mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for sensing a high-frequency event signal in a rotating electrical machine , wherein at least two sensors for sensing a low-frequency sensor signal are arranged in the rotating electrical machine , wherein the at least two sensors each comprise an antenna for decoupling the high-frequency event signal from a high-frequency electromagnetic field of the rotating electrical machine , wherein the sensors are connected via a common, in particular reactive, coupling element to a common HF evaluation apparatus , wherein the common coupling element is embodied for transferring the high-frequency event signal from at least one of the sensors to the common HF evaluation apparatus and for decoupling the low-frequency sensor signal, wherein the common, in particular reactive, coupling element has a transformer, characterised in that the transformer has primary-side windings and a secondary-side winding , wherein each of the at least two sensors is allocated a primary-side winding in each case, wherein the HF-evaluation apparatus is allocated to the secondary-side winding and wherein the primary-side windings are each coupled to the secondary-side winding . wherein at least two sensors for sensing a low-frequency sensor signal are arranged in the rotating electrical machine , wherein the at least two sensors each comprise an antenna for decoupling the high-frequency event signal from a high-frequency electromagnetic field of the rotating electrical machine , wherein the sensors are connected via a common, in particular reactive, coupling element to a common HF evaluation apparatus , wherein the common coupling element is embodied for transferring the high-frequency event signal from at least one of the sensors to the common HF evaluation apparatus and for decoupling the low-frequency sensor signal, wherein the common, in particular reactive, coupling element has a transformer, characterised in that the transformer has primary-side windings and a secondary-side winding , wherein each of the at least two sensors is allocated a primary-side winding in each case, wherein the HF-evaluation apparatus is allocated to the secondary-side winding and wherein the primary-side windings are each coupled to the secondary-side winding .
A pipeline apparatus comprising: a flexible pipe body including a sensor member and a return member extending at least partially along the length of the flexible pipe body and electrically isolated from one another except for being electrically connected at a point remote from a first end of the flexible pipe body , wherein the sensor member is exposed along at least part of the length of the flexible pipe body and has a predetermined resistance per unit length and the return member is electrically insulated; an end fitting coupled to at least said first end of the flexible pipe body; a detection apparatus coupled to the end fitting; the detection apparatus comprising: a first constant current source (CC1) having a first terminal arranged to supply a constant electrical current to the sensor member and a second terminal coupled to the return member at the first end of the flexible pipe body ; and a voltmeter (V2) arranged to measure the voltage across the first current source (CC1); wherein a change in the voltage across the first current source (CC1) is indicative of the distance along the sensor member from the end coupled to the first terminal of the first current source (CC1) to a pipe body defect causing the sensor member to be connected to Earth. a flexible pipe body including a sensor member and a return member extending at least partially along the length of the flexible pipe body and electrically isolated from one another except for being electrically connected at a point remote from a first end of the flexible pipe body , wherein the sensor member is exposed along at least part of the length of the flexible pipe body and has a predetermined resistance per unit length and the return member is electrically insulated; an end fitting coupled to at least said first end of the flexible pipe body; a detection apparatus coupled to the end fitting; the detection apparatus comprising: a first constant current source (CC1) having a first terminal arranged to supply a constant electrical current to the sensor member and a second terminal coupled to the return member at the first end of the flexible pipe body ; and a voltmeter (V2) arranged to measure the voltage across the first current source (CC1); a first constant current source (CC1) having a first terminal arranged to supply a constant electrical current to the sensor member and a second terminal coupled to the return member at the first end of the flexible pipe body ; and a voltmeter (V2) arranged to measure the voltage across the first current source (CC1); wherein a change in the voltage across the first current source (CC1) is indicative of the distance along the sensor member from the end coupled to the first terminal of the first current source (CC1) to a pipe body defect causing the sensor member to be connected to Earth.
An air conditioning control system configured to be connected to an air conditioner for performing air conditioning for an air conditioning control target, the air conditioning control target comprising a plurality of control target areas, the air conditioning control system comprising: a plurality of camera devices , each of the camera devices for being installed in an interior as an inside of a corresponding control target area of the plurality of control target areas; an activity amount calculation unit configured to acquire and analyze image information formed by imaging a corresponding control target area of the plurality of control target areas from a corresponding camera device of the plurality of camera devices , and to calculate an activity amount of a person based on the image information; characterized by a current comfort index value calculation unit configured to calculate a current comfort index value of the person based on the activity amount; an estimated comfort index value calculation unit configured to calculate an estimated comfort index value of the person after elapse of a predetermined time based on the activity amount, a control parameter calculation unit configured to calculate a control parameter regarding an operation of the air conditioner based on the current comfort index value, the estimated comfort index value, the activity amount, as well as a current comfort index value and an estimated comfort index value in a control target area of the plurality of control target areas adjacent to the control target area; and an air conditioner control unit configured to control the operation of the air conditioner based on the control parameter. a plurality of camera devices , each of the camera devices for being installed in an interior as an inside of a corresponding control target area of the plurality of control target areas; an activity amount calculation unit configured to acquire and analyze image information formed by imaging a corresponding control target area of the plurality of control target areas from a corresponding camera device of the plurality of camera devices , and to calculate an activity amount of a person based on the image information; characterized by a current comfort index value calculation unit configured to calculate a current comfort index value of the person based on the activity amount; an estimated comfort index value calculation unit configured to calculate an estimated comfort index value of the person after elapse of a predetermined time based on the activity amount, a control parameter calculation unit configured to calculate a control parameter regarding an operation of the air conditioner based on the current comfort index value, the estimated comfort index value, the activity amount, as well as a current comfort index value and an estimated comfort index value in a control target area of the plurality of control target areas adjacent to the control target area; and an air conditioner control unit configured to control the operation of the air conditioner based on the control parameter.
Hand paddle for swimming having an upper wall to which the distal portion of a user's arm is intended to be attached and a lower propulsion blade , said hand paddle being equipped with a device for holding the hand paddle on said distal portion, said device comprising an aperture formed through said hand paddle and a member mounted movable in said aperture along an axis (A), said member having an interface that is arranged above the upper wall , said interface being arranged to receive at least one finger of said user and comprising means arranged to hold said at least one finger against said interface, the member being mounted in the aperture by defining an upper part and a lower part which are arranged respectively above the upper wall and below the blade , said upper and lower parts forming respectively the interface and a base of the member , said member being equipped with an element elastically constraining the movement thereof in a position for holding said at least one finger between the means of holding and the upper wall , said hand paddle being characterised in that said elastically constraining element is arranged between the lower blade and the member , said element being reversibly compressible between an extended state for placing said member in a low position for holding said at least one finger and a compressed state for placing said member in a high position for positioning said at least one finger on the interface , and in that the elastically constraining element is attached to at least one portion of the base of the member , said element having an outer dimension which is greater than that of the aperture .
A surgical drape, comprising: an area defined by a predetermined length and a predetermined width; a selectively separable portion (20; 22; 23; 24; 25; 26; 28; 38; 40; 50) extending along a longitudinal portion to achieve a longitudinal separation of the drape; the selectively separable portion intersecting a lateral point proximal to a midpoint of the predetermined width; and a first peripheral edge and a second peripheral edge adapted to at least partially overlap one another, wherein: the selectively separable portion results in the drape being temporarily secured; the selectively separable portion comprises an underflap including a pleat extending the entirety of the predetermined length, and the selectively separable portion has a single longitudinal separation line disposed below the pleat . an area defined by a predetermined length and a predetermined width; a selectively separable portion (20; 22; 23; 24; 25; 26; 28; 38; 40; 50) extending along a longitudinal portion to achieve a longitudinal separation of the drape; the selectively separable portion intersecting a lateral point proximal to a midpoint of the predetermined width; and a first peripheral edge and a second peripheral edge adapted to at least partially overlap one another, wherein: the selectively separable portion results in the drape being temporarily secured; the selectively separable portion comprises an underflap including a pleat extending the entirety of the predetermined length, and the selectively separable portion has a single longitudinal separation line disposed below the pleat . the selectively separable portion results in the drape being temporarily secured; the selectively separable portion comprises an underflap including a pleat extending the entirety of the predetermined length, and the selectively separable portion has a single longitudinal separation line disposed below the pleat .
An optical analysis system comprising: an irradiator configured to, in a chemical reaction system for obtaining a product (AB, AB1, AB2) by synthesizing a first raw material (A) and a second raw material (B), irradiate each of the first raw material (A) and the second raw material (B) prior to initiation of synthesis with irradiation light (L1a, L1b, L1c) and irradiate a mixture (C) after initiation of the synthesis that includes the first raw material (A), the second raw material (B), and the product (AB, AB1, AB2) with irradiation light (L1a, L1b, L1c); a detector configured to detect measuring light (L2a, L2b, L2c) that is based on the irradiation light (L1a, L1b, L1c) radiated by the irradiator and includes information regarding an optical spectrum of each of the first raw material (A), the second raw material (B), and the mixture (C); and an arithmetic unit (22; 16) configured to calculate the optical spectrum of each of the first raw material (A), the second raw material (B), and the mixture (C) based on the detected measuring light (L2a, L2b, L2c) and, based on the optical spectrum of the first raw material (A), the optical spectrum of the second raw material (B), and the optical spectrum of the mixture (C), calculate an optical spectrum of the product (AB, AB1, AB2). an irradiator configured to, in a chemical reaction system for obtaining a product (AB, AB1, AB2) by synthesizing a first raw material (A) and a second raw material (B), irradiate each of the first raw material (A) and the second raw material (B) prior to initiation of synthesis with irradiation light (L1a, L1b, L1c) and irradiate a mixture (C) after initiation of the synthesis that includes the first raw material (A), the second raw material (B), and the product (AB, AB1, AB2) with irradiation light (L1a, L1b, L1c); a detector configured to detect measuring light (L2a, L2b, L2c) that is based on the irradiation light (L1a, L1b, L1c) radiated by the irradiator and includes information regarding an optical spectrum of each of the first raw material (A), the second raw material (B), and the mixture (C); and an arithmetic unit (22; 16) configured to calculate the optical spectrum of each of the first raw material (A), the second raw material (B), and the mixture (C) based on the detected measuring light (L2a, L2b, L2c) and, based on the optical spectrum of the first raw material (A), the optical spectrum of the second raw material (B), and the optical spectrum of the mixture (C), calculate an optical spectrum of the product (AB, AB1, AB2).
An encapsulated splice chuck comprising: a splice chuck body , a body encapsulation positioned about an exterior surface of the splice chuck body ; a first forcing cone threadedly coupled to the splice chuck body , the first forcing cone including a tapered inner surface ; a first forcing cone encapsulation positioned about an exterior surface of the first forcing cone ; a first set of wedges positioned within the first forcing cone ; a second forcing cone mechanically coupled to the splice chuck body , the second forcing cone including a tapered inner surface ; a second forcing cone encapsulation positioned about an exterior surface of the second forcing cone , wherein the first forcing cone encapsulation is molded to the exterior surface of the first forcing cone , and the second forcing cone encapsulation is molded to the exterior surface of the second forcing cone ; and a second set of wedges positioned within the second forcing cone ; wherein as each forcing cone is threadedly coupled to the splice chuck body , the respective forcing cone encapsulation at least partially engages the body encapsulation . a splice chuck body , a body encapsulation positioned about an exterior surface of the splice chuck body ; a first forcing cone threadedly coupled to the splice chuck body , the first forcing cone including a tapered inner surface ; a first forcing cone encapsulation positioned about an exterior surface of the first forcing cone ; a first set of wedges positioned within the first forcing cone ; a second forcing cone mechanically coupled to the splice chuck body , the second forcing cone including a tapered inner surface ; a second forcing cone encapsulation positioned about an exterior surface of the second forcing cone , wherein the first forcing cone encapsulation is molded to the exterior surface of the first forcing cone , and the second forcing cone encapsulation is molded to the exterior surface of the second forcing cone ; and a second set of wedges positioned within the second forcing cone ; wherein as each forcing cone is threadedly coupled to the splice chuck body , the respective forcing cone encapsulation at least partially engages the body encapsulation .
A calculus removing device comprising: an insertion tube ; a guide configured to be inserted into an inner side of the insertion tube and relatively movable with respect to the insertion tube ; a wire configured to be inserted into an inner side of the guide and relatively movable with respect to the guide ; a basket disposed in front of the wire and configured to hold a stone; and a controller configured to determine a size of the stone based on a relative movement of the guide with respect to the insertion tube or a relative movement of the wire with respect to the guide , wherein the controller is configured to determine the size of the stone based on a relative position of the wire with respect to the guide in a state in which the basket holding the stone is caught on a front end of the guide or based on a relative position of the wire with respect to the insertion tube in a state in which the basket holding the stone is caught on a front end of the insertion tube , the calculus removing device comprises a distance measurer disposed in the wire and configured to measure a relative movement distance (D) of the wire with respect to the guide or a relative movement distance (L1, L2) of the wire with respect to the insertion tube , the controller is configured to receive a distance information signal measured by the distance measurer and to determine the relative position of the wire with respect to the guide or with respect to the insertion tube based on a distance detected by the distance measurer . an insertion tube ; a guide configured to be inserted into an inner side of the insertion tube and relatively movable with respect to the insertion tube ; a wire configured to be inserted into an inner side of the guide and relatively movable with respect to the guide ; a basket disposed in front of the wire and configured to hold a stone; and a controller configured to determine a size of the stone based on a relative movement of the guide with respect to the insertion tube or a relative movement of the wire with respect to the guide , wherein the controller is configured to determine the size of the stone based on a relative position of the wire with respect to the guide in a state in which the basket holding the stone is caught on a front end of the guide or based on a relative position of the wire with respect to the insertion tube in a state in which the basket holding the stone is caught on a front end of the insertion tube , the calculus removing device comprises a distance measurer disposed in the wire and configured to measure a relative movement distance (D) of the wire with respect to the guide or a relative movement distance (L1, L2) of the wire with respect to the insertion tube , the controller is configured to receive a distance information signal measured by the distance measurer and to determine the relative position of the wire with respect to the guide or with respect to the insertion tube based on a distance detected by the distance measurer .
Method to encapsulate a plastic material to at least a portion of the periphery of a glazing panel in a mold comprising n upper mold which comprises a body and a molding surface and a lower mold which comprises a body and a molding surface ; characterized in that the method comprises at least the steps of : (a) pre-heating at least the molding surface of the upper mold to a temperature between 40°C and 90°C, and preferably between 75°C and 80°C; (b) inserting the glazing panel between the upper mold and the lower mold ; (c) closing the mold to form a cavity around at least a portion of the periphery of the glazing panel formed when the mold is closed between molding surfaces and the glazing panel ; (d) injecting a plastic material into the cavity to form a profiled joint to the glazing panel ; (e) cooling at least the molding surface of the upper mold to a temperature of the surface of the encapsulation between 30°C and 50°C and (f) extracting the encapsulated glazing panel from the mold. (a) pre-heating at least the molding surface of the upper mold to a temperature between 40°C and 90°C, and preferably between 75°C and 80°C; (b) inserting the glazing panel between the upper mold and the lower mold ; (c) closing the mold to form a cavity around at least a portion of the periphery of the glazing panel formed when the mold is closed between molding surfaces and the glazing panel ; (d) injecting a plastic material into the cavity to form a profiled joint to the glazing panel ; (e) cooling at least the molding surface of the upper mold to a temperature of the surface of the encapsulation between 30°C and 50°C and (f) extracting the encapsulated glazing panel from the mold.
A refrigerator comprising: a cabinet that defines a storage space; an upper door configured to open and close a first portion of the storage space; a lower door that is located vertically below the upper door, the lower door being a drawer type door configured to open and close a second portion of the storage space and configured to insert into and withdraw from the second portion of the storage space; a draw-out rail that connects the lower door to the storage space and that is configured to guide insertion and withdrawal of the lower door in a front-rear direction; an elevation assembly that is located in the lower door, that is configured to elevate an object stored in the lower door in a state in which the lower door is withdrawn, and that is configured to elevate the object relative to the lower door; characterized in a partition member that is configured to partition a front end of the storage space, and that extends in a horizontal direction to define the first portion and the second portion of the storage space, and that is disposed between the upper door and the lower door; and a door restriction device located at the partition member configured to selectively restrict an opening movement of the upper door based on whether the lower door is opened or closed, wherein the door restriction device is configured to restrict the opening movement of the upper door based on the lower door being opened, and to allow the opening movement of the upper door based on the lower door being closed. a cabinet that defines a storage space; an upper door configured to open and close a first portion of the storage space; a lower door that is located vertically below the upper door, the lower door being a drawer type door configured to open and close a second portion of the storage space and configured to insert into and withdraw from the second portion of the storage space; a draw-out rail that connects the lower door to the storage space and that is configured to guide insertion and withdrawal of the lower door in a front-rear direction; an elevation assembly that is located in the lower door, that is configured to elevate an object stored in the lower door in a state in which the lower door is withdrawn, and that is configured to elevate the object relative to the lower door; characterized in a partition member that is configured to partition a front end of the storage space, and that extends in a horizontal direction to define the first portion and the second portion of the storage space, and that is disposed between the upper door and the lower door; and a door restriction device located at the partition member configured to selectively restrict an opening movement of the upper door based on whether the lower door is opened or closed, wherein the door restriction device is configured to restrict the opening movement of the upper door based on the lower door being opened, and to allow the opening movement of the upper door based on the lower door being closed.