttons on the display unit , - recognizing a tap gesture (T) in the region of one button of the plurality of buttons , and - triggering a function which is associated with the button and which does not relate to a volume change, wherein an interruption or change of a reproduced content should not be understood as a volume change, characterized by - recognizing a swipe gesture (P) in front of and/or on the button and, in response to recognizing the swipe gesture (P), - starting a volume change function, - controlling the volume depending on the swipe gesture (P). - representing a plurality of buttons on the display unit , - recognizing a tap gesture (T) in the region of one button of the plurality of buttons , and - triggering a function which is associated with the button and which does not relate to a volume change, wherein an interruption or change of a reproduced content should not be understood as a volume change, characterized by - recognizing a swipe gesture (P) in front of and/or on the button and, in response to recognizing the swipe gesture (P), - starting a volume change function, - controlling the volume depending on the swipe gesture (P).