mhurhangee/patent-ind-claim-en huggingface dataset:
A strain wave gearing (1; 31; 120, 140; 160) comprising: a rigid gear (2; 32; 122, 142; 162); a flexible gear (2; 33; 123, 143; 163) meshing with the rigid gear (2; 32; 122, 142; 162); and a wave generator (4; 34; 124, 144; 164) for flexing the flexible gear (2; 33; 123, 143; 163) into a non-circular shape to form a meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) thereof meshing with the rigid gear (2; 32; 122, 142; 162) and for moving the meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) in a circumferential direction of the rigid gear (2; 32; 122, 142; 162), wherein the wave generator (4; 34; 124, 144; 164) is configured so that it flexes the flexible gear (2; 33; 123, 143; 163) to form the meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) on at least two positions at equal angular intervals in a circumferential direction of the flexible gear (2; 33; 123, 143; 163), characterized in that the meshing portions (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) formed on at least the two locations have different shapes from one another. a rigid gear (2; 32; 122, 142; 162); a flexible gear (2; 33; 123, 143; 163) meshing with the rigid gear (2; 32; 122, 142; 162); and a wave generator (4; 34; 124, 144; 164) for flexing the flexible gear (2; 33; 123, 143; 163) into a non-circular shape to form a meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) thereof meshing with the rigid gear (2; 32; 122, 142; 162) and for moving the meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) in a circumferential direction of the rigid gear (2; 32; 122, 142; 162), wherein the wave generator (4; 34; 124, 144; 164) is configured so that it flexes the flexible gear (2; 33; 123, 143; 163) to form the meshing portion (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) on at least two positions at equal angular intervals in a circumferential direction of the flexible gear (2; 33; 123, 143; 163), characterized in that the meshing portions (5a, 5b; 35a, 35b; 125a, 125b, 145a, 145b; 165a, 165b) formed on at least the two locations have different shapes from one another.
An actuator mechanism , for joining two portions of a computing device, comprising: a capture connector having a body ; at least one contact element connected to the body , wherein each contact element comprises a first contact surface extending in a first direction and a second contact surface extending in a second direction different from the first direction; a shape memory wire extending in a third direction adjacent to the capture connector , wherein the shape memory wire has a first actuation state and a second actuation state, wherein in the first actuation state the shape memory wire has a contracted shape corresponding to moving from a first material phase to a second material phase, and wherein in the second actuation state the shape memory wire has an expanded shape corresponding to moving from the second material phase to the first material phase; at least one termination component fixedly coupled to the shape memory wire , wherein the termination component comprises a termination surface shaped for electrical contact with the first contact surface of a respective contact element ; and wherein in the first actuation state or the second actuation state, the shape memory wire is configured to generate an actuator force such that the termination surface of the at least one termination component transfers at least part of the actuator force in the third direction to the first contact surface of the at least one contact element , wherein the third direction is divergent from the first direction. a capture connector having a body ; at least one contact element connected to the body , wherein each contact element comprises a first contact surface extending in a first direction and a second contact surface extending in a second direction different from the first direction; a shape memory wire extending in a third direction adjacent to the capture connector , wherein the shape memory wire has a first actuation state and a second actuation state, wherein in the first actuation state the shape memory wire has a contracted shape corresponding to moving from a first material phase to a second material phase, and wherein in the second actuation state the shape memory wire has an expanded shape corresponding to moving from the second material phase to the first material phase; at least one termination component fixedly coupled to the shape memory wire , wherein the termination component comprises a termination surface shaped for electrical contact with the first contact surface of a respective contact element ; and wherein in the first actuation state or the second actuation state, the shape memory wire is configured to generate an actuator force such that the termination surface of the at least one termination component transfers at least part of the actuator force in the third direction to the first contact surface of the at least one contact element , wherein the third direction is divergent from the first direction.
An arc fault protection system for an electrical power system, the arc fault protection system comprising: a light sensor configured to detect a first light event and generate a first signal indicative of the detected first light event, the first light event being a non-arc fault event triggered via operation of the system, the light sensor further configured to detect a second light event and generate a second signal indicative of the detected second light event; a controller in communication with the light sensor , the controller being configured to: receive and process the first signal to determine an arc detection algorithm, receive and process the second signal to determine whether the second signal is indicative of an arc fault event using the arc detection algorithm, and generate an arc fault signal in response to the controller determining that the second signal is indicative of an arc fault event; and a protection device in communication with the controller , the protection device being configured to mitigate the arc fault event in response to the protection device receiving the arc fault signal from the controller . a light sensor configured to detect a first light event and generate a first signal indicative of the detected first light event, the first light event being a non-arc fault event triggered via operation of the system, the light sensor further configured to detect a second light event and generate a second signal indicative of the detected second light event; a controller in communication with the light sensor , the controller being configured to: receive and process the first signal to determine an arc detection algorithm, receive and process the second signal to determine whether the second signal is indicative of an arc fault event using the arc detection algorithm, and generate an arc fault signal in response to the controller determining that the second signal is indicative of an arc fault event; and receive and process the first signal to determine an arc detection algorithm, receive and process the second signal to determine whether the second signal is indicative of an arc fault event using the arc detection algorithm, and generate an arc fault signal in response to the controller determining that the second signal is indicative of an arc fault event; and a protection device in communication with the controller , the protection device being configured to mitigate the arc fault event in response to the protection device receiving the arc fault signal from the controller .
A composition for use in the treatment of cancer, the composition including: - an aqueously-soluble extract of curcumin; - an aqueously-soluble extract of Sutherlandia frutescens ("Sutherlandia"); and - an aqueous carrier solution. - an aqueously-soluble extract of curcumin; - an aqueously-soluble extract of Sutherlandia frutescens ("Sutherlandia"); and - an aqueous carrier solution.
A method for delay scheduling, the method comprising: transmitting , by a communications controller to user equipment in a first subframe, a downlink control information, DCI, message for scheduling a physical downlink shared channel, PDSCH, wherein the DCI message comprises information for determining a delay between a second subframe and the first subframe, and the second subframe is a subframe where the PDSCH is to be transmitted; transmitting , by the communications controller to the user equipment, the PDSCH in a second subframe; characterized in that information indicating a starting symbol of the PDSCH in the second subframe is transmitted by the communication controller to the user equipment. transmitting , by a communications controller to user equipment in a first subframe, a downlink control information, DCI, message for scheduling a physical downlink shared channel, PDSCH, wherein the DCI message comprises information for determining a delay between a second subframe and the first subframe, and the second subframe is a subframe where the PDSCH is to be transmitted; transmitting , by the communications controller to the user equipment, the PDSCH in a second subframe; characterized in that information indicating a starting symbol of the PDSCH in the second subframe is transmitted by the communication controller to the user equipment.
A thermally insulated melt processor comprising: a barrel comprising barrel sections; and a heater in direct contact with the barrel such that a gap is absent between the heater and the barrel , wherein the heater comprises: an insulating material in contact with a surface of the barrel and wherein the insulating material around each barrel section comprises a single piece of insulation surrounding joined with itself at only one point; and characterized in that a heat member is disposed in the insulating material and configured to provide heat in response conduction of electric current through the heat member , wherein heat member comprises a wire heating element wherein the wire heating element has a diameter of 0.5 to 4.0 mm, and when installed on barrel , the wire heating element is less than or equal to 10 mm from a surface of the barrel and wherein the wire heating element is shaped into a flat coil, wherein the flat coil is a sinusoidal wave shaped, and wherein the amplitude of sinusoidal wave is at least 10 times a diameter of the wire heating element. a barrel comprising barrel sections; and a heater in direct contact with the barrel such that a gap is absent between the heater and the barrel , wherein the heater comprises: an insulating material in contact with a surface of the barrel and wherein the insulating material around each barrel section comprises a single piece of insulation surrounding joined with itself at only one point; and characterized in that a heat member is disposed in the insulating material and configured to provide heat in response conduction of electric current through the heat member , wherein heat member comprises a wire heating element wherein the wire heating element has a diameter of 0.5 to 4.0 mm, and when installed on barrel , the wire heating element is less than or equal to 10 mm from a surface of the barrel and wherein the wire heating element is shaped into a flat coil, wherein the flat coil is a sinusoidal wave shaped, and wherein the amplitude of sinusoidal wave is at least 10 times a diameter of the wire heating element. an insulating material in contact with a surface of the barrel and wherein the insulating material around each barrel section comprises a single piece of insulation surrounding joined with itself at only one point; and characterized in that a heat member is disposed in the insulating material and configured to provide heat in response conduction of electric current through the heat member , wherein heat member comprises a wire heating element wherein the wire heating element has a diameter of 0.5 to 4.0 mm, and when installed on barrel , the wire heating element is less than or equal to 10 mm from a surface of the barrel and wherein the wire heating element is shaped into a flat coil, wherein the flat coil is a sinusoidal wave shaped, and wherein the amplitude of sinusoidal wave is at least 10 times a diameter of the wire heating element.
A method for color registration of an image forming apparatus having a registration sensor, the method comprising: determining (S1010) if color registration is necessary; if color registration is necessary, rotating (S1020) an image forming medium and setting an optimum luminance of the registration sensor using luminance detected with respect to a rotating surface of the image forming medium; confirming (S1030) an area with an undesirable surface condition on the image forming medium using luminance detected with respect to the rotating surface of the image forming medium, wherein the confirming the area with an undesirable surface condition on the image forming apparatus comprises comparing the detected luminance with a preset luminance and if the detected luminance is lower than the preset luminance it is determined that the corresponding area on the image forming medium has an undesirable surface condition; forming a preset mark for color registration adjustment on the image forming medium excluding the area confirmed to have an undesirable surface condition; and carrying out (S1040) color registration adjustment using the optimum luminance set with respect to the formed mark, characterized in that a time for setting an optimum luminance of the registration sensor is overlapped with a time for detecting an area with an undesirable surface condition. determining (S1010) if color registration is necessary; if color registration is necessary, rotating (S1020) an image forming medium and setting an optimum luminance of the registration sensor using luminance detected with respect to a rotating surface of the image forming medium; confirming (S1030) an area with an undesirable surface condition on the image forming medium using luminance detected with respect to the rotating surface of the image forming medium, wherein the confirming the area with an undesirable surface condition on the image forming apparatus comprises comparing the detected luminance with a preset luminance and if the detected luminance is lower than the preset luminance it is determined that the corresponding area on the image forming medium has an undesirable surface condition; forming a preset mark for color registration adjustment on the image forming medium excluding the area confirmed to have an undesirable surface condition; and carrying out (S1040) color registration adjustment using the optimum luminance set with respect to the formed mark, characterized in that a time for setting an optimum luminance of the registration sensor is overlapped with a time for detecting an area with an undesirable surface condition.
A device for ensuring safe operation of a technical system , the device being configured to: - generate a smart contract including a condition , which is required to be fulfilled by the technical system for safe operation of the technical system ; - store smart contract data of the smart contract , which uniquely identifies the smart contract , in a distributed ledger ; and - determine if the technical system fulfills the condition using the smart contract , wherein the condition is a requirement according to an Environmental Health and Safety, EHS, industry standard of the technical system and the smart contract is an operating permission of the technical system . - generate a smart contract including a condition , which is required to be fulfilled by the technical system for safe operation of the technical system ; - store smart contract data of the smart contract , which uniquely identifies the smart contract , in a distributed ledger ; and - determine if the technical system fulfills the condition using the smart contract ,
A method for wireless communication at a base station , comprising: determining (505-b) a signal type associated with a signal; wherein a signal of a first signal type is one of a control signal, a data signal, and an overhead signal, and wherein a signal of a second signal type is one of a synchronization signal, an extended synchronization signal, a physical broadcast channel, PBCH, a random access channel, a scheduling request channel, a beam reference signal, an extended PBCH, and a beam refinement reference signal; identifying a tone spacing from a plurality of available tone spacings based at least in part on the determined signal type; wherein a tone spacing associated with the first signal type is shorter than a tone spacing associated with the second signal type; determining a number of repetitions of the signal based at least in part on the identified tone spacing; identifying signaling information indicating the determined number of repetitions; transmitting the signaling information to a user equipment via a control channel; and transmitting the signal to the user equipment based at least in part on the determined number of repetitions. determining (505-b) a signal type associated with a signal; wherein a signal of a first signal type is one of a control signal, a data signal, and an overhead signal, and wherein a signal of a second signal type is one of a synchronization signal, an extended synchronization signal, a physical broadcast channel, PBCH, a random access channel, a scheduling request channel, a beam reference signal, an extended PBCH, and a beam refinement reference signal; identifying a tone spacing from a plurality of available tone spacings based at least in part on the determined signal type; wherein a tone spacing associated with the first signal type is shorter than a tone spacing associated with the second signal type; determining a number of repetitions of the signal based at least in part on the identified tone spacing; identifying signaling information indicating the determined number of repetitions; transmitting the signaling information to a user equipment via a control channel; and transmitting the signal to the user equipment based at least in part on the determined number of repetitions.
A data transmission method, comprising: receiving, by a station, a trigger frame sent by an access point, wherein the trigger frame comprises an identifier of a target frequency-domain resource unit, RU, allocated to the station; sending, by the station, an uplink orthogonal frequency division multiple access physical layer protocol data unit, OFDMA PPDU, wherein a data part of the uplink OFDMA PPDU is sent on the target RU, and a common physical layer preamble of the uplink OFDMA PPDU is sent on one or more channel units in which the target RU is located; and receiving, by the station, a downlink OFDMA PPDU comprising an acknowledgement frame for the uplink OFDMAPPDU, wherein the acknowledgement frame is received on a RU which is in the one or more channel units. receiving, by a station, a trigger frame sent by an access point, wherein the trigger frame comprises an identifier of a target frequency-domain resource unit, RU, allocated to the station; sending, by the station, an uplink orthogonal frequency division multiple access physical layer protocol data unit, OFDMA PPDU, wherein a data part of the uplink OFDMA PPDU is sent on the target RU, and a common physical layer preamble of the uplink OFDMA PPDU is sent on one or more channel units in which the target RU is located; and receiving, by the station, a downlink OFDMA PPDU comprising an acknowledgement frame for the uplink OFDMAPPDU, wherein the acknowledgement frame is received on a RU which is in the one or more channel units.
Use of triglyceride comprising arachidonic acid as a part of or all of the constituting fatty acids, or of methyl arachidonate or ethyl arachidonate, as active ingredient in the manufacture of a composition having a normalising action for infradian rhythm and/or a synchronisation promoting action for circadian rhythm, the composition being for therapeutic prevention or alleviation of biorhythm disorder caused by abnormality of infradian rhythm, or by retardation of synchronisation of circadian rhythm.
A particulate matter sensor comprising: - a substrate comprising a semiconductor chip , the substrate forming a cavity , at least a portion of the cavity being formed in the semiconductor chip ; - at least one photodetector integrated into a surface of the semiconductor chip ; - a light source arranged in the cavity , the light source being adapted to emit a light beam towards a first end of the cavity , the light beam defining a detection volume for particulate matter outside the cavity , wherein the surface of the semiconductor chip into which the at least one photodetector is integrated faces the detection volume , and wherein the at least one photodetector is adapted to detect light scattered by particulate matter in the detection volume . - a substrate comprising a semiconductor chip , the substrate forming a cavity , at least a portion of the cavity being formed in the semiconductor chip ; - at least one photodetector integrated into a surface of the semiconductor chip ; - a light source arranged in the cavity , the light source being adapted to emit a light beam towards a first end of the cavity , the light beam defining a detection volume for particulate matter outside the cavity , wherein the surface of the semiconductor chip into which the at least one photodetector is integrated faces the detection volume , and wherein the at least one photodetector is adapted to detect light scattered by particulate matter in the detection volume . wherein the surface of the semiconductor chip into which the at least one photodetector is integrated faces the detection volume , and wherein the at least one photodetector is adapted to detect light scattered by particulate matter in the detection volume .