mhurhangee/patent-ind-claim-en huggingface dataset:
Conduit coupling for coupling a first conduit section and a second conduit section , wherein the conduit coupling comprises a first conduit coupling member configured for being arranged on the first conduit section, and a securing arrangement for securing the first conduit coupling member to a second conduit coupling member on the second conduit section, wherein the first conduit coupling member comprises a first coupling tube with a longitudinal center axis (Z), and that merges into a circumferential receiving collar for receiving a distal end of the second conduit coupling member , and a circumferential distal edge that defines a receiving opening towards the receiving collar , wherein the securing arrangement comprises two claws (70; 36) that are provided outside the first coupling tube at opposite sides of the longitudinal center axis (Z), wherein the respective claws extend over the receiving collar and beyond the distal edge , wherein the first conduit coupling member comprises at least one guard block on the receiving collar to reinforce the receiving collar, wherein the at least one guard block outwardly protrudes with respect to the receiving collar, and is provided in a circumferential direction of the receiving collar between the respective claws (70; 36), wherein the receiving collar is convex in a direction away from the longitudinal center axis (Z), and has a circumferential apex at a distance from the distal edge , characterized in that the guard block is provided between the apex and the distal edge . wherein the first conduit coupling member comprises a first coupling tube with a longitudinal center axis (Z), and that merges into a circumferential receiving collar for receiving a distal end of the second conduit coupling member , and a circumferential distal edge that defines a receiving opening towards the receiving collar , wherein the securing arrangement comprises two claws (70; 36) that are provided outside the first coupling tube at opposite sides of the longitudinal center axis (Z), wherein the respective claws extend over the receiving collar and beyond the distal edge , wherein the first conduit coupling member comprises at least one guard block on the receiving collar to reinforce the receiving collar, wherein the at least one guard block outwardly protrudes with respect to the receiving collar, and is provided in a circumferential direction of the receiving collar between the respective claws (70; 36), wherein the receiving collar is convex in a direction away from the longitudinal center axis (Z), and has a circumferential apex at a distance from the distal edge , characterized in that the guard block is provided between the apex and the distal edge .
An injection molding machine comprising: a double toggle mechanism including a pair of link groups including a first Link and a second link which are bendably/stretchably connected, to each other; a plurality of tie bars which extend in mold opening and closing directions according to a mold clamping force generated by operating the double toggle mechanism ; and a tie bar balance measurer which is configured to measure a balance of the plurality of tie bars , wherein the tie bar balance measurer includes a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit , a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit . a double toggle mechanism including a pair of link groups including a first Link and a second link which are bendably/stretchably connected, to each other; a plurality of tie bars which extend in mold opening and closing directions according to a mold clamping force generated by operating the double toggle mechanism ; and a tie bar balance measurer which is configured to measure a balance of the plurality of tie bars , wherein the tie bar balance measurer includes a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit , a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit . a tie bar strain measurement unit which is configured to measure strains of the plurality of tie bars generated by mold clamping, a balance measurement unit which is configured to measure the balance of the plurality of tie bars based on a measurement result of the tie bar strain measurement unit , a balance change measurement unit which is configured to measure a change in the balance measured by the balance measurement unit: when the mold clamping force is changed, and a toggle symmetry evaluation unit which is configured to evaluate a symmetry of the double toggle mechanism based on a measurement result of the balance change measurement unit .
A magnetic particle imaging device, comprising: a magnetic field generating apparatus arranged proximate an imaging bore of the magnetic particle imaging device, the magnetic field generating apparatus being configured to produce a magnetic field within the imaging bore of the magnetic particle imaging device such that the magnetic field will have a field-free region (FFR) for an object under observation that contains a magnetic tracer; an excitation signal source proximate the imaging bore , and configured to produce an excitation signal in the FFR that produces a detectable signal from magnetic particles in the FFR, a receiver arranged proximate the imaging bore , the receiver being configured to receive the signal from the magnetic tracer in the imaging bore ; a radio-frequency (RF) eddy current shield configured to magnetically isolate the imaging bore from the surrounding environment; and a signal processor configured to be in communication with the receiver , the signal processor being configured to convert the detectable signal into an image of the magnetic tracer, characterized in that the magnetic field generating apparatus comprises at least two magnetic field sources for creating the FFR and which are present in the surrounding environment that is magnetically isolated from the imaging bore by the RF eddy current shield . a magnetic field generating apparatus arranged proximate an imaging bore of the magnetic particle imaging device, the magnetic field generating apparatus being configured to produce a magnetic field within the imaging bore of the magnetic particle imaging device such that the magnetic field will have a field-free region (FFR) for an object under observation that contains a magnetic tracer; an excitation signal source proximate the imaging bore , and configured to produce an excitation signal in the FFR that produces a detectable signal from magnetic particles in the FFR, a receiver arranged proximate the imaging bore , the receiver being configured to receive the signal from the magnetic tracer in the imaging bore ; a radio-frequency (RF) eddy current shield configured to magnetically isolate the imaging bore from the surrounding environment; and a signal processor configured to be in communication with the receiver , the signal processor being configured to convert the detectable signal into an image of the magnetic tracer, characterized in that the magnetic field generating apparatus comprises at least two magnetic field sources for creating the FFR and which are present in the surrounding environment that is magnetically isolated from the imaging bore by the RF eddy current shield .
Delivery system consisting of (a) a solid core, which comprises at least one water-soluble vitamin, and (b) an inner coating comprising at least one fermentable biopolymer, which is crosslinked, and (c) an outer coating which is resistant to stomach conditions and releasing in the small intestine, and wherein the solid core of the delivery system is 50 - 75 wt- %, based on the total weight of the delivery system and the inner coating of the delivery system is 1 - 10 wt- %, based on the total weight of the delivery system, and the outer coating of the delivery system is 15 - 30 wt- %, based on the total weight of the delivery system. (a) a solid core, which comprises at least one water-soluble vitamin, and (b) an inner coating comprising at least one fermentable biopolymer, which is crosslinked, and (c) an outer coating which is resistant to stomach conditions and releasing in the small intestine, and wherein the solid core of the delivery system is 50 - 75 wt- %, based on the total weight of the delivery system and the inner coating of the delivery system is 1 - 10 wt- %, based on the total weight of the delivery system, and the outer coating of the delivery system is 15 - 30 wt- %, based on the total weight of the delivery system.
A compound of general formula (I), comprising 4, 5 or 6 gadolinium [4,7,10-tris-(carboxylatomethyl)-1,4,7,10-tetraazacyclododecan-1-yl] groups, in which : represents a group selected from: in which groups a and b represent an integer of 1 ; and , in which groups * indicates the point of attachment of said group with R 1 ; R 1 represents, independently from each other, a hydrogen atom or a group selected from : R3 in which groups * indicates the point of attachment of said group with A , with the proviso that only one of the substituents R 1 may represent a hydrogen atom ; n represents an integer of 3 or 4 ; R 2 represents a hydrogen atom ; R 3 represents a group selected from : in which groups * indicates the point of attachment of said group with the rest of the molecule ; R 4 represents a hydrogen atom ; R 5 represents a methyl group ; or a stereoisomer, a tautomer, an N-oxide, a hydrate, a solvate, or a salt thereof, or a mixture of same. R 1 represents, independently from each other, a hydrogen atom or a group selected from : R3 in which groups * indicates the point of attachment of said group with A , with the proviso that only one of the substituents R 1 may represent a hydrogen atom ; n represents an integer of 3 or 4 ; R 2 represents a hydrogen atom ; R 3 represents a group selected from : in which groups * indicates the point of attachment of said group with the rest of the molecule ; R 4 represents a hydrogen atom ; R 5 represents a methyl group ;
Hydraulic drive for a hydraulic consumer or a hydraulic system having a variable-displacement pump , which variable-displacement pump is mechanically coupled to a variable-speed electric motor , and a controller for adjusting the stroke volume of the pump , characterized in that the pump is torque-controlled, that is to say, in order to drive the pump, a predetermined torque is not to be exceeded, wherein a torque regulation does not engage as long as the torque, which is the product of consumer or system pressure and stroke volume of the pump, lies below the predetermined torque even at maximum stroke volume, and the pump is adjusted in the direction of a smaller stroke volume by the torque regulation when the consumer or system pressure becomes so high that the product of consumer or system pressure and stroke volume of the pump reaches the prespecified value.
A dishwasher comprising a body ; a washing tub which is disposed in the body and wherein the washing process is performed; at least one spraying member which delivers water onto the kitchen items in the washing tub ; a delivery line which delivers the water received from the mains to the spraying member ; and a detergent dispenser which is provided on the delivery line , wherein a movement mechanism is disposed on the delivery line , characterised in that the movement mechanism has a piston configured to get in contact with the detergent dispenser with one end, the movement mechanism comprising the detergent dispenser having a drawer , a frame disposed on the drawer and at least one detergent box with one end attached to the frame and the other end to the drawer , wherein the piston is configured to move with the pressure of the water flowing through the delivery line and contacts the frame .
Method for fixing lift-out positions (X Aa , Y Aa, ....) of at least two lift-out apparatuses (22a-d) which each have a plurality of lift-out elements and/or retention positions (X Ha , Y Ha , ...) of at least two retention apparatuses (24a-f) which each have a plurality of retention elements for removing a workpiece part from a remaining workpiece , wherein the lift-out apparatuses (22a-d) and/or the retention apparatuses (24a-f) are movable parallel with a bearing plane of the workpiece part which is intended to be removed from the remaining workpiece , characterised by the steps of: a) determining an in particular rectangular enclosing contour which encloses the workpiece part which is intended to be removed, b) initially fixing lift-out positions (X Aa , Y Aa , ....) of at least two of the lift-out apparatuses (22a-d) and/or retention positions (X Ha , Y Ha , ...) of at least two of the retention apparatuses (24a-d) relative to the enclosing contour , c) fixing an active region for each of the lift-out apparatuses (22a-d) at the respective fixed lift-out position (X Aa , Y Aa , ....) thereof and/or for each of the retention apparatuses (24a-f) at the respective fixed retention position (X Ha , Y Ha , ...) thereof, and d) fixing the lift-out positions (X Aa , Y Aa , ....) of the lift-out apparatuses (22a-d) and/or the retention positions (X Ha , Y Ha , ...) of the retention apparatuses (24a-d) once again based upon a partial region , which is positioned in the respective active region , of the workpiece part which is intended to be removed. a) determining an in particular rectangular enclosing contour which encloses the workpiece part which is intended to be removed, b) initially fixing lift-out positions (X Aa , Y Aa , ....) of at least two of the lift-out apparatuses (22a-d) and/or retention positions (X Ha , Y Ha , ...) of at least two of the retention apparatuses (24a-d) relative to the enclosing contour , c) fixing an active region for each of the lift-out apparatuses (22a-d) at the respective fixed lift-out position (X Aa , Y Aa , ....) thereof and/or for each of the retention apparatuses (24a-f) at the respective fixed retention position (X Ha , Y Ha , ...) thereof, and d) fixing the lift-out positions (X Aa , Y Aa , ....) of the lift-out apparatuses (22a-d) and/or the retention positions (X Ha , Y Ha , ...) of the retention apparatuses (24a-d) once again based upon a partial region , which is positioned in the respective active region , of the workpiece part which is intended to be removed.
A turbine blade sealing structure for a ceramic matrix composite turbine blade with a shank comprising: at least one top ply abutting a top portion of the shank , the at least one top ply extending out over the top portion of the shank ; and at least one side ply abutting a side portion of the shank , the at least one side ply extending along a side portion of the shank , wherein the at least one top ply and at least one side ply form an angel wing on the shank and wherein the at least one side ply forms a skirt on the shank of the ceramic matrix composite turbine blade , characterized in that the angel wing of the turbine blade sealing structure further comprises at least one of a spacer or insert pack of plies between the at least one top ply and the at least one side ply . at least one top ply abutting a top portion of the shank , the at least one top ply extending out over the top portion of the shank ; and at least one side ply abutting a side portion of the shank , the at least one side ply extending along a side portion of the shank , wherein the at least one top ply and at least one side ply form an angel wing on the shank and wherein the at least one side ply forms a skirt on the shank of the ceramic matrix composite turbine blade , characterized in that the angel wing of the turbine blade sealing structure further comprises at least one of a spacer or insert pack of plies between the at least one top ply and the at least one side ply .
A computer implemented method for monitoring aortic pulse wave velocity, the method comprising: receiving a pulse signal from a single sensor on the exterior of an individual's body, the single sensor being positioned at a sensor location that allows acquisition of the pulse signal such that a reflected wave component of the pulse signal is present and allows characterization of reflected wave onset; determining a first derivative from the pulse signal ; determining a third derivative from the pulse signal ; identifying a reflected wave onset point in the pulse signal by; identifying a second peak of the third derivative and; identifying the reflected wave onset point using the second peak of the third derivative; determining a reflected wave ratio at the reflected wave onset point by: identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative ; and determining the reflected wave ratio as a normalized height of the first derivative onset point; determining the aortic pulse wave velocity from the reflected wave ratio ; and at least one of displaying the aortic pulse wave velocity , transmitting the aortic pulse wave velocity , and storing the aortic pulse wave velocity . receiving a pulse signal from a single sensor on the exterior of an individual's body, the single sensor being positioned at a sensor location that allows acquisition of the pulse signal such that a reflected wave component of the pulse signal is present and allows characterization of reflected wave onset; determining a first derivative from the pulse signal ; determining a third derivative from the pulse signal ; identifying a reflected wave onset point in the pulse signal by; identifying a second peak of the third derivative and; identifying the reflected wave onset point using the second peak of the third derivative; identifying a second peak of the third derivative and; identifying the reflected wave onset point using the second peak of the third derivative; determining a reflected wave ratio at the reflected wave onset point by: identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative ; and determining the reflected wave ratio as a normalized height of the first derivative onset point; identifying a first derivative onset point corresponding to the reflected wave onset point in the third derivative ; and determining the reflected wave ratio as a normalized height of the first derivative onset point; determining the aortic pulse wave velocity from the reflected wave ratio ; and at least one of displaying the aortic pulse wave velocity , transmitting the aortic pulse wave velocity , and storing the aortic pulse wave velocity .
An automatic transmission , comprising: an input adapted to couple to a torque-generating mechanism; an output coupled to the input; a first rotating torque-transferring mechanism (C1) disposed along a first torque path, the first rotating torque-transferring mechanism being coupled to the input; a second rotating torque-transferring mechanism (C2) disposed along a second torque path, the second rotating torque-transferring mechanism being coupled to the input independent of the first torque-transferring mechanism; a first stationary torque-transferring mechanism (C3), a second stationary torque-transferring mechanism (C4), a third stationary torque-transferring mechanism (C5), and a fourth stationary torque-transferring mechanism (C6), each of the stationary torque-transferring mechanisms being disposed between the input and the output; and a first planetary gearset (P1), a second planetary gearset (P2), a third planetary gearset (P3), and a fourth planetary gearset (P4), where each gearset includes a sun gear , a ring gear , and a carrier assembly , wherein the carrier assembly of the third planetary gearset is coupled to the output and the sun gear of the fourth planetary gearset, characterised in that a third torque path is at least partially defined by the input , the sun gear of the first planetary gear set (P1) and the carrier assembly of the first planetary gear set (P1) and the input is continuously coupled to the sun gear of the first planetary gearset (P1). an input adapted to couple to a torque-generating mechanism; an output coupled to the input; a first rotating torque-transferring mechanism (C1) disposed along a first torque path, the first rotating torque-transferring mechanism being coupled to the input; a second rotating torque-transferring mechanism (C2) disposed along a second torque path, the second rotating torque-transferring mechanism being coupled to the input independent of the first torque-transferring mechanism; a first stationary torque-transferring mechanism (C3), a second stationary torque-transferring mechanism (C4), a third stationary torque-transferring mechanism (C5), and a fourth stationary torque-transferring mechanism (C6), each of the stationary torque-transferring mechanisms being disposed between the input and the output; and a first planetary gearset (P1), a second planetary gearset (P2), a third planetary gearset (P3), and a fourth planetary gearset (P4), where each gearset includes a sun gear , a ring gear , and a carrier assembly , wherein the carrier assembly of the third planetary gearset is coupled to the output and the sun gear of the fourth planetary gearset, characterised in that a third torque path is at least partially defined by the input , the sun gear of the first planetary gear set (P1) and the carrier assembly of the first planetary gear set (P1) and the input is continuously coupled to the sun gear of the first planetary gearset (P1).
A power supply device comprising a plurality of battery modules (102a, 102b, ..., 102n), each battery module having a secondary battery ; a controller configured to connect the battery modules in series with one another according to a gate driving signal, and to change an SOC control target value that is a target value for states-of-charge of the battery modules according to a number of the battery modules that are available to be connected in series; and a disconnecting device configured to forcibly isolate any battery module from a series connection regardless of the gate driving signal, wherein the controller is configured to exclude, from the battery modules that are available to be connected in series, each battery module that has been forcibly isolated from the series connection by the disconnecting device . a plurality of battery modules (102a, 102b, ..., 102n), each battery module having a secondary battery ; a controller configured to connect the battery modules in series with one another according to a gate driving signal, and to change an SOC control target value that is a target value for states-of-charge of the battery modules according to a number of the battery modules that are available to be connected in series; and a disconnecting device configured to forcibly isolate any battery module from a series connection regardless of the gate driving signal, wherein the controller is configured to exclude, from the battery modules that are available to be connected in series, each battery module that has been forcibly isolated from the series connection by the disconnecting device .