mhurhangee/patent-ind-claim-en huggingface dataset:
An electric component assembly comprising: an electric component (1; 1A); a base body (100; 100A); a housing (202; 202A) with which the electric component is fitted together, the electric component and the housing being fixed to a front side (101; 101A) of the base body; and a circuit board (201; 201A); wherein the electric component includes a connecting terminal (10; 10A) press-fitted in a through-hole of the circuit board installed in the housing, and a direction in which the connecting terminal is inserted into the through-hole is the same as a fitting direction of the electric component relative to the housing, characterised in that the electric component assembly includes a pair of ribs protruding laterally with regard to the longitudinal fitting direction from one of the electric component and the housing, and a pair of groove portions recessed laterally with regard to the longitudinal fitting direction from another one of the electric component and the housing and into which the pair of ribs are press-fitted, wherein the pair of groove portions are formed at opposite lateral side positions of the electric component, and wherein movement of the electric component in a direction intersecting the fitting direction and rotation of the electric component around an axis parallel to the fitting direction are restrained by the ribs press-fitted into the groove portions. an electric component (1; 1A); a base body (100; 100A); a housing (202; 202A) with which the electric component is fitted together, the electric component and the housing being fixed to a front side (101; 101A) of the base body; and a circuit board (201; 201A); wherein the electric component includes a connecting terminal (10; 10A) press-fitted in a through-hole of the circuit board installed in the housing, and a direction in which the connecting terminal is inserted into the through-hole is the same as a fitting direction of the electric component relative to the housing, characterised in that the electric component assembly includes a pair of ribs protruding laterally with regard to the longitudinal fitting direction from one of the electric component and the housing, and a pair of groove portions recessed laterally with regard to the longitudinal fitting direction from another one of the electric component and the housing and into which the pair of ribs are press-fitted, wherein the pair of groove portions are formed at opposite lateral side positions of the electric component, and wherein movement of the electric component in a direction intersecting the fitting direction and rotation of the electric component around an axis parallel to the fitting direction are restrained by the ribs press-fitted into the groove portions.
Anti-pinch protection system for attaching to a vehicle part, having a carrier device which has a first rigid carrier element and a second soft carrier element , the carrier device having, in the installed state, a fastening side which faces the vehicle part and a visible side which lies opposite it, a sensor device for detecting a pinching force which is applied to the visible side of the carrier device , characterized in that the carrier device has a third rigid carrier element , the second soft carrier element connecting the two rigid carrier elements to one another pivotably, the sensor device is provided on the fastening side of the first rigid carrier element of the carrier device , and the third rigid carrier element has a lever-like actuating section , the lever-like actuating section and the sensor device moving relative to one another in the case of the application of the pinching force (F), and the actuating section interacting with the sensor device in such a way that the sensor device is deformed by way of the actuating section .
An electrode plate for an electrolysis system made of sheet metal, having a frame region which surrounds an active field and which, like the active field , has a rectangular basic shape, and wherein the frame region is formed in a base plane (E) of the undeformed sheet metal, wherein the active field has an embossing structure in the form of individual embossing elements which are raised and recessed with respect to the base plane (E), including a plurality of linear embossing strips which are positioned in a row and column arrangement such that raised linear embossing strips and recessed linear embossing strips are formed in an alternating manner in each case in both the row and column directions, wherein all of the linear embossing strips of a row are inclined in the same way with respect to the longitudinal sides of the active field and a flow direction (DR) parallel thereto, and the linear embossing strips of the next row assume the opposite inclined position of equal absolute value.
Hand-operated power tool, in particular screwdriver and/or drill, with a drive motor for driving a gear drive of a gearbox , which has a gearbox output for driving a tool holder of the hand-operated power tool and a first gear stage and a second gear stage , wherein the gearbox has a first locking mechanism for locking a gear element of the first gear stage forming a locking mechanism element and a second locking mechanism for locking a gear element of the second gear stage forming a locking mechanism element , wherein the gear stage with the respectively locked locking mechanism element transmits a torque from the gear drive to the gearbox output , wherein a direction of rotation of the drive motor is reversible and, depending on the direction of rotation of the drive motor , the first gear stage or the second gear stage transmits a torque from the gear drive to the gearbox output , wherein both gear stages effect a change in speed between gear drive and gearbox output and one of the two gear stages effects a direction of rotation reversal between the gear drive and the gearbox output , wherein the gearbox has a planetary stage, wherein planetary gears of the planetary stage are rotatably mounted on a planetary carrier with an output, and wherein the planetary gears are driven by a drive wheel, characterised in that the planetary gears have a first pitch circle diameter assigned to the drive wheel and a second pitch circle diameter differing from the first pitch circle diameter .
Process for the preparation of 4-(4-aminoophenyl)morpholin-3-one of Formula (I) according to Scheme 6 including the following steps: a) 2-(2-chloroethoxy)ethanol of Formula (XI) is oxidized to 2-(2-chloroethoxy)acetic acid with an oxidising agent, b) then the obtained 2-(2-chloroethoxy)acetic acid of Formula (X) is reacted with 4-nitro-aniline of Formula (VII) , c) then the obtained 2-(2-chloroetoxy)-N-(4-nitrophenyl)acetamide of Formula (IX) is transformed to 4-(4-nitrophenyl)morpholin-3-one of Formula (IV) , d) then the 4-(4-nitrophenyl)morpholin-3-one of Formula (IV) is hydrogenated to get 4-(4-aminophenyl)morpholin-3-one of Formula (I) , wherein a) in Step-a the oxidising agent is, aqueous sodium- or calcium-hypochlorite and 2,2,6,6-tetramethylpiperidin-1-il)oxyl catalyst is used b) in Step-b phenylboronic acid catalyst is used, c) in Step-c the 2-(2-chloroetoxy)-N-(4-nitrophenyl)acetamide (IX) product is converted to 4-(4-nitrophenyl)morpholin-3-one (IV) in a "one-pot" procedure d) in Step-d the 4-(4-nitrophenyl)morpholin-3-one (IV) is hydrogenated with palladium on carbon catalyst at hydrogen overpressure to get the targeted 4-(4-aminophenyl) morpholin-3-one (I) product. a) 2-(2-chloroethoxy)ethanol of Formula (XI) is oxidized to 2-(2-chloroethoxy)acetic acid with an oxidising agent, b) then the obtained 2-(2-chloroethoxy)acetic acid of Formula (X) is reacted with 4-nitro-aniline of Formula (VII) , c) then the obtained 2-(2-chloroetoxy)-N-(4-nitrophenyl)acetamide of Formula (IX) is transformed to 4-(4-nitrophenyl)morpholin-3-one of Formula (IV) , d) then the 4-(4-nitrophenyl)morpholin-3-one of Formula (IV) is hydrogenated to get 4-(4-aminophenyl)morpholin-3-one of Formula (I) , a) in Step-a the oxidising agent is, aqueous sodium- or calcium-hypochlorite and 2,2,6,6-tetramethylpiperidin-1-il)oxyl catalyst is used b) in Step-b phenylboronic acid catalyst is used, c) in Step-c the 2-(2-chloroetoxy)-N-(4-nitrophenyl)acetamide (IX) product is converted to 4-(4-nitrophenyl)morpholin-3-one (IV) in a "one-pot" procedure d) in Step-d the 4-(4-nitrophenyl)morpholin-3-one (IV) is hydrogenated with palladium on carbon catalyst at hydrogen overpressure to get the targeted 4-(4-aminophenyl) morpholin-3-one (I) product.
A process for producing hydrogen, comprising the steps of: gasifying a fuel into a raw synthesis gas comprising CO, hydrogen, steam and sulfur and halide contaminants in the form of H 2 S, COS and HX, where X is a halide; injecting said raw synthesis gas, CaO and steam into a water gas shift reactor, WGSR, wherein the steam is injected into said WGSR in the range of from the stoichiometric requirement to 3 times the stoichiometric requirement, wherein said raw synthesis gas transforms into a shifted gas without a catalyst; allowing said shifted gas to react with said CaO in said WGSR so as to remove CO 2 , sulfur and halides in a solid-phase calcium-containing product comprising CaCO 3 , CaS and CaX 2 ; separating the solid-phase calcium-containing product from an enriched gaseous hydrogen product; and regenerating the CaO by calcining the solid-phase calcium-containing product at a condition selected from the group consisting of: in the presence of steam, in the presence of CO 2 , in the presence of synthesis gas, in the presence of H 2 and O 2 , under partial vacuum, and combinations thereof. gasifying a fuel into a raw synthesis gas comprising CO, hydrogen, steam and sulfur and halide contaminants in the form of H 2 S, COS and HX, where X is a halide; injecting said raw synthesis gas, CaO and steam into a water gas shift reactor, WGSR, wherein the steam is injected into said WGSR in the range of from the stoichiometric requirement to 3 times the stoichiometric requirement, wherein said raw synthesis gas transforms into a shifted gas without a catalyst; allowing said shifted gas to react with said CaO in said WGSR so as to remove CO 2 , sulfur and halides in a solid-phase calcium-containing product comprising CaCO 3 , CaS and CaX 2 ; separating the solid-phase calcium-containing product from an enriched gaseous hydrogen product; and regenerating the CaO by calcining the solid-phase calcium-containing product at a condition selected from the group consisting of: in the presence of steam, in the presence of CO 2 , in the presence of synthesis gas, in the presence of H 2 and O 2 , under partial vacuum, and combinations thereof.
A medical delivery device for treating a tunneling wound comprising: an outer sleeve defining a cavity configured to hold a wound treatment material ; a plunger configured to be received within the cavity and configured to deliver the wound treatment material from the cavity and into the tunneling wound, the plunger comprising: a shaft comprising a first shaft end and a second shaft end; a head disposed on the first shaft end; and characterized by an opening extending through a central axis of both the shaft and the head ; and a hollow tube extending through the opening , the hollow tube configured to deliver a fluid to the wound treatment material . an outer sleeve defining a cavity configured to hold a wound treatment material ; a plunger configured to be received within the cavity and configured to deliver the wound treatment material from the cavity and into the tunneling wound, the plunger comprising: a shaft comprising a first shaft end and a second shaft end; a head disposed on the first shaft end; and characterized by an opening extending through a central axis of both the shaft and the head ; and a shaft comprising a first shaft end and a second shaft end; a head disposed on the first shaft end; and characterized by an opening extending through a central axis of both the shaft and the head ; and a hollow tube extending through the opening , the hollow tube configured to deliver a fluid to the wound treatment material .
An ingredient dispenser (1; 101; 201; 301) for dispensing ingredient into a liquid, the ingredient dispenser comprising an elongate main body (2; 102; 202; 302) comprising an ingredient dispensing portion (4; 104; 204; 304) at a distal end of the elongate main body, wherein the ingredient dispensing portion is configured to release ingredient (5; 105; 205; 305) from the ingredient dispenser, and a stirrer portion (3; 103; 203; 303) at a proximal end of the elongate main body, wherein the stirrer portion is configured to enable a liquid to be stirred by the stirrer portion, and wherein the main body is configured to at least partially disintegrate upon contact with a liquid including water; characterised in that : both the stirrer portion and the ingredient dispensing portion are configured to disintegrate in a liquid including water.
- A device for reserving pipe passages when pouring a wall into a formwork, including at least one module comprising a tubular ring having a longitudinal axis ( X ) and supported externally by an anchoring support extending outwardly and transversely to the axis of the tubular ring, having two transverse faces oriented along the longitudinal axis, the support including a frame with at least four sides , punctually connected with the outside of the tubular ring that is secured to the frame by a perforated connecting structure having a series of spaces together defining the opening that opens on both sides of the support along its faces , to ensure the passage of the casting material, the support including support feet extending in the extension of the frame from one of the faces of the frame, the tubular ring being provided with an assembly system providing a removable connection between the support and a sleeve including two opposite ends , the device including the sleeve and the tubular ring being provided as assembly system , with an inner surface for the interlocking of the sleeve mounted inside the tubular ring to be able to be removed from the support after the support has been anchored in the wall, the sleeve extending along the longitudinal axis over a length at least equal to the thickness of the support with one of the ends extending in a plane coinciding with the transverse face of the support containing the end of the support feet and the other end of which extends in a plane protruding relative to the opposite transverse face .
A permanent-magnet piston subassembly for a pipetting apparatus, the piston subassembly extending along a piston axis (K) and comprising a plurality of permanent-magnet arrangements (14a to 14m) that are arranged one behind another along the piston axis (K) with alternatingly opposite polarization directions in such a way that for each two permanent-magnet arrangements directly successive along the piston axis, it is the case that magnetic poles located closest to one another along the piston axis (K), of different successive permanent-magnetic arrangements (14a to 14m), are like poles, wherein the piston subassembly encompasses a sheath tube , extending along the piston axis (K) constituting a tube axis (H), in which the plurality of permanent-magnet arrangements (14a to 14m) are received, characterized in that a soft-magnetic separating body is arranged between two permanent-magnet arrangements (14a to 14m) directly successive along the piston axis (K).
An apparatus , said apparatus is an application-specific integrated circuit-apparatus, comprising: a network of matrix processing units , MPUs, wherein each MPU is connected to at least one other MPU in the network, and each MPU is to perform matrix multiplication operations ; a memory (830a-i) to store tensor data; and a master control central processing unit , MCC, to: receive an instruction from a host device, wherein the instruction comprises one or more tensor operands based on the tensor data; invoke a set of operations on one or more of the MPUs based on the instruction, wherein the set of operations comprises operations on the tensor operands; and output a result of the set of operations, wherein the result comprises a tensor value; characterized in that the each MPU comprises of a pre- and post-arithmetic operation and a matrix-wide operation , wherein the pre- and post-arithmetic operations are performed before on input tensor data prior to matrix multiplication and after on output data post-matrix multiplication and wherein the matrix-wide operation provides to process data among the elements of a single tensor data a network of matrix processing units , MPUs, wherein each MPU is connected to at least one other MPU in the network, and each MPU is to perform matrix multiplication operations ; a memory (830a-i) to store tensor data; and a master control central processing unit , MCC, to: receive an instruction from a host device, wherein the instruction comprises one or more tensor operands based on the tensor data; invoke a set of operations on one or more of the MPUs based on the instruction, wherein the set of operations comprises operations on the tensor operands; and output a result of the set of operations, wherein the result comprises a tensor value; receive an instruction from a host device, wherein the instruction comprises one or more tensor operands based on the tensor data; invoke a set of operations on one or more of the MPUs based on the instruction, wherein the set of operations comprises operations on the tensor operands; and output a result of the set of operations, wherein the result comprises a tensor value; a pre- and post-arithmetic operation and a matrix-wide operation ,
A method of generating a radiation therapy treatment plan for a volume of a patient to be treated, comprising the following steps performed in a computer: - obtaining at least one reference dose function designed to result in a reference dose distribution, said reference dose distribution being an acceptable dose distribution for the volume, said reference dose function being designed to minimize the difference between a resulting dose distribution and the reference dose distribution, - defining a multi-criteria optimization problem including the at least one reference dose function as at least one optimization function, - performing at least two optimization procedures based on the multi-criteria optimization problem to generate a set of at least two possible treatment plans, - obtaining a treatment plan to be used for treating the patient, based on the set of possible treatment plans. - obtaining at least one reference dose function designed to result in a reference dose distribution, said reference dose distribution being an acceptable dose distribution for the volume, said reference dose function being designed to minimize the difference between a resulting dose distribution and the reference dose distribution, - defining a multi-criteria optimization problem including the at least one reference dose function as at least one optimization function, - performing at least two optimization procedures based on the multi-criteria optimization problem to generate a set of at least two possible treatment plans, - obtaining a treatment plan to be used for treating the patient, based on the set of possible treatment plans.
A method of producing ammonium persulfate by electrolyzing ammonium sulfate is characterized in that , in an electrolyzer which is separated into an anode chamber and a cathode chamber by a cation exchange membrane, an ammonium sulfate aqueous solution is supplied as an anode-side feedstock, a solution containing less than 1.0 mol of acid-derived acid dissociable hydrogen ions per 1.0 mol of amount of charge transfer, which solution is an ammonium sulfate aqueous solution, is supplied as a cathode-side feedstock, and electrolysis is performed to produce ammonium persulfate on the anode side and at least ammonia on the cathode side.
Method for processing plastic preforms and/or plastic containers with at least one first processing device , which processes the plastic containers in a first predetermined manner, and with at least one second processing device , which processes the plastic containers in a second predetermined manner and which is connected upstream or downstream of the first processing device , wherein the plastic containers are transported by means of a transport device from one processing device to the other processing device and the at least first processing device and the at least second processing device are coupled to one another, wherein the first processing device is a blow moulding machine for transforming plastic preforms into plastic containers and the process speed of the blow moulding machine is specified by a formula which contains several process parameters which are characteristic for the transforming process, characterised in that by means of at least two key formulas the process parameters associated with at least one further process speed are determined at least partially, so that an adjustment of the process speed of the blow moulding machine to a speed of at least one further processing device is enabled and/or a setting of the speed is possible.
A surgical tool, comprising: a shaft ; a closure yoke ; opposing jaws ; and an unclamp lockout mechanism , comprising: a pawl rotatably mounted to the shaft of the surgical tool and positioned proximal to the closure yoke, the closure yoke being operatively coupled to the shaft, wherein the pawl is pivotable between a stowed position, where the pawl is received within an aperture defined in the shaft, and a deployed position, where the pawl protrudes out of the aperture; and a biasing device that biases the pawl into the aperture and toward the stowed position, wherein, when the pawl is in the stowed position, the closure yoke is movable to a proximal position over at least a portion of the pawl to open the opposing jaws, and wherein, when the pawl is in the deployed position, the closure yoke is prevented from moving to the proximal position. a shaft ; a closure yoke ; opposing jaws ; and an unclamp lockout mechanism , comprising: a pawl rotatably mounted to the shaft of the surgical tool and positioned proximal to the closure yoke, the closure yoke being operatively coupled to the shaft, wherein the pawl is pivotable between a stowed position, where the pawl is received within an aperture defined in the shaft, and a deployed position, where the pawl protrudes out of the aperture; and a biasing device that biases the pawl into the aperture and toward the stowed position, wherein, when the pawl is in the stowed position, the closure yoke is movable to a proximal position over at least a portion of the pawl to open the opposing jaws, and wherein, when the pawl is in the deployed position, the closure yoke is prevented from moving to the proximal position. a pawl rotatably mounted to the shaft of the surgical tool and positioned proximal to the closure yoke, the closure yoke being operatively coupled to the shaft, wherein the pawl is pivotable between a stowed position, where the pawl is received within an aperture defined in the shaft, and a deployed position, where the pawl protrudes out of the aperture; and a biasing device that biases the pawl into the aperture and toward the stowed position, wherein, when the pawl is in the stowed position, the closure yoke is movable to a proximal position over at least a portion of the pawl to open the opposing jaws, and wherein, when the pawl is in the deployed position, the closure yoke is prevented from moving to the proximal position.