mhurhangee/patent-ind-claim-en huggingface dataset:
A flexible electronic system (100; 200; 300; 400; 500; 600; 700; 800) comprising: a flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804) having a first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814) opposed to each other, one of the first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814) being electrically coupled to a battery (118; 218; 318; 418; 518; 618; 718; 818); a base support (124; 224; 324; 424; 524; 624; 724; 824) fixedly attached to the flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804), the base support (124; 224; 324; 424; 524; 624; 724; 824) having an adhesive surface (126; 226; 326; 426; 526; 626; 726; 826) opposed to the flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804); and a foil (122; 222; 322; 422; 522; 622; 722; 822) having a first portion (134; 234; 334; 434; 534; 634; 734; 834) removably coupled to at least a portion of the adhesive surface (126; 226; 326; 426; 526; 626; 726; 826) and a second portion (136; 236; 336; 436; 536; 636; 736; 836) disposed between the first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814); wherein the foil (122; 222; 322; 422; 522; 622; 722; 822) is configured to permit a removal of the second portion(136; 236; 336; 436; 536; 636; 736; 836), and wherein the removal of the second portion (136; 236; 336; 436; 536; 636; 736; 836) activates the battery (118; 218; 318; 418; 518; 618; 718; 818). a flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804) having a first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814) opposed to each other, one of the first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814) being electrically coupled to a battery (118; 218; 318; 418; 518; 618; 718; 818); a base support (124; 224; 324; 424; 524; 624; 724; 824) fixedly attached to the flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804), the base support (124; 224; 324; 424; 524; 624; 724; 824) having an adhesive surface (126; 226; 326; 426; 526; 626; 726; 826) opposed to the flexible electronic substrate (104; 204; 304; 404; 504; 604; 704; 804); and a foil (122; 222; 322; 422; 522; 622; 722; 822) having a first portion (134; 234; 334; 434; 534; 634; 734; 834) removably coupled to at least a portion of the adhesive surface (126; 226; 326; 426; 526; 626; 726; 826) and a second portion (136; 236; 336; 436; 536; 636; 736; 836) disposed between the first and second contact pads (112, 114; 212, 214; 312, 314; 412, 414; 512, 614; 612, 614; 712, 714; 812, 814); wherein the foil (122; 222; 322; 422; 522; 622; 722; 822) is configured to permit a removal of the second portion(136; 236; 336; 436; 536; 636; 736; 836), and wherein the removal of the second portion (136; 236; 336; 436; 536; 636; 736; 836) activates the battery (118; 218; 318; 418; 518; 618; 718; 818).
An induction motor controller, comprising: a controller, configured to couple to one or more sensors and an induction motor having a stator and a rotor, the controller having a first module and a second module; the first module configured to derive a commanded stator voltage vector (Vdsc, Vqsc), in a stator flux reference frame , via a rotor flux regulator loop operated by a rotor flux regulator and a torque regulator loop operated by a torque regulator , which process at least partially in the stator flux reference frame ; the second module configured to process the commanded stator voltage vector (Vdsc, Vqsc) to produce alternating current (AC) power for the induction motor ; and a third module configured to apply a rotor flux current model and a rotor flux voltage model to generate an estimated rotor flux magnitude and an estimated torque (T), wherein the rotor flux regulator loop includes the estimated rotor flux magnitude as an input to the rotor flux regulator, and the torque regulator loop includes the estimated torque (T) as an input to the torque regulator. a controller, configured to couple to one or more sensors and an induction motor having a stator and a rotor, the controller having a first module and a second module; the first module configured to derive a commanded stator voltage vector (Vdsc, Vqsc), in a stator flux reference frame , via a rotor flux regulator loop operated by a rotor flux regulator and a torque regulator loop operated by a torque regulator , which process at least partially in the stator flux reference frame ; the second module configured to process the commanded stator voltage vector (Vdsc, Vqsc) to produce alternating current (AC) power for the induction motor ; and a third module configured to apply a rotor flux current model and a rotor flux voltage model to generate an estimated rotor flux magnitude and an estimated torque (T), wherein the rotor flux regulator loop includes the estimated rotor flux magnitude as an input to the rotor flux regulator, and the torque regulator loop includes the estimated torque (T) as an input to the torque regulator.
An acidic, aqueous composition for phosphating metallic surfaces, which comprises, besides zinc ions, manganese ions, phosphate ions and, preferably, nickel ions, at least one accelerator of the formula (I) below R 1 R 2 R 3 C-NO 2 (I) where each of the substituents R 1 , R 2 and R 3 on the carbon atom is selected, independently of the others, from the group consisting of hydroxymethyl, 1-hydroxyethyl, 2-hydroxyethyl, 1-hydroxypropyl, 2-hydroxypropyl, 3-hydroxypropyl, 1-hydroxy-1-methylethyl and 2-hydroxy-1-methylethyl.
A clinical solution preparation of scutellarin, characterized in that it comprises active ingredients and water for injection, and the active ingredient comprises a compound shown in Formula (I) wherein the molar ratio between scutellarin and meglumine is 1.0 : 1.0, and the pH of the preparation is 6.5∼6.7.
A dental implant system, comprising: a prosthetic assembly including: a dental component having a bore extending from a proximal end to a distal end, the dental component having a longitudinal centerline , wherein the bore includes a screw head portion that has a longitudinal centerline aligned with the longitudinal centerline of the dental component and an interference portion , positioned distal to the screw head portion , that has a longitudinal centerline that is offset from the longitudinal centerline of the dental component , the interference portion defining an interference ledge ; and a retention screw configured to extend through the bore of the dental component, the retention screw including: a head ; a shaft extending from the head ; a threaded portion ; and an engagement portion defining an interference shoulder , wherein the engagement portion is configured to engage the interference ledge of the dental component when a removal torque is applied to the retention screw . a prosthetic assembly including: a dental component having a bore extending from a proximal end to a distal end, the dental component having a longitudinal centerline , wherein the bore includes a screw head portion that has a longitudinal centerline aligned with the longitudinal centerline of the dental component and an interference portion , positioned distal to the screw head portion , that has a longitudinal centerline that is offset from the longitudinal centerline of the dental component , the interference portion defining an interference ledge ; and a retention screw configured to extend through the bore of the dental component, the retention screw including: a head ; a shaft extending from the head ; a threaded portion ; and an engagement portion defining an interference shoulder , a dental component having a bore extending from a proximal end to a distal end, the dental component having a longitudinal centerline , wherein the bore includes a screw head portion that has a longitudinal centerline aligned with the longitudinal centerline of the dental component and an interference portion , positioned distal to the screw head portion , that has a longitudinal centerline that is offset from the longitudinal centerline of the dental component , the interference portion defining an interference ledge ; and a retention screw configured to extend through the bore of the dental component, the retention screw including: a head ; a shaft extending from the head ; a threaded portion ; and an engagement portion defining an interference shoulder , a head ; a shaft extending from the head ; a threaded portion ; and an engagement portion defining an interference shoulder , wherein the engagement portion is configured to engage the interference ledge of the dental component when a removal torque is applied to the retention screw .
An electronic cigarette , the electronic cigarette comprising a sensor and an atomizing assembly both of which are disposed in a housing, wherein the atomizing assembly is provided with a first airflow passage , a second airflow passage is provided in the housing, and the sensor is disposed in the second airflow passage , the housing is defined with a first air inlet and a second air inlet , the first air inlet is in fluid communication with the first airflow passage , the second air inlet is in fluid communication with the second airflow passage , the first airflow passage and the second airflow passage are isolated from each other by a partition member , the housing comprises a main body and a suction body connected at one end of the main body , the partition member is formed in the suction body , characterized in that the main body further comprises a connection part provided at the end of the main body to which the suction body is connected, the connection part is provided with two mounting holes which are separately formed, the atomizing assembly is mounted in the main body through one of the mounting holes , the sensor is mounted in the other one of the mounting holes , and the sensor is triggered to generate a signal to a control board of an energy device under an action of suction.
A three-dimensional lightweight steel framework comprising a beam, a column , a wall body , a purlin , a floor slab, and a lateral-force-resistant rod , wherein the beam is a continuous double beam comprising two identical or different continuous single beams attached at both sides of the column , the continuous single beam and the column are continuous and not interrupted at a cross joint of the continuous single beam and the column , characterized in that the floor slab is a reinforced lightweight composite floor slab , the reinforced lightweight composite floor slab comprises a lightweight composite floor slab , the purling and the lateral-force resistant rod , wherein the purlin is connected to the lightweight composite floor slab by the at least one floor connector , the purlin is connected to the lateral-force-resistant rod and/or a ceiling by at least another connector, so that the lightweight composite floor slab , the purlin , and the lateral-force-resistant rod and/or a ceiling are connected integrally, wherein the floor slab is installed over the purlin , and the lateral-force-resistant rod and/or the ceiling are built under the purlin .
Foil comprising a thermoplastic foil and a coating, wherein the coating has been produced from a coating material composition containing a) urethane (meth)acrylate which has (meth)acryloyl groups and an isocyanate functionality of ≥ 1.75 to ≤ 2.3, preferably of ≥ 1.85 to ≤ 2.2, very particularly preferably of ≥ 1.9 to ≤ 2.1, b) acrylated acrylate which still has free isocyanate-reactive groups, c) optionally additives and/or solvents. a) urethane (meth)acrylate which has (meth)acryloyl groups and an isocyanate functionality of ≥ 1.75 to ≤ 2.3, preferably of ≥ 1.85 to ≤ 2.2, very particularly preferably of ≥ 1.9 to ≤ 2.1, b) acrylated acrylate which still has free isocyanate-reactive groups, c) optionally additives and/or solvents.
A set for active control of solar gains and of heat transfer into rooms under pitched roofs, comprising a roof window , electric and electronic elements and an exterior shading system for shading the roof window , wherein the exterior shading system comprises a frame , located in the exterior on the outside of the roof window , a set of shading lamellae and at least one photovoltaic cell , wherein the dimensions and the positioning of the frame of the exterior shading system are such that when viewed from the exterior in the direction perpendicular to the plane of a glazing unit (2.1) of the roof window , the outer contour of the frame wherever the frame is present, overlaps the outer contour of the roof window casement frame (2.2), the frame of the exterior shading system carrying guiding elements for defining the position of the lamellae and for their movement, wherein the guiding elements are arranged in such manner that at all positions of the set of lamellae , in which the set of lamellae at least partially shades the roof window , an air gap between the set of lamellae and the glazing unit (2.1) of the roof window is present, the air gap being provided with at least two vents (8.1, 8.2) communicating with the exterior to ventilate this air gap , wherein the exterior shading system further comprises at least one Peltier cell and at least one sensor (22.1, 22.2) of climatic variables, wherein the photovoltaic cells , Peltier cells and the at least one sensor (22.1, 22.2) of climatic variables are interconnected with a central unit including a power supply unit with an accumulator and an electronic control unit for the storage and/or controlled use of the generated electric energy.
A weld structure, comprising: a first metal member made of aluminium; and a second metal member made of copper, wherein the first metal member is located over the second metal member , wherein at least one first solidified part that extends from a surface of the first metal member to the inside of the first metal member and is an aluminium solidified part, is provided, at least one second solidified part that is formed by a molten area extending through the first metal member and the second metal member and is an alloy, is provided, the at least one first solidified part is over the at least one second solidified part ; and characterized in that at least one third solidified part that is formed by a molten area extending through the first metal member and the second metal member and is an intermetallic compound is provided, the third solidified part is located closer to a non-layered surface of the second metal member than the second solidified part , and the at least one first solidified part is over the at least one third solidified part . a first metal member made of aluminium; and a second metal member made of copper, wherein the first metal member is located over the second metal member , wherein at least one first solidified part that extends from a surface of the first metal member to the inside of the first metal member and is an aluminium solidified part, is provided, at least one second solidified part that is formed by a molten area extending through the first metal member and the second metal member and is an alloy, is provided, the at least one first solidified part is over the at least one second solidified part ; and characterized in that at least one third solidified part that is formed by a molten area extending through the first metal member and the second metal member and is an intermetallic compound is provided, the third solidified part is located closer to a non-layered surface of the second metal member than the second solidified part , and the at least one first solidified part is over the at least one third solidified part .
A method for generating a key in a communications system in order to implement a separation between an anchor key of different access modes and a low-layer key generated based on the anchor key the method comprising: generating, by a user equipment, a cipher key, CK, and an integrity key, IK, based on a root key; generating, by the user equipment, an intermediate key based on the CK, the IK and an operator type identifier; generating, by the user equipment, the anchor key based on the intermediate key; generating, by the user equipment, a key, Kamf, based on the anchor key; and deriving, by the user equipment, a base station key based on the Kamf in a 3rd Generation Partnership Project, 3GPP, access mode; and based on the base station key, generating, by the user equipment, a user plane cipher key for performing encryption protection on user plane data, a user plane integrity key for performing integrity protection on the user plane data, a control plane cipher key for performing encryption protection on control plane data, and a control plane integrity key for performing integrity protection on the control plane data. generating, by a user equipment, a cipher key, CK, and an integrity key, IK, based on a root key; generating, by the user equipment, an intermediate key based on the CK, the IK and an operator type identifier; generating, by the user equipment, the anchor key based on the intermediate key; generating, by the user equipment, a key, Kamf, based on the anchor key; and deriving, by the user equipment, a base station key based on the Kamf in a 3rd Generation Partnership Project, 3GPP, access mode; and based on the base station key, generating, by the user equipment, a user plane cipher key for performing encryption protection on user plane data, a user plane integrity key for performing integrity protection on the user plane data, a control plane cipher key for performing encryption protection on control plane data, and a control plane integrity key for performing integrity protection on the control plane data.
A method for transmitting a signal in a wireless network supporting a downlink and a sidelink, the method comprising: receiving, by a remote terminal , downlink data from a base station through the downlink; and transmitting, by the remote terminal , feedback information related with the downlink data to a relay terminal through the sidelink, wherein the downlink data is received by the remote terminal through at least one of downlink subframes preceding an (n-k)th subframe, where n and k each denote an arbitrary positive integer, wherein the feedback information related with the downlink data is generated by the remote terminal in the (n-k)th subframe, wherein the feedback information related with the downlink data is transmitted to the relay terminal by the remote terminal in an nth subframe, wherein the feedback information related with the downlink data is transferred to the base station only through the relay terminal , and wherein additional information related to the nth subframe in which the feedback information related to the downlink data is transmitted to the relay terminal is transferred to the base station . receiving, by a remote terminal , downlink data from a base station through the downlink; and transmitting, by the remote terminal , feedback information related with the downlink data to a relay terminal through the sidelink, wherein the downlink data is received by the remote terminal through at least one of downlink subframes preceding an (n-k)th subframe, where n and k each denote an arbitrary positive integer, wherein the feedback information related with the downlink data is generated by the remote terminal in the (n-k)th subframe, wherein the feedback information related with the downlink data is transmitted to the relay terminal by the remote terminal in an nth subframe, wherein the feedback information related with the downlink data is transferred to the base station only through the relay terminal , and wherein additional information related to the nth subframe in which the feedback information related to the downlink data is transmitted to the relay terminal is transferred to the base station .
A temporary radiotherapy facility comprising: a foundation; and a radiation vault module for supporting a radiotherapy device within a treatment room , the radiation vault module comprising: a freestanding outer frame assembly (102a-102d) positioned over the foundation; characterised in that the radiation vault module further comprises: a base frame adjustably mounted within the outer frame assembly (102a-102d) for supporting the radiotherapy device ; and a plurality of adjustable supports extendable in a downward direction from the base frame when the module is placed on the foundation, wherein the supports enable the orientation of the base frame to be adjusted independently from the outer frame assembly (102a-102d) wherein the base frame is mounted to the outer frame assembly (102a-102d) by way of mounting bolts extending through slotted holes. a foundation; and a radiation vault module for supporting a radiotherapy device within a treatment room , the radiation vault module comprising: a freestanding outer frame assembly (102a-102d) positioned over the foundation; characterised in that the radiation vault module further comprises: a base frame adjustably mounted within the outer frame assembly (102a-102d) for supporting the radiotherapy device ; and a plurality of adjustable supports extendable in a downward direction from the base frame when the module is placed on the foundation, wherein the supports enable the orientation of the base frame to be adjusted independently from the outer frame assembly (102a-102d) wherein the base frame is mounted to the outer frame assembly (102a-102d) by way of mounting bolts extending through slotted holes. a freestanding outer frame assembly (102a-102d) positioned over the foundation; characterised in that the radiation vault module further comprises: a base frame adjustably mounted within the outer frame assembly (102a-102d) for supporting the radiotherapy device ; and a plurality of adjustable supports extendable in a downward direction from the base frame when the module is placed on the foundation, wherein the supports enable the orientation of the base frame to be adjusted independently from the outer frame assembly (102a-102d) wherein the base frame is mounted to the outer frame assembly (102a-102d) by way of mounting bolts extending through slotted holes. a base frame adjustably mounted within the outer frame assembly (102a-102d) for supporting the radiotherapy device ; and a plurality of adjustable supports extendable in a downward direction from the base frame when the module is placed on the foundation, wherein the supports enable the orientation of the base frame to be adjusted independently from the outer frame assembly (102a-102d) wherein the base frame is mounted to the outer frame assembly (102a-102d) by way of mounting bolts extending through slotted holes.