mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a shell catalyst, comprising the following steps: (a) introducing a support body comprising an Si-Al mixed oxide into a coating device; (b) applying a Pd precursor compound and an Au precursor compound, in each case in dissolved form, to the support body by spray coating in the coating device; (c) drying the support body coated with the precursor compounds in the coating device; (d) reducing the metal components of the precursor compounds to the elemental metals in the coating device; and (e) removing the support body from the coating device, wherein the support body remains in the coating device between steps (a) and (e) and wherein an alkali acetate is applied to the support body before the application of the Pd precursor compound and Au precursor compound in step (b). (a) introducing a support body comprising an Si-Al mixed oxide into a coating device; (b) applying a Pd precursor compound and an Au precursor compound, in each case in dissolved form, to the support body by spray coating in the coating device; (c) drying the support body coated with the precursor compounds in the coating device; (d) reducing the metal components of the precursor compounds to the elemental metals in the coating device; and (e) removing the support body from the coating device,
A method of propagating a cannabis cutting, comprising the steps of: - providing a coherent growth substrate comprising man-made vitreous fibres (MMVF) bonded with a cured binder composition, wherein the growth substrate has a density in the range of 60 kg/m 3 to 70 kg/m 3; - inserting the cannabis cutting into the growth substrate at a location where the growth substrate does not have a seed hole; - providing a nutrient solution having an electrical conductivity value between 1.6 and 2.4 mS/cm to the cannabis cutting in the growth substrate. - providing a coherent growth substrate comprising man-made vitreous fibres (MMVF) bonded with a cured binder composition, wherein the growth substrate has a density in the range of 60 kg/m 3 to 70 kg/m 3; - inserting the cannabis cutting into the growth substrate at a location where the growth substrate does not have a seed hole; - providing a nutrient solution having an electrical conductivity value between 1.6 and 2.4 mS/cm to the cannabis cutting in the growth substrate.
An electronic device comprising: a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; a camera module including one or more lenses and disposed in the opening and configured to rotate relative to the sliding part; a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part; a cleek disposed on an inner surface of the housing; and a controller configured to control a movement of the sliding part; wherein the camera module includes a pinion gear corresponding to the rack gear, wherein the one or more lenses faces a first direction, when the sliding part is at a first position inside the housing; wherein the one or more lenses faces a second direction opposite to the first direction, when the sliding part is in a second position so that the sliding part further protrudes beyond an upper portion of the housing; wherein the camera module linearly moves in a first section between the first position and the second position, and the camera module linearly moves and rotates in a second section different from the first section between the first position and the second position by rotation of the pinion gear on the rack gear after the rack gear is fixed by the cleek, wherein the controller is configured to: move the camera module from the first position to the second position in response to a user input related to a movement of the camera module. a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; a camera module including one or more lenses and disposed in the opening and configured to rotate relative to the sliding part; a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part; a cleek disposed on an inner surface of the housing; and a controller configured to control a movement of the sliding part; wherein the camera module includes a pinion gear corresponding to the rack gear, wherein the one or more lenses faces a first direction, when the sliding part is at a first position inside the housing; wherein the one or more lenses faces a second direction opposite to the first direction, when the sliding part is in a second position so that the sliding part further protrudes beyond an upper portion of the housing; wherein the camera module linearly moves in a first section between the first position and the second position, and the camera module linearly moves and rotates in a second section different from the first section between the first position and the second position by rotation of the pinion gear on the rack gear after the rack gear is fixed by the cleek, wherein the controller is configured to: move the camera module from the first position to the second position in response to a user input related to a movement of the camera module.
Coupling element for a coupling for connecting pressure medium lines comprising a housing, a flow channel for a pressure medium, a valve tappet, a pressure sleeve and an inner body, wherein the housing has a coupling axis A, wherein the valve tappet is held in the housing in such a manner that the valve tappet is arranged in the flow channel, wherein the valve tappet has a valve tappet head, wherein the pressure sleeve surrounds the valve tappet, wherein the pressure sleeve is held displaceably along the coupling axis A between a closing position, in which the flow channel is closed by the pressure sleeve and an open position, in which the flow channel is opened by the pressure sleeve, wherein the pressure sleeve in its closing position directly rests against the valve tappet head, whereby a force acts parallel to the coupling axis A from the pressure sleeve on the valve tappet head, wherein the inner body and the pressure sleeve comprise means, by means of which the force acting from the pressure sleeve on the valve tappet head can be limited, wherein the means on the inner body is designed as a first stop area and the means on the pressure sleeve is designed as a second stop area, wherein the first stop area and the second stop area cooperate to limit the force, wherein the housing has a connecting part, which is screwed to a sleeve-like base body, which simultaneously fixes the inner body to the connecting part, so that the inner body, within which the pressure sleeve is guided, is braced between base body and connecting part, wherein between inner body and the connecting part a seal is arranged, characterised in that the valve tappet head has a sealing surface, which is inclined by an angle (α) of 0° to the coupling axis A, so that the sealing surface is oriented parallel to the coupling axis A and wherein the pressure sleeve has a counter sealing surface, which is inclined by an angle (β) to the coupling axis A, wherein the counter sealing surface in the closing position of the pressure sleeve at least partially rests against the sealing surface, wherein the angle (β) is between 30° and 45°, so that the counter sealing surface rests against an edge of the sealing surface.
A memory device for storing data, comprising: an input/output, I/O, interface circuit to exchange data with an associated host controller; a delay locked loop, DLL, circuit coupled to control I/O timing of the I/O interface; a mode register to store a calibration mode setting to indicate one of multiple DLL calibration modes; and a control circuit to selectively enable DLL calibration for the DLL circuit, and when selectively enabled, the control circuit is to select from among the multiple calibration modes stored in the mode register, including: a first calibration mode to perform DLL calibration operation connected to impedance calibration, ZQCal, operation, wherein when ZQCal operations occur, the memory device also performs DLL calibration; a second calibration mode to perform continuous DLL calibration during active and idle modes, and to turn the DLL off during low power modes; a third calibration mode to perform continuous DLL calibration during active modes, idle modes, and low power modes; and a fourth calibration mode to perform calibration of the DLL circuit only in response to a command received from the associated host controller. an input/output, I/O, interface circuit to exchange data with an associated host controller; a delay locked loop, DLL, circuit coupled to control I/O timing of the I/O interface; a mode register to store a calibration mode setting to indicate one of multiple DLL calibration modes; and a control circuit to selectively enable DLL calibration for the DLL circuit, and when selectively enabled, the control circuit is to select from among the multiple calibration modes stored in the mode register, including: a first calibration mode to perform DLL calibration operation connected to impedance calibration, ZQCal, operation, wherein when ZQCal operations occur, the memory device also performs DLL calibration; a second calibration mode to perform continuous DLL calibration during active and idle modes, and to turn the DLL off during low power modes; a third calibration mode to perform continuous DLL calibration during active modes, idle modes, and low power modes; and a fourth calibration mode to perform calibration of the DLL circuit only in response to a command received from the associated host controller. a first calibration mode to perform DLL calibration operation connected to impedance calibration, ZQCal, operation, wherein when ZQCal operations occur, the memory device also performs DLL calibration; a second calibration mode to perform continuous DLL calibration during active and idle modes, and to turn the DLL off during low power modes; a third calibration mode to perform continuous DLL calibration during active modes, idle modes, and low power modes; and a fourth calibration mode to perform calibration of the DLL circuit only in response to a command received from the associated host controller.
A computer-implemented method for manipulating at least one three-dimensionally modelled object (O1, N1) in a three-dimensional scene displayed on a computer display, the method comprising the steps of: a) displaying, in the three-dimensional scene, a cursor controlled by a pointing device, the cursor having a shape representing three axes (X, Y, Z) of a coordinate system; b) when no object of the scene has been explicitly selected, automatically implicitly selecting an object (O1, N1) of the three-dimensional scene which is closest to the cursor, by setting the focus on said object; c) detecting a drag operation performed by a user using said pointing device, said drag operation comprising a translation of the cursor while a different specific action is performed using the pointing device, and selecting an axis of the coordinate system as a function of said translation of the cursor; and d) performing a manipulation of the implicitly selected object, said manipulation depending on the selected axis and by a length of the translation of the cursor along the selected axis. a) displaying, in the three-dimensional scene, a cursor controlled by a pointing device, the cursor having a shape representing three axes (X, Y, Z) of a coordinate system; b) when no object of the scene has been explicitly selected, automatically implicitly selecting an object (O1, N1) of the three-dimensional scene which is closest to the cursor, by setting the focus on said object; c) detecting a drag operation performed by a user using said pointing device, said drag operation comprising a translation of the cursor while a different specific action is performed using the pointing device, and selecting an axis of the coordinate system as a function of said translation of the cursor; and d) performing a manipulation of the implicitly selected object, said manipulation depending on the selected axis and by a length of the translation of the cursor along the selected axis.
A display apparatus, comprising: a display panel including a curved portion (BA1, BA2) connected to a flat portion; a buffer overlapping the flat portion and having a first thickness; and a curved buffer on a same layer as the buffer and overlapping the curved portion (BA1, BA2); characterized in that the curved buffer has a second thickness that is greater than the first thickness, and the display apparatus further comprises: a heat discharge layer facing the display panel, wherein the buffer is between the heat discharge layer and the display panel, and wherein the heat discharge layer overlaps the flat portion and does not overlap the curved portion (BA1, BA2). a display panel including a curved portion (BA1, BA2) connected to a flat portion; a buffer overlapping the flat portion and having a first thickness; and a curved buffer on a same layer as the buffer and overlapping the curved portion (BA1, BA2);
An electric power tool comprising: a motor configured to rotationally drive an output shaft on which a tool can be removably mounted; an operation unit configured to be externally operated so as to enter a drive command that is used to operate the motor; a control parameter setting unit that is adapted to set, as a control parameter of the motor, an optimum maximum rotational speed of the motor corresponding to a predetermined set torque or a control amount corresponding to the optimum maximum rotational speed; and a control unit configured to drive the motor in response to an operation amount of the operation unit, and to control a rotational speed of the motor at or smaller than the optimum maximum rotational speed based upon the control parameter set by the control parameter setting unit, wherein the control parameter setting unit is adapted to determine, as the optimum maximum rotational speed, a rotational speed of the motor that rotates with a rotational energy required to rotate the output shaft at the set torque, and is adapted to set the optimum maximum rotational speed as the control parameter. a motor configured to rotationally drive an output shaft on which a tool can be removably mounted; an operation unit configured to be externally operated so as to enter a drive command that is used to operate the motor; a control parameter setting unit that is adapted to set, as a control parameter of the motor, an optimum maximum rotational speed of the motor corresponding to a predetermined set torque or a control amount corresponding to the optimum maximum rotational speed; and a control unit configured to drive the motor in response to an operation amount of the operation unit, and to control a rotational speed of the motor at or smaller than the optimum maximum rotational speed based upon the control parameter set by the control parameter setting unit, wherein the control parameter setting unit is adapted to determine, as the optimum maximum rotational speed, a rotational speed of the motor that rotates with a rotational energy required to rotate the output shaft at the set torque, and is adapted to set the optimum maximum rotational speed as the control parameter.
Leak detector for detecting leaks in an object to be tested by detecting a tracer gas, the leak detector comprising: - a gas inlet, - a pumping device, - a pumping duct connecting the gas inlet to the pumping device, - a tracer gas detection device mounted on the pumping duct, bypassing the pumping device, the tracer gas detection device comprising: • a probe configured to ionize the gas molecules and measure the current of ionized gas molecules, and • a separating membrane arranged upstream of the probe, - characterized in that the separating membrane is a monatomic graphene layer deposited on a gas-permeable substrate of the tracer gas detection device, selection orifices having a largest dimension of less than 5 Å being created in the monatomic graphene layer such that only gas molecules having dimensions smaller than the selection orifices can pass through the separating membrane to reach the probe. - a gas inlet, - a pumping device, - a pumping duct connecting the gas inlet to the pumping device, - a tracer gas detection device mounted on the pumping duct, bypassing the pumping device, the tracer gas detection device comprising: • a probe configured to ionize the gas molecules and measure the current of ionized gas molecules, and • a separating membrane arranged upstream of the probe, • a probe configured to ionize the gas molecules and measure the current of ionized gas molecules, and • a separating membrane arranged upstream of the probe, - characterized in that the separating membrane is a monatomic graphene layer deposited on a gas-permeable substrate of the tracer gas detection device, selection orifices having a largest dimension of less than 5 Å being created in the monatomic graphene layer such that only gas molecules having dimensions smaller than the selection orifices can pass through the separating membrane to reach the probe.
Hot melt adhesive composition comprising: A- from 5% by weight of at least one thermoplastic polymer chosen from polyolefins, styrene block copolymers, ethylene-vinyl-acetate, and mixture thereof; B- from 20% to 70% by weight of at least one tackifying resin; C- from 0.01% to 1% by weight of at least one aldehyde scavenger having a molar weight lower than 500 g/mol and a melting point below 170°C and comprising in its structure an aromatic ring directly or indirectly bonded to at least one amine terminated group, D- from 5% to 35% by weight of at least one plasticizer chosen from naphthenic oils, paraffinic oils, and mixture thereof; the total content of the above mentioned ingredients totaling 100% by weight. A- from 5% by weight of at least one thermoplastic polymer chosen from polyolefins, styrene block copolymers, ethylene-vinyl-acetate, and mixture thereof; B- from 20% to 70% by weight of at least one tackifying resin; C- from 0.01% to 1% by weight of at least one aldehyde scavenger having a molar weight lower than 500 g/mol and a melting point below 170°C and comprising in its structure an aromatic ring directly or indirectly bonded to at least one amine terminated group, D- from 5% to 35% by weight of at least one plasticizer chosen from naphthenic oils, paraffinic oils, and mixture thereof;
A jaw assembly comprising: a first jaw (38, 70, 76, 82, 88) having a first pivot section comprising two spaced first ears (64, 64') having pivot pin holes (60, 62) through the ears (64, 64'); a second jaw (38, 70, 76, 82, 88) having a second pivot section comprising at least one second ear (64, 64', 92) having a pivot pin hole (60, 62) through the at least one second ear (64, 64', 92); and a pivot pin located in the pivot pin holes (60, 62) to pivotably mount the first and second jaws (38, 70, 76, 82, 88, 90) to each other, wherein at least one of the pivot sections comprises a laterally outward extending guide surface (66, 78, 84, 94) on an exterior facing side which is configured to guide alignment of the ears (64, 64', 92) relative to each other to thereby align the pivot pin holes (60, 62) with each other, and wherein the first and second jaws (38, 70, 76, 82, 88) each comprise a rear end with a roller contact surface configured to be located on rollers of a roller assembly of a crimping tool. a first jaw (38, 70, 76, 82, 88) having a first pivot section comprising two spaced first ears (64, 64') having pivot pin holes (60, 62) through the ears (64, 64'); a second jaw (38, 70, 76, 82, 88) having a second pivot section comprising at least one second ear (64, 64', 92) having a pivot pin hole (60, 62) through the at least one second ear (64, 64', 92); and a pivot pin located in the pivot pin holes (60, 62) to pivotably mount the first and second jaws (38, 70, 76, 82, 88, 90) to each other,
A downhole tool, comprising: an outer tubular member having one or more screens coupled thereto; a packer coupled to the outer tubular member; a first sleeve coupled to the packer and adapted to move from a first position to a second position, the packer actuating into a set state when the first sleeve is moved to the second position, the packer isolating first and second portions of an annulus from one another when in the set state; a shunt tube coupled to the packer and providing a path of fluid communication from the first portion of the annulus, through the packer, and to the second portion of the annulus when the packer is in the set state; a shunt tube isolation valve coupled to the outer tubular member and the shunt tube; a second sleeve coupled to the shunt tube isolation valve and adapted to move from a first position to a second position, the shunt tube isolation valve blocking the path of fluid communication from the first portion of the annulus to the second portion of the annulus when the second sleeve is in the second position; an inner tubular member disposed radially-inward from the outer tubular member; a first shifting tool coupled to the inner tubular member and adapted to engage and move the first sleeve from the first position to the second position; and a second shifting tool coupled to the inner tubular member and adapted to engage and move the second sleeve from the first position to the second position. an outer tubular member having one or more screens coupled thereto; a packer coupled to the outer tubular member; a first sleeve coupled to the packer and adapted to move from a first position to a second position, the packer actuating into a set state when the first sleeve is moved to the second position, the packer isolating first and second portions of an annulus from one another when in the set state; a shunt tube coupled to the packer and providing a path of fluid communication from the first portion of the annulus, through the packer, and to the second portion of the annulus when the packer is in the set state; a shunt tube isolation valve coupled to the outer tubular member and the shunt tube; a second sleeve coupled to the shunt tube isolation valve and adapted to move from a first position to a second position, the shunt tube isolation valve blocking the path of fluid communication from the first portion of the annulus to the second portion of the annulus when the second sleeve is in the second position; an inner tubular member disposed radially-inward from the outer tubular member; a first shifting tool coupled to the inner tubular member and adapted to engage and move the first sleeve from the first position to the second position; and a second shifting tool coupled to the inner tubular member and adapted to engage and move the second sleeve from the first position to the second position.
An energy storage device for an orthopaedic device, the energy storage device comprising at least one cylinder in which • a first cylinder chamber, • a second cylinder chamber, which is fluidically connected to the first cylinder chamber by means of at least one fluid line, and • a piston are located, wherein the piston is arranged such that it can be displaced relative to the cylinder in such a way that the displacement of the piston causes a working medium, which is a liquid, to be directed through the at least one fluid line from one cylinder chamber (6, 8) into the other cylinder chamber (8, 6), wherein the energy storage device comprises at least one compensation volume, which is fluidically connected to the fluid line by way of a fluid connection, and at least one first controllable valve, by way of which the fluid connection can be opened and closed, characterised in that no exchange of fluid can occur between the compensation volume and the first or second cylinder chamber when the first controllable valve is closed. • a first cylinder chamber, • a second cylinder chamber, which is fluidically connected to the first cylinder chamber by means of at least one fluid line, and • a piston