mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: providing a circuit having at least first and second phases (A, B) connected to a load ; providing first and second current transformers (CT1, CT2) associated, respectively, to the first and second phases (A, B) to produce currents proportional to the currents in each of the first and second phases (A, B); coupling the first current transformer (CT1) to a first load (ZA); coupling the second current transformer (CT2) to a second load (ZB); applying a single phase power source to the first phase (A); applying the single phase power source with an inversion to the second phase (B); coupling a sensing circuit to the first and second current transformers (CT1, CT2); and monitoring, by the sensing circuit , signal contributions associated with the first and second current transformers (CT1, CT2) relative to one or more thresholds or trip points to determine an orientation of the respective phases of the first and second current transformers (CT1, CT2). providing a circuit having at least first and second phases (A, B) connected to a load ; providing first and second current transformers (CT1, CT2) associated, respectively, to the first and second phases (A, B) to produce currents proportional to the currents in each of the first and second phases (A, B); coupling the first current transformer (CT1) to a first load (ZA); coupling the second current transformer (CT2) to a second load (ZB); applying a single phase power source to the first phase (A); applying the single phase power source with an inversion to the second phase (B); coupling a sensing circuit to the first and second current transformers (CT1, CT2); and monitoring, by the sensing circuit , signal contributions associated with the first and second current transformers (CT1, CT2) relative to one or more thresholds or trip points to determine an orientation of the respective phases of the first and second current transformers (CT1, CT2).
An instrument control device comprising: a variable mechanism including a motor configured to adjust a state of an instrument; and a variable controller configured to drive the motor at a rotational speed corresponding to a command signal (S), the variable controller comprising: a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller ; characterized in that the motor controller is configured to increase the command signal (S) stepwise at predetermined time intervals (P) starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button . a variable mechanism including a motor configured to adjust a state of an instrument; and a variable controller configured to drive the motor at a rotational speed corresponding to a command signal (S), the variable controller comprising: a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller ; characterized in that the motor controller is configured to increase the command signal (S) stepwise at predetermined time intervals (P) starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button . a receiver configured to receive a wireless communication signal outpul (Ma) from a remote controller and output an ON signal or an OFF signal of the motor as a received signal (Mb) when an adjustment push button of the remote controller is pressed by an operator; and a motor controller ; characterized in that the motor controller is configured to increase the command signal (S) stepwise at predetermined time intervals (P) starting from input of the ON signal until the command signal reaches a predetermined value and thereafter maintain the command signal at the predetermined level, and set the command signal to zero to stop the motor at a time the OFF signal is input; wherein the predetermined interval is set to a limit value at which the operator presses the adjustment push button .
A method of manufacturing a rotatable anode target for an X-ray tube, comprising: forming a metallic disc including a hole and consisting of molybdenum or of an alloy whose major component is molybdenum, the major component being 50 mass% or more; forming an X-ray irradiator on the disc; forming a metallic cylinder consisting of molybdenum; and joining a side surface of the hole of the disc and a side surface of the cylinder wherein the disc has a plurality of first crystal grains in a first region within 2 mm from an interface between the disc and the cylinder , and the cylinder has a plurality of second crystal grains in a second region within 2 mm from the interface, and wherein a first average aspect ratio of the first crystal grains is 1.3 or more and 1.8 or less, and a second average aspect ratio of the second crystal grains is 2.4 or more and 6.5 or less, wherein a deviation between the long axis direction of the second crystal grains and the length direction of the cylinder , the number ratio of the second crystal grains per a unit area of 1000 μm x 1000 μm being 80 % or more and 100 % or less, is -25 degrees or more and 25 degrees or less. forming a metallic disc including a hole and consisting of molybdenum or of an alloy whose major component is molybdenum, the major component being 50 mass% or more; forming an X-ray irradiator on the disc; forming a metallic cylinder consisting of molybdenum; and joining a side surface of the hole of the disc and a side surface of the cylinder wherein the disc has a plurality of first crystal grains in a first region within 2 mm from an interface between the disc and the cylinder , and the cylinder has a plurality of second crystal grains in a second region within 2 mm from the interface, and wherein a first average aspect ratio of the first crystal grains is 1.3 or more and 1.8 or less, and a second average aspect ratio of the second crystal grains is 2.4 or more and 6.5 or less, wherein a deviation between the long axis direction of the second crystal grains and the length direction of the cylinder , the number ratio of the second crystal grains per a unit area of 1000 μm x 1000 μm being 80 % or more and 100 % or less, is -25 degrees or more and 25 degrees or less.
A method for secure communications over a network, the method comprising: receiving by a third device a data packet from a first device, the data packet comprising an encrypted data part and a metadata part, the metadata part comprising a cleartext part and removable metadata, the removable metadata comprising a network access code that is authenticatable by means of a network access key; validating by the third device the data packet, wherein validating the data packet comprises authenticating the network access code using the network access key; removing by the third device the removable metadata from the data packet after validating the data packet, thereby altering the data packet; and transmitting by the third device the altered data packet to a second device wherein the first device is a cloud server; and the second device is a constrained node, wherein: the removable metadata comprises an indication of an expiration time; and validating the data packet further comprises: validating whether the expiration time has passed; and discarding the data packet if the expiration time has passed, or authentication of the network access code fails, or both the expiration time has passed and the authentication of the network access code fails, wherein validating whether the expiration time has passed comprises comparing the expiration time with a current first device time. receiving by a third device a data packet from a first device, the data packet comprising an encrypted data part and a metadata part, the metadata part comprising a cleartext part and removable metadata, the removable metadata comprising a network access code that is authenticatable by means of a network access key; validating by the third device the data packet, wherein validating the data packet comprises authenticating the network access code using the network access key; removing by the third device the removable metadata from the data packet after validating the data packet, thereby altering the data packet; and transmitting by the third device the altered data packet to a second device wherein the first device is a cloud server; and the second device is a constrained node, the removable metadata comprises an indication of an expiration time; and validating the data packet further comprises: validating whether the expiration time has passed; and discarding the data packet if the expiration time has passed, or authentication of the network access code fails, or both the expiration time has passed and the authentication of the network access code fails, validating whether the expiration time has passed; and discarding the data packet if the expiration time has passed, or authentication of the network access code fails, or both the expiration time has passed and the authentication of the network access code fails,
A method for resuming a connection performed at a second network node comprising: receiving, from a first network node at the second network node, a user equipment, UE, context prepopulated by the first network node ; sending, from the second network node to a UE, a Radio Resource Control ,RRC, connection resume request message including a freshness parameter and the UE context , wherein the freshness parameter is used to indicate early data transmission and wherein the freshness parameter is a temporary cell radio network temporary identifier, C-RNTI, assigned to the UE; and receiving, from the UE at the second network node, a RRC connection resume response message including an authentication token generated by the freshness parameter and the UE context , wherein the method further comprises sending, from the second network node to the UE, a RRC connection set up message including an omission indication which instructs the UE not to send an RRCConnectionResumeComplete message when there is no more data transmission after receiving the RRC connection resume response message. receiving, from a first network node at the second network node, a user equipment, UE, context prepopulated by the first network node ; sending, from the second network node to a UE, a Radio Resource Control ,RRC, connection resume request message including a freshness parameter and the UE context , wherein the freshness parameter is used to indicate early data transmission and wherein the freshness parameter is a temporary cell radio network temporary identifier, C-RNTI, assigned to the UE; and receiving, from the UE at the second network node, a RRC connection resume response message including an authentication token generated by the freshness parameter and the UE context , wherein the method further comprises sending, from the second network node to the UE, a RRC connection set up message including an omission indication which instructs the UE not to send an RRCConnectionResumeComplete message when there is no more data transmission after receiving the RRC connection resume response message.
An application migration apparatus comprising: a container that manages resources dedicated to application native information including application native code and application native state data , the container having a set of container components configured to isolate native information from managed runtime information by emulating the application native code, wherein the application native information is to be associated with a mobile application running in a managed runtime environment; a container interface configured to dispatch one or more native function calls to a container, wherein the container interface is configured to pass one or more wrapper function pointers to the container , wherein the one or more wrapper function pointers correspond to one or more managed runtime functions and are configured to cause the container to: suspend emulation of the application native code; call the corresponding one or more managed runtime functions; and resume emulation of the application native code when one or more values are returned to the container from the one or more managed runtime functions; a first checkpointer to checkpoint the application native information; and a migrator to transfer the checkpointed application native information from a first device to a second device in response to a live migration event. a container that manages resources dedicated to application native information including application native code and application native state data , the container having a set of container components configured to isolate native information from managed runtime information by emulating the application native code, wherein the application native information is to be associated with a mobile application running in a managed runtime environment; a container interface configured to dispatch one or more native function calls to a container, wherein the container interface is configured to pass one or more wrapper function pointers to the container , wherein the one or more wrapper function pointers correspond to one or more managed runtime functions and are configured to cause the container to: suspend emulation of the application native code; call the corresponding one or more managed runtime functions; and resume emulation of the application native code when one or more values are returned to the container from the one or more managed runtime functions; suspend emulation of the application native code; call the corresponding one or more managed runtime functions; and resume emulation of the application native code when one or more values are returned to the container from the one or more managed runtime functions; a first checkpointer to checkpoint the application native information; and a migrator to transfer the checkpointed application native information from a first device to a second device in response to a live migration event.
A hydrocarbon cracking catalyst for preparing light olefin from C4 or more than C4 hydrocarbon having a boiling point of 30 ∼ 200 °C, which is characterized in that 0.01∼5.0 wt% of MnO 2 and 1∼15 wt% of P 2 O 5 are simultaneously supported on a catalyst component, wherein the catalyst component comprises 1 ∼ 50wt% of zeolite, 21 ∼ 70wt% of clay, and 1 ∼ 40wt% of an inorganic oxide, wherein zeolite is ZSM-5 zeolite, and wherein both MnO 2 and P 2 O 5 are embedded on each of the zeolite, the clay and the inorganic oxide in the catalyst component.
A motor comprising: a shaft including an upper end portion in a shaft direction in which a first groove and a second groove are formed; a rotor and a sensing magnet which are coupled to the shaft ; a coupling member which couples the shaft and the sensing magnet ; and an elastic member disposed under the sensing magnet in the shaft direction, wherein the coupling member includes a coupling portion, wherein at least a part of the coupling portion is elastically coupled to the first groove , and wherein the coupling member includes an accommodation portion fixing the sensing magnet , characterized in that the shaft includes a third groove concavely formed in the lower surface of the upper end portion of the shaft in a shaft direction and one lower region of the elastic member in a shaft direction is disposed in the third groove , the first groove is concavely formed downward in the upper end portion surface of the shaft in the shaft direction, the second groove is concavely formed outward in the inner circumferential surface of the shaft , and wherein the coupling member is disposed in the first groove , such that said at least a part of the coupling portion is inserted into the first groove . a shaft including an upper end portion in a shaft direction in which a first groove and a second groove are formed; a rotor and a sensing magnet which are coupled to the shaft ; a coupling member which couples the shaft and the sensing magnet ; and an elastic member disposed under the sensing magnet in the shaft direction, wherein the coupling member includes a coupling portion, wherein at least a part of the coupling portion is elastically coupled to the first groove , and wherein the coupling member includes an accommodation portion fixing the sensing magnet , characterized in that the shaft includes a third groove concavely formed in the lower surface of the upper end portion of the shaft in a shaft direction and one lower region of the elastic member in a shaft direction is disposed in the third groove , the first groove is concavely formed downward in the upper end portion surface of the shaft in the shaft direction, the second groove is concavely formed outward in the inner circumferential surface of the shaft , and wherein the coupling member is disposed in the first groove , such that said at least a part of the coupling portion is inserted into the first groove .
Piece of furniture having a cable feedthrough which is provided in a furniture wall , in particular in a baseboard wall , comprising the following features: - the furniture wall has a wall opening which is laterally delimited by at least one bending tab which is formed by a partly cut-out portion of the furniture wall , - an insertion frame which delimits a cable passage space is arranged within the wall opening and is in holding engagement with an edge region of the furniture wall , which region delimits the wall opening , and the bending tab , - a cable strain relief device can be fastened within the insertion frame and is designed for clamping a cable , - wherein the insertion frame and the cable strain relief device have a formfitting connection device which is designed such that the cable strain relief device and the insertion frame can be brought into formfitting holding engagement with one another within the insertion frame by moving or rotating the cable strain relief device such that movement of the cable strain relief device along the cable passage space is blocked. - the furniture wall has a wall opening which is laterally delimited by at least one bending tab which is formed by a partly cut-out portion of the furniture wall , - an insertion frame which delimits a cable passage space is arranged within the wall opening and is in holding engagement with an edge region of the furniture wall , which region delimits the wall opening , and the bending tab , - a cable strain relief device can be fastened within the insertion frame and is designed for clamping a cable , - wherein the insertion frame and the cable strain relief device have a formfitting connection device which is designed such that the cable strain relief device and the insertion frame can be brought into formfitting holding engagement with one another within the insertion frame by moving or rotating the cable strain relief device such that movement of the cable strain relief device along the cable passage space is blocked.
Apparatus for altering the body temperature of a patient , the apparatus comprising: a cover for covering at least a portion of a patient's body; a compliant support adapted to underlie and generally conform to the shape of the portion of the patient's body to define a well adjacent to the patient's body portion for accumulating heat transfer liquid , said compliant support comprising gas-filled tubes extending longitudinally along right and left sides of the compliant support, the cover being sized smaller than and moveable relative to the compliant support; two first sealing portions connected to said cover; two second sealing portions connected to said compliant support, wherein said first sealing portions and said second sealing portions are configured to provide a sealing engagement between said cover and said compliant support, and wherein said first and second sealing portions are positioned away from the medial line of the patient; and the cover and compliant support cooperatively defining an enclosure for receiving the portion of the patient's body and being constructed to conduct a heat transfer liquid into direct contact with the portion of the patient's body received in the enclosure to promote heat transfer between the patient's body and the heat transfer liquid. a cover for covering at least a portion of a patient's body; a compliant support adapted to underlie and generally conform to the shape of the portion of the patient's body to define a well adjacent to the patient's body portion for accumulating heat transfer liquid , said compliant support comprising gas-filled tubes extending longitudinally along right and left sides of the compliant support, the cover being sized smaller than and moveable relative to the compliant support; two first sealing portions connected to said cover; two second sealing portions connected to said compliant support, wherein said first sealing portions and said second sealing portions are configured to provide a sealing engagement between said cover and said compliant support, and wherein said first and second sealing portions are positioned away from the medial line of the patient; and the cover and compliant support cooperatively defining an enclosure for receiving the portion of the patient's body and being constructed to conduct a heat transfer liquid into direct contact with the portion of the patient's body received in the enclosure to promote heat transfer between the patient's body and the heat transfer liquid.
An aluminum alloy pipe-shaped hollow material produced by porthole extrusion, the aluminum alloy pipe-shaped hollow material comprising an Al-Mg-based alloy containing Mg of 0.7 mass % or more and less than 2.5 mass %, Ti of more than 0 mass % and 0.15 mass % or less, and optionally one type or two types or more types out of Si: 0.20 mass % or less, Fe: 0.20 mass % or less, Cu: 0.05 mass % or less, Mn: 0.10 mass % or less, Cr: 0.10 mass % or less, and Zn: 0.10 mass % or less, with the balance being Al and unavoidable impurities, wherein a work hardening coefficient n-value is 0.25 or more and less than 0.43, and the aluminum alloy pipe-shaped hollow material has an inner-surface ridged structure inside thereof, and an area ratio of the inner-surface ridged structure in a cross-section orthogonal to an extending direction of the aluminum alloy pipe-shaped hollow material is 1 to 30%. a work hardening coefficient n-value is 0.25 or more and less than 0.43, and the aluminum alloy pipe-shaped hollow material has an inner-surface ridged structure inside thereof, and an area ratio of the inner-surface ridged structure in a cross-section orthogonal to an extending direction of the aluminum alloy pipe-shaped hollow material is 1 to 30%.