mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing a supercharger compressor housing, comprising steps of: heating a heating target region (HT) locally, the heating target region being a circumferentially continuous region of a ring-shaped abradable seal , through use of a local heating apparatus configured to selectively heat the heating target region; and mounting and fixing the abradable seal onto a mounting and fixing surface of a compressor housing main body portion , wherein, on mounting and fixing, the heating target region having been heated locally is inserted into a groove portion formed in the mounting and fixing surface while being deformed; and wherein the heating target region is in the form of a projecting portion ; the method characterized in that : the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing , and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp . heating a heating target region (HT) locally, the heating target region being a circumferentially continuous region of a ring-shaped abradable seal , through use of a local heating apparatus configured to selectively heat the heating target region; and mounting and fixing the abradable seal onto a mounting and fixing surface of a compressor housing main body portion , wherein, on mounting and fixing, the heating target region having been heated locally is inserted into a groove portion formed in the mounting and fixing surface while being deformed; and wherein the heating target region is in the form of a projecting portion ; the method characterized in that : the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing , and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp . the local heating apparatus comprises an infrared welding machine including a casing having a disc-like shape and a ring-shaped infrared lamp which is arranged inside the casing , and wherein an opening slit having a ring shape, which is continuous in the circumferential direction, is formed in one surface of the casing so as to correspond to the infrared lamp .
A preform comprising a stack of a plurality of fiber materials each including a first fiber layer including a reinforcing fiber and having a sheet shape, the reinforcing fiber having a melting point and a tensile strength that are higher than a melting point and a tensile strength of an aliphatic polyamide fiber , and a second fiber layer including the aliphatic polyamide fiber and having a sheet shape, and provided on at least one of surfaces of the first fiber layer, wherein the aliphatic polyamide fiber includes a first polyamide resin and a second polyamide resin having a melting point higher than a melting point of the first polyamide resin by 7 degrees centigrade to 50 degrees centigrade, and the second fiber layer comprises a woven fabric having the woven aliphatic polyamide fiber or a knitted fabric having the knitted aliphatic polyamide fiber , wherein the aliphatic polyamide fiber includes a core and an outer peripheral part that covers the core , wherein the first polyamide resin structuring the outer peripheral part is polyamide 12, and the second polyamide resin structuring the core is polyamide 1010 or polyamide 6, and wherein a ratio of mass of the first polyamide resin included in the aliphatic polyamide fiber and mass of the second polyamide resin included in the aliphatic polyamide fiber is in a range from 30:70 to 70:30. a stack of a plurality of fiber materials each including a first fiber layer including a reinforcing fiber and having a sheet shape, the reinforcing fiber having a melting point and a tensile strength that are higher than a melting point and a tensile strength of an aliphatic polyamide fiber , and a second fiber layer including the aliphatic polyamide fiber and having a sheet shape, and provided on at least one of surfaces of the first fiber layer, a first fiber layer including a reinforcing fiber and having a sheet shape, the reinforcing fiber having a melting point and a tensile strength that are higher than a melting point and a tensile strength of an aliphatic polyamide fiber , and a second fiber layer including the aliphatic polyamide fiber and having a sheet shape, and provided on at least one of surfaces of the first fiber layer, wherein the aliphatic polyamide fiber includes a first polyamide resin and a second polyamide resin having a melting point higher than a melting point of the first polyamide resin by 7 degrees centigrade to 50 degrees centigrade, and the second fiber layer comprises a woven fabric having the woven aliphatic polyamide fiber or a knitted fabric having the knitted aliphatic polyamide fiber , wherein the aliphatic polyamide fiber includes a core and an outer peripheral part that covers the core , wherein the first polyamide resin structuring the outer peripheral part is polyamide 12, and the second polyamide resin structuring the core is polyamide 1010 or polyamide 6, and wherein a ratio of mass of the first polyamide resin included in the aliphatic polyamide fiber and mass of the second polyamide resin included in the aliphatic polyamide fiber is in a range from 30:70 to 70:30.
A method for facilitating packet communications from a terminal to a network proxy , wherein the method is performed by the terminal, the method comprising: a) establishing a plurality of communication sessions via a plurality of access networks with the network proxy, which facilitates communications between the terminal and at least one communication device ; b) selecting one of the plurality of communication sessions to be a first active communication session; c) identifying the first active communication session to the network proxy; and being characterized by comprising: d) selecting at least a second one of the plurality of communication sessions to be a second active communication session; and e) transferring packets to or from the network proxy using the first and second active communication sessions to effect the communications with the at least one communication device. a) establishing a plurality of communication sessions via a plurality of access networks with the network proxy, which facilitates communications between the terminal and at least one communication device ; b) selecting one of the plurality of communication sessions to be a first active communication session; c) identifying the first active communication session to the network proxy; and being characterized by comprising: d) selecting at least a second one of the plurality of communication sessions to be a second active communication session; and e) transferring packets to or from the network proxy using the first and second active communication sessions to effect the communications with the at least one communication device.
Method for the realisation of a gripper for a plastic molding loading and/or unloading robot, the method comprising the steps of: acquiring (S2100) a mold project, designing (S2200) the gripper based on the mold project, realising (S2300) the gripper by a 3D printing, characterized in that the step of designing (S2200) the gripper comprises the steps of: designing, as an integral part of the gripper , supports for electrical connections made as hollow sections of the gripper , wherein the gripper further comprising a plurality of structural lamellae , and supports are made as hollow sections of the structural lamellae . acquiring (S2100) a mold project, designing (S2200) the gripper based on the mold project, realising (S2300) the gripper by a 3D printing, characterized in that the step of designing (S2200) the gripper comprises the steps of: designing, as an integral part of the gripper , supports for electrical connections made as hollow sections of the gripper , wherein the gripper further comprising a plurality of structural lamellae , and supports are made as hollow sections of the structural lamellae . designing, as an integral part of the gripper , supports for electrical connections made as hollow sections of the gripper , wherein the gripper further comprising a plurality of structural lamellae , and supports are made as hollow sections of the structural lamellae .
Method of manufacturing a metal-ceramic-substrate which comprises a ceramic plate or ceramic layer and two metal layers which are attached at two opposing surface sides of the ceramic layer in a laminar manner, encompassing at least the steps: - providing a ceramic suspension on a sintering aid, - heating the ceramic suspension to a sintering temperature to obtain a ceramic layer, - cooling the ceramic layer, - covering the first surface side of the ceramic layer with the first metal layer and/or covering the second surface side of the ceramic layer which is opposing the first surface side with the second metal layer, - heating the arrangement of the ceramic layer and the metal layer/s which is formed in the preceding step to a bonding temperature for forming a composite between the ceramic layer and the metal layer/s by bonding, - cooling the arrangement of the ceramic layer and the metal layer/s, - repeating the previous three steps, if only one surface side of the ceramic layer was bonded with a metal layer, until both surface sides of the ceramic layer are bonded with respectively one metal layer, wherein the ceramic layer is bonded with metal layers of different elastic limits, wherein the different elastic limits are predetermined by different grain sizes in both metal layers. - providing a ceramic suspension on a sintering aid, - heating the ceramic suspension to a sintering temperature to obtain a ceramic layer, - cooling the ceramic layer, - covering the first surface side of the ceramic layer with the first metal layer and/or covering the second surface side of the ceramic layer which is opposing the first surface side with the second metal layer, - heating the arrangement of the ceramic layer and the metal layer/s which is formed in the preceding step to a bonding temperature for forming a composite between the ceramic layer and the metal layer/s by bonding, - cooling the arrangement of the ceramic layer and the metal layer/s, - repeating the previous three steps, if only one surface side of the ceramic layer was bonded with a metal layer, until both surface sides of the ceramic layer are bonded with respectively one metal layer, wherein
A baffle pipe segment as obstacle in a flow of a target liquid through the baffle pipe segment , comprising a segment hull with a longitudinal axis (z), particularly a tubular segment hull, a baffle element arranged in the path of the target liquid and attached to the segment hull , wherein the baffle element separates the baffle pipe segment into an input side arranged upstream of the baffle element with respect to a flow direction (F) of the target liquid through the baffle pipe segment , and an output side arranged downstream of the baffle element with respect to the flow direction (F) of the target liquid through the baffle pipe segment , wherein a slit is formed between the segment hull and the baffle element , through which slit the target liquid flows from the input side to the output side, wherein the slit is delimited by an inner wall and an outer wall , wherein the inner wall is formed by a wall section of the baffle element , which wall section extends substantially in direction of the longitudinal axis (z), and the outer wall of the slit is formed by a section of the segment hull , wherein the slit extends in a perpendicular direction to the longitudinal axis (z) along a section of the circumference of the segment hull , characterized in that the baffle element comprises at least one first positive curvature towards the input side, which first curvature forms at least a section of a total surface of the baffle element facing the input side.
Stator for an electrical machine , comprising an annular stator main body which has radial stator teeth for receiving electrical coils , wherein an insulating lamination which insulates the coils , which are wound from winding wire , from the stator main body is arranged on a first end side of the stator main body , wherein conductor strips which have electrical, axially extending contact elements against which the winding wire is placed during winding of the coils are arranged in the insulating lamination , characterized in that a plurality of axially extending supporting tabs which support the winding wire in the radial direction are integrally formed at least on one conductor strip , wherein the supporting tabs are covered on their radial outer side by a plastic wall of the insulating lamination , which plastic wall is designed in the form of axial projections .
An electrocardiography monitor configured for self-optimizing ECG data compression, comprising: a memory ; a micro-controller operable to execute under a micro-programmable control and configured to: obtain a series of electrode voltage values; select one or more of a plurality of compression algorithms for compressing the electrode voltage series; apply one or more of the selected compression algorithms to the electrode voltage series; characterised in that said micro-controller operable to execute under a micro-programmable control is further configured to evaluate a degree of compression of the electrode voltage series achieved using the application of the selected algorithms; apply one or more of the compression algorithms to the compressed electrode voltage series upon the degree of compression not meeting a predefined threshold; and store the compressed electrode voltage series within the memory . a memory ; a micro-controller operable to execute under a micro-programmable control and configured to: obtain a series of electrode voltage values; select one or more of a plurality of compression algorithms for compressing the electrode voltage series; apply one or more of the selected compression algorithms to the electrode voltage series; characterised in that said micro-controller operable to execute under a micro-programmable control is further configured to evaluate a degree of compression of the electrode voltage series achieved using the application of the selected algorithms; apply one or more of the compression algorithms to the compressed electrode voltage series upon the degree of compression not meeting a predefined threshold; and store the compressed electrode voltage series within the memory . obtain a series of electrode voltage values; select one or more of a plurality of compression algorithms for compressing the electrode voltage series; apply one or more of the selected compression algorithms to the electrode voltage series; characterised in that said micro-controller operable to execute under a micro-programmable control is further configured to evaluate a degree of compression of the electrode voltage series achieved using the application of the selected algorithms; apply one or more of the compression algorithms to the compressed electrode voltage series upon the degree of compression not meeting a predefined threshold; and store the compressed electrode voltage series within the memory .
An apparatus, comprising: a flexible probe having a proximal portion and a distal end for insertion into a body cavity of a patient, the probe having a distal tip at the distal end of the probe; an ablation electrode disposed on the distal tip; a transmitter within the probe; a position sensor within the probe configured for receiving signals from the transmitter for sensing a position of the distal tip relative to the distal end of the probe; a resilient contact force sensor disposed in the probe between the transmitter and the position sensor, which couples the distal tip to the distal end of the probe and is configured to deform in response to pressure exerted on the distal tip when the distal tip engages a wall of the body cavity; an ultrasound transducer disposed in the distal end for directing ultrasonic energy toward the wall; and a processor linked to the position sensor for determining an angular deviation between the distal end and the proximal portion of the probe, wherein the processor is configured for activating the ultrasound transducer to emit ultrasound signals when the distal tip is in alignment with the distal end of the probe; and for processing echo signals returning from the emitted ultrasound signals to determine a thickness of the wall; and for calculating ablation parameters responsively to the thickness of the wall before the wall is ablated. a flexible probe having a proximal portion and a distal end for insertion into a body cavity of a patient, the probe having a distal tip at the distal end of the probe; an ablation electrode disposed on the distal tip; a transmitter within the probe; a position sensor within the probe configured for receiving signals from the transmitter for sensing a position of the distal tip relative to the distal end of the probe; a resilient contact force sensor disposed in the probe between the transmitter and the position sensor, which couples the distal tip to the distal end of the probe and is configured to deform in response to pressure exerted on the distal tip when the distal tip engages a wall of the body cavity; an ultrasound transducer disposed in the distal end for directing ultrasonic energy toward the wall; and a processor linked to the position sensor for determining an angular deviation between the distal end and the proximal portion of the probe, wherein the processor is configured for activating the ultrasound transducer to emit ultrasound signals when the distal tip is in alignment with the distal end of the probe; and for processing echo signals returning from the emitted ultrasound signals to determine a thickness of the wall; and for calculating ablation parameters responsively to the thickness of the wall before the wall is ablated.
A device for measuring a non-contact alternating current including a flexible sensor and a processing unit , the flexible sensor surrounding a conductor traversed by an electric current to be measured with an amplitude less than 10mA and having a deformable magnetic core , device in which the processing unit is configured, in a measuring winding , to add to a measuring current at a frequency F a bias current at a non-multiple bias frequency Fpol and at least 2.5 times greater than this frequency F and of large amplitude greater than the amplitude of the measurement current then, by means of a determined frequency filter , to eliminate this bias current at the bias frequency Fpol to maintain only the measurement current at the frequency F.
A flat stacked type non-aqueous electrolyte secondary battery comprising a power generating element including: a positive electrode comprising a positive electrode active material layer containing a positive electrode active material formed on a surface of a positive electrode current collector, a negative electrode comprising a negative electrode active material layer containing a negative electrode active material formed on a surface of a negative electrode current collector, and an electrolyte layer, wherein the ratio of the rated capacity to the pore volume of the negative electrode active material layer, as measured by the method defined in the description, is 1.12 Ah/cc or more, the ratio of the battery area to the rated capacity, as measured by the method defined in the description, is 4.0 cm 2 /Ah or more, and the rated capacity is 30 Ah or more, and the electrolyte layer contains an electrolyte solution containing an electrolyte salt dissolved and the value obtained by dividing the weight of an electrolyte salt in pores in the negative electrode active material layer by the weight of the negative electrode active material, as measured by the method defined in the description, is 0.031 or more. a positive electrode comprising a positive electrode active material layer containing a positive electrode active material formed on a surface of a positive electrode current collector, a negative electrode comprising a negative electrode active material layer containing a negative electrode active material formed on a surface of a negative electrode current collector, and an electrolyte layer, wherein the ratio of the rated capacity to the pore volume of the negative electrode active material layer, as measured by the method defined in the description, is 1.12 Ah/cc or more, the ratio of the battery area to the rated capacity, as measured by the method defined in the description, is 4.0 cm 2 /Ah or more, and the rated capacity is 30 Ah or more, and the electrolyte layer contains an electrolyte solution containing an electrolyte salt dissolved and the value obtained by dividing the weight of an electrolyte salt in pores in the negative electrode active material layer by the weight of the negative electrode active material, as measured by the method defined in the description, is 0.031 or more.
Battery cell comprising a stack of positive and negative electrodes and separators arranged in between, wherein the electrodes have in each case electrode lugs , which are in each case welded to at least one positive and at least one negative collector , wherein the electrode lugs are connected to the collector in each case at the end face by means of a butt-joint weld seam , wherein the end-face connection is created by means of laser beam welding or electron beam welding, TIG welding, MIG welding or plasma welding, characterized in that the parts to be connected, specifically the collector and the electrode lugs , are arranged with their end faces opposite one another in one plane.