mhurhangee/ep-ind-claims huggingface dataset:
A housing for installing sockets, which is produced in one piece from plastic, comprising a receiving space formed at least partly by walls (12, 14), wherein a break-out element (18; 18') closing an opening is provided in at least one of the walls (12, 14), which break-out element (18; 18') is at least partly cut free with respect to the wall and is connected to the wall by means of at least one web (20 - 22; 22') which is provided between the outer contour of the break-out element (18; 18') and the margin of the opening, characterized in that the margin of the opening has a concavely curved bulge (30; 30") in the region of the web (20 - 22; 22'), in which bulge the web is fastened, in that the web (20 - 22; 22') has a reduced cross-section exclusively in the bulge (30; 30"), and in that the web (20 - 22; 22') in the bulge (30; 30") extends obliquely to the plane of the wall surrounding the bulge (30; 30"). in that the web (20 - 22; 22') has a reduced cross-section exclusively in the bulge (30; 30"), and in that the web (20 - 22; 22') in the bulge (30; 30") extends obliquely to the plane of the wall surrounding the bulge (30; 30").
A penetration monitoring system for a subterranean drill bit, comprising: an interface configured to receive penetration data from a drill bit operating within a borehole; and a monitoring processor configured to generate drilling parameters for the drill bit based on the penetration data, wherein the processor is configured to determine penetration progress from the penetration data, characterised in that the penetration progress is provided as a thickness of a ledge created by the penetration of the drill bit in the sidewall of the borehole. an interface configured to receive penetration data from a drill bit operating within a borehole; and a monitoring processor configured to generate drilling parameters for the drill bit based on the penetration data, wherein the processor is configured to determine penetration progress from the penetration data, characterised in that the penetration progress is provided as a thickness of a ledge created by the penetration of the drill bit in the sidewall of the borehole.
A copper alloy having a basic alloy composition represented by Cu 100 - (x+y) Sn x Mn y (where 10 ≤ x ≤ 16 and 2 ≤ y ≤ 10 are satisfied), wherein a main phase is a βCuSn phase with Mn dissolved therein, and the βCuSn phase undergoes martensitic transformation when heat-treated or worked.
A contactless or tactile measuring system comprising a measuring instrument with a multi-purpose interface base for receiving and connecting the measuring instrument, wherein the multi-purpose interface base comprises the following features: - at least one mechanical stop corresponding to a counter stop on the measuring instrument for receiving and repeatedly accurately placing the measuring instrument on the multi-purpose interface base, - two second signal transfer points (320a, 320b) corresponding to first signal transfer points (50a, 50b) on the measuring device, which second signal transfer points (320a, 320b) have two contact locations each with a plurality of electrical and/or optical fibre contacts (a, b, c), characterised in that the mechanical stop is configured to connect the measuring device to the multi-purpose interface base in two different orientations rotated by 180°; wherein the two contact points are spaced apart from each other, and the plurality of contacts (a, b, c) of the one contact location are arranged point-symmetrically with respect to a center between the two contact locations relative to the plurality of contacts (a, b, c) of the other contact location; and - at least one second fluid transfer location on the multi-purpose interface base corresponding to a first fluid transfer location on the measuring device is arranged in the center between the two contact locations. - at least one mechanical stop corresponding to a counter stop on the measuring instrument for receiving and repeatedly accurately placing the measuring instrument on the multi-purpose interface base, - two second signal transfer points (320a, 320b) corresponding to first signal transfer points (50a, 50b) on the measuring device, which second signal transfer points (320a, 320b) have two contact locations each with a plurality of electrical and/or optical fibre contacts (a, b, c), characterised in that the mechanical stop is configured to connect the measuring device to the multi-purpose interface base in two different orientations rotated by 180°; wherein the two contact points are spaced apart from each other, and the plurality of contacts (a, b, c) of the one contact location are arranged point-symmetrically with respect to a center between the two contact locations relative to the plurality of contacts (a, b, c) of the other contact location; and the mechanical stop is configured to connect the measuring device to the multi-purpose interface base in two different orientations rotated by 180°; wherein the two contact points are spaced apart from each other, and the plurality of contacts (a, b, c) of the one contact location are arranged point-symmetrically with respect to a center between the two contact locations relative to the plurality of contacts (a, b, c) of the other contact location; and - at least one second fluid transfer location on the multi-purpose interface base corresponding to a first fluid transfer location on the measuring device is arranged in the center between the two contact locations.
A printing device for printing onto substrates, in particular solar cells, wafers or printed circuit boards, comprising a squeegee means and comprising at least one printing table, wherein the squeegee means is arranged above the printing table, and comprising at least one conveying means (3,4,5), by means of which a substrate can be transported away in each case to a printing nest below the squeegee means and out of the printing nest after the printing process has taken place, wherein the printing table has several conveying means (3,4,5), which are arranged side by side and aligned parallel to one another and which each have at least one printing nest, wherein the squeegee means has a single printing screen, which extends over all printing nests and which has a printing pattern for each printing nest, and wherein the squeegee means has at least one squeegee, which can be moved over each printing nest in order to print successively onto the substrates, which are arranged in the printing nests, wherein at least one sensor means for detecting the position and/or alignment of a substrate arranged on the respective printing nest is assigned or can be assigned to each printing nest, wherein at least one controllable adjusting means for aligning and/or positioning the respective substrate and the printing screen to one another is assigned to the printing table and/or the squeegee means, and wherein a correcting of the alignment and/or position of the respective substrate and of the printing screen to one another takes place in that period of time, in which the squeegee is moved from a substrate, which was printed onto previously, to a substrate, which is to be printed onto.
A cooling system for a fuel cell, including a computer managing the cooling system and a main heat-transfer-fluid circuit comprising a circulation pump and a heat exchanger with the exterior, which feed an upstream pipe supplying this fluid to the cells of the fuel cell, said fluid leaving the cells via a downstream pipe in order to return to the main circulation pump, the main circuit comprising a three-port controlled valve (10, 16) on each upstream and downstream pipe, the third available port of the upstream pipe being connected to the inlet of the pump and the third available port of the downstream pipe being connected to the outlet of the pump in order to establish a secondary fluid circuit, the upstream pipe and the downstream pipe each comprising a temperature sensor (18, 20) which is disposed close to the connection with the cells, characterized in that the computer is configured to vary, as a function of operating parameters of the fuel cell, the frequency of the alternations of simultaneous switching of the two three-port valves (10, 16), to establish the secondary circuit or to re-establish the main circuit, with an elevated frequency at the starting of the cell to minimize the mass of fluid to be heated with the exterior, then a low frequency of alternation to limit too great an elevation of the heated fluid.
An electric heater or auxiliary heater, in particular for a heating system or an air-conditioner of a vehicle, having at least one heating element formed by a PTC element which serves to heat a medium flowing through at least one air duct formed in the heating element, wherein the PTC element is in electrical contact via contact plates in two opposing edge areas arranged perpendicular or substantially perpendicular to the flow direction of the medium in order to introduce or remove power, wherein the heating element is arranged between two contact plates, wherein means for holding the heating element are formed on the contact plate and/or means for holding the contact plate are formed on the heating element, characterised in that the means for holding the heating element are formed by resilient tongues which lie against an outer web of the heating element projecting through an opening in the contact plate on at least one side.
One or more computer-readable media having computer-executable instructions embodied thereon that, when executed by a computing system having a processor and memory, cause the computing system to perform a method for providing a language model adapted to a session context based on user history, the method comprising: receiving usage history information comprising one or more sequences of user-interaction events; for each event in the one or more sequences, determining a likely user intent corresponding to the event; based on the likely user intents determined for each event, determining a set of intent transition probabilities; and utilizing the set of intent transition probabilities to generate a language model personalized for the user. receiving usage history information comprising one or more sequences of user-interaction events; for each event in the one or more sequences, determining a likely user intent corresponding to the event; based on the likely user intents determined for each event, determining a set of intent transition probabilities; and utilizing the set of intent transition probabilities to generate a language model personalized for the user.
Tyre tread that comprises a rubber composition based on at least: - an elastomer matrix comprising more than 50 wt% of a first diene elastomer bearing a silanol function and a pendent amine function, - a silica in an amount comprised between 120 and 140 phr; - a coupling agent; - a plasticizer system comprising: - according to a content A ranging from 5 to 60 phr, a hydrocarbon-containing resin having a Tg above 20°C; - according to a content B ranging from 0 to 60 phr, a liquid plasticizer; - it being understood that the total level A+B is at least equal to 60 phr, preferably ranging from 60 to 90 phr. - an elastomer matrix comprising more than 50 wt% of a first diene elastomer bearing a silanol function and a pendent amine function, - a silica in an amount comprised between 120 and 140 phr; - a coupling agent; - a plasticizer system comprising: - according to a content A ranging from 5 to 60 phr, a hydrocarbon-containing resin having a Tg above 20°C; - according to a content B ranging from 0 to 60 phr, a liquid plasticizer; - it being understood that the total level A+B is at least equal to 60 phr, preferably ranging from 60 to 90 phr. - according to a content A ranging from 5 to 60 phr, a hydrocarbon-containing resin having a Tg above 20°C; - according to a content B ranging from 0 to 60 phr, a liquid plasticizer; - it being understood that the total level A+B is at least equal to 60 phr, preferably ranging from 60 to 90 phr.
A process for preparing an aerated food composition having inclusions dispersed therein, the process comprising the steps of: a) providing an apparatus for dosing edible inclusions, the apparatus comprising a positive-displacement pump and the apparatus is capable of operating under pressure; b) feeding inclusions into the positive-displacement pump; c) feeding fluid aerated food composition into the positive-displacement pump down-stream of the inclusions; and d) blending the inclusions with the fluid aerated food composition in the positive-displacement pump to form an aerated food composition having inclusions dispersed therein, wherein the fluid is aerated to between 1% and 20% of gas by volume and the aerated food composition comprising inclusions and wherein the aerated food composition is chocolate or chocolate compound, wherein said chocolate compound is a chocolate like analogue characterized by presence of cocoa solids. a) providing an apparatus for dosing edible inclusions, the apparatus comprising a positive-displacement pump and the apparatus is capable of operating under pressure; b) feeding inclusions into the positive-displacement pump; c) feeding fluid aerated food composition into the positive-displacement pump down-stream of the inclusions; and d) blending the inclusions with the fluid aerated food composition in the positive-displacement pump to form an aerated food composition having inclusions dispersed therein, wherein the fluid is aerated to between 1% and 20% of gas by volume and the aerated food composition comprising inclusions and wherein the aerated food composition is chocolate or chocolate compound, wherein said chocolate compound is a chocolate like analogue characterized by presence of cocoa solids.
Method for controlling a device, in which a control command for controlling the device is generated via a power actuator operated by a user, wherein a control unit of the device controls at least one actuator in such a way that at a predetermined travel point of the power actuator the at least one actuator provides the user with feedback about at least one condition of the device at the power actuator, and wherein the control unit further controls the at least one actuator in such a way that the at least one actuator, in the event of a change in the predetermined travel point of the power actuator to a changed travel point lying before the predetermined travel point in the deflection direction of the power actuator, displaces the power actuator to a set travel point lying before the changed travel point in the deflection direction of the power actuator, so that, when the power actuator is displaced in the deflection direction, the feedback about the at least one condition is provided to the user at the changed travel point when the power actuator reaches the changed travel point on its travel in the deflection direction, characterised in that a function for providing the feedback to the user at the changed travel point is activated only after the power actuator has been displaced to the set point.
A method of producing a human pancreas scaffold comprising (i) mechanically damaging the cells in healthy or pathological human pancreas tissue comprising a whole pancreas or a functional unit thereof, (ii) subjecting the cells in the tissue to osmotic stress by exposing the tissue to a hypotonic reagent or hypertonic reagent, (iii) optionally exposing the tissue to a protease and/or DNAase, (iv) exposing the tissue to a detergent, and (v) repeating each of step (ii), step (iii) and step (iv) one or more times in any order, thereby producing a human pancreas scaffold, wherein the human pancreas tissue is subjected to flow shear stress generated by perfusing the human pancreatic tissue in a retrograde direction during steps (ii) to (v) at a rate which is progressively increased to a maximum value over two or more repeats of steps (ii) to (iv) and then maintained. (i) mechanically damaging the cells in healthy or pathological human pancreas tissue comprising a whole pancreas or a functional unit thereof, (ii) subjecting the cells in the tissue to osmotic stress by exposing the tissue to a hypotonic reagent or hypertonic reagent, (iii) optionally exposing the tissue to a protease and/or DNAase, (iv) exposing the tissue to a detergent, and (v) repeating each of step (ii), step (iii) and step (iv) one or more times in any order, thereby producing a human pancreas scaffold, wherein the human pancreas tissue is subjected to flow shear stress generated by perfusing the human pancreatic tissue in a retrograde direction during steps (ii) to (v) at a rate which is progressively increased to a maximum value over two or more repeats of steps (ii) to (iv) and then maintained. thereby producing a human pancreas scaffold, wherein the human pancreas tissue is subjected to flow shear stress generated by perfusing the human pancreatic tissue in a retrograde direction during steps (ii) to (v) at a rate which is progressively increased to a maximum value over two or more repeats of steps (ii) to (iv) and then maintained.
Leak sealing device for sealing a leak in a container, tank and/or pipe (40, 49) comprising - a housing-like carrier unit, - at least one expandable leakage sealing means provided at one end region of the carrier unit, which in its storage position is located completely within the carrier unit and is not or only slightly expanded, and at least one fluid connection and/or at least one fluid discharge unit, which is coupled to the carrier unit in such a way that, when fluid is supplied, the leakage sealing means is at least partially filled with the fluid and expands in its sealing position, in which the leakage sealing means is located at least partially outside the carrier unit for sealing the leakage, the leakage sealing means being mounted movably between the storage position and the sealing position, wherein a longitudinally movably mounted piston unit (5, 9) is provided in the carrier unit, and the leakage sealing means is coupled to the piston unit (5, 9) and/or the carrier unit and the at least one fluid connection and/or the at least one fluid discharge unit in such a way that, when fluid is supplied, the fluid drives the piston unit (5, 9) into the sealing position and at least partially fills the leakage sealing means via a fluid supply line. - a housing-like carrier unit, - at least one expandable leakage sealing means provided at one end region of the carrier unit, which in its storage position is located completely within the carrier unit and is not or only slightly expanded, and at least one fluid connection and/or at least one fluid discharge unit, which is coupled to the carrier unit in such a way that, when fluid is supplied, the leakage sealing means is at least partially filled with the fluid and expands in its sealing position, in which the leakage sealing means is located at least partially outside the carrier unit for sealing the leakage, the leakage sealing means being mounted movably between the storage position and the sealing position, wherein a longitudinally movably mounted piston unit (5, 9) is provided in the carrier unit, and the leakage sealing means is coupled to the piston unit (5, 9) and/or the carrier unit and the at least one fluid connection and/or the at least one fluid discharge unit in such a way that, when fluid is supplied, the fluid drives the piston unit (5, 9) into the sealing position and at least partially fills the leakage sealing means via a fluid supply line.
Method for partially hardening a semifinished product consisting of a hardenable steel in a mold, the semifinished product having the cross-sectional form of an open or closed profile and being placed into the opened mold, wherein the method has the following steps: - heating at least one region to be hardened of the semifinished product to a temperature above the Ac 1 temperature of the material of the semifinished product, - placing the at least locally heated semifinished product into a mold, - closing the mold and bringing up at least one active mold cooling element close to at least one region to be hardened of the semifinished product, - cooling at least the at least one region to be hardened of the semifinished product at a defined cooling rate, so that a hardened microstructure is produced in the cooled regions, characterized in that the semifinished product has at least one edge and at least partially the edge radius of the at least one edge of the semifinished product is hardened. - heating at least one region to be hardened of the semifinished product to a temperature above the Ac 1 temperature of the material of the semifinished product, - placing the at least locally heated semifinished product into a mold, - closing the mold and bringing up at least one active mold cooling element close to at least one region to be hardened of the semifinished product, - cooling at least the at least one region to be hardened of the semifinished product at a defined cooling rate, so that a hardened microstructure is produced in the cooled regions,
A method of forming at least one increased permeability plane (22, 24, 90, 92) in a subterranean formation, the method comprising the steps of: installing a casing section in a wellbore intersecting the formation; positioning a hardenable fluid in an annulus between the casing section and the wellbore; permitting the hardenable fluid to harden; expanding the casing section radially outward via at least one piston (62, 64, 66, 68), thereby applying radially directed increased compressive stresses (88a, 88b, 88c, 88d) to at least two circumferential portions of the wellbore (18a, 18b, 18c, 18d) and forming at least one longitudinally extended opening (20, 86) through a sidewall of the casing section between the circumferential portions (18a, 18b, 18c, 18d); and then injecting a first fluid into the formation, thereby propagating the at least one increased permeability plane between the at least two circumferential portions of the wellbore (18a, 18b, 18c, 18d), the injecting step being performed after the expanding step is completed. installing a casing section in a wellbore intersecting the formation; positioning a hardenable fluid in an annulus between the casing section and the wellbore; permitting the hardenable fluid to harden; expanding the casing section radially outward via at least one piston (62, 64, 66, 68), thereby applying radially directed increased compressive stresses (88a, 88b, 88c, 88d) to at least two circumferential portions of the wellbore (18a, 18b, 18c, 18d) and forming at least one longitudinally extended opening (20, 86) through a sidewall of the casing section between the circumferential portions (18a, 18b, 18c, 18d); and then injecting a first fluid into the formation, thereby propagating the at least one increased permeability plane between the at least two circumferential portions of the wellbore (18a, 18b, 18c, 18d), the injecting step being performed after the expanding step is completed.
A drying device for drying coated elongate workpieces in a continuous process, comprising a transport device for in particular continuously transporting workpieces, a heat source for generating drying heat in a drying zone, an airflow generating means (28, 42) for extracting drying steam from the and/or supplying humidity to the drying zone via an airflow, and a control means for controlling the air quantity supplied to and/or discharged from the drying zone by the airflow generating means (28, 42), wherein the drying zone is arranged in a drying chamber, wherein the transport device is arranged completely outside the drying chamber, wherein the drying chamber comprises a chamber wall, characterized in that the chamber wall comprising a slit-shaped opening extending in the transport direction such that the portion to be dried of the workpiece can project through the slit-shaped opening.