mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a sintering thermal impedance of a sintering layer, comprising: - providing a substrate having a predetermined substrate thermal impedance, - disposing the sintering layer on the substrate, the substrate and the sintering layer forming a stack, - placing at least one semiconductor die on the sintering layer, the semiconductor die comprising a semiconductor element comprising at least two element electrodes (45; 47), - injecting an electrical current through the at least two element electrodes (45; 47) for measuring a temperature sensitive parameter of the semiconductor element, - heating the stack for sintering the sintering layer with a predetermined heat power, - determining, while sintering, a semiconductor element temperature from the measured temperature sensitive parameter, - measuring a stack temperature, - determining a stack thermal impedance by subtracting the semiconductor element temperature from the stack temperature to obtain a temperature difference and dividing the temperature difference by the predetermined heat power, - determining the sintering thermal impedance at the location of the semiconductor die by subtracting the predetermined substrate thermal impedance from the stack thermal impedance. - providing a substrate having a predetermined substrate thermal impedance, - disposing the sintering layer on the substrate, the substrate and the sintering layer forming a stack, - placing at least one semiconductor die on the sintering layer, the semiconductor die comprising a semiconductor element comprising at least two element electrodes (45; 47), - injecting an electrical current through the at least two element electrodes (45; 47) for measuring a temperature sensitive parameter of the semiconductor element, - heating the stack for sintering the sintering layer with a predetermined heat power, - determining, while sintering, a semiconductor element temperature from the measured temperature sensitive parameter, - measuring a stack temperature, - determining a stack thermal impedance by subtracting the semiconductor element temperature from the stack temperature to obtain a temperature difference and dividing the temperature difference by the predetermined heat power, - determining the sintering thermal impedance at the location of the semiconductor die by subtracting the predetermined substrate thermal impedance from the stack thermal impedance.
An electric blower comprising: a centrifugal fan; a shaft installed integrally rotatably with the centrifugal fan; a sleeve provided with a recess in an outer circumferential surface; at least one bearing provided in the sleeve and adapted to rotatably support the shaft; a frame provided with a through hole in which the sleeve is fixed; characterised by a stopper filling up a gap between the frame and the recess and adapted to harden and thereby prevent the sleeve from being detached from the through hole. a centrifugal fan; a shaft installed integrally rotatably with the centrifugal fan; a sleeve provided with a recess in an outer circumferential surface; at least one bearing provided in the sleeve and adapted to rotatably support the shaft; a frame provided with a through hole in which the sleeve is fixed; characterised by a stopper filling up a gap between the frame and the recess and adapted to harden and thereby prevent the sleeve from being detached from the through hole.
A beverage appliance, comprising: a housing, said housing including a liquid reservoir; a receptacle in said housing dimensioned to receive a container containing at least one drink ingredient having particles of a first size, said receptacle being pivotable from a first position in which said receptacle is angled towards a front of said appliance and a second position in which said receptacle is aligned with a brew head and contacts said brew head, and said drink ingredient being whole coffee beans; and a mechanism for transforming said particles of said drink ingredient from said first size to a second size within said container, said second size being smaller than said first size, and said mechanism being a grinding blade rotatably driven by a motor, wherein said grinding blade is substantially V-shaped and includes a bottom sharpened edge, a top sharpened edge and at least one protrusion on a side thereof, said at least one protrusion impacting said particles upon rotation of said grinding blade; wherein said container is configured to be raised toward said grinding blade and said grinding blade is configured to pierce a cover of said container and wherein said receptacle includes a generally hollow needle arranged at the bottom thereof for piercing a bottom of said container, said hollow needle being in fluid communication with a beverage outlet. a housing, said housing including a liquid reservoir; a receptacle in said housing dimensioned to receive a container containing at least one drink ingredient having particles of a first size, said receptacle being pivotable from a first position in which said receptacle is angled towards a front of said appliance and a second position in which said receptacle is aligned with a brew head and contacts said brew head, and said drink ingredient being whole coffee beans; and a mechanism for transforming said particles of said drink ingredient from said first size to a second size within said container, said second size being smaller than said first size, and said mechanism being a grinding blade rotatably driven by a motor, wherein said grinding blade is substantially V-shaped and includes a bottom sharpened edge, a top sharpened edge and at least one protrusion on a side thereof, said at least one protrusion impacting said particles upon rotation of said grinding blade; wherein said container is configured to be raised toward said grinding blade and said grinding blade is configured to pierce a cover of said container and wherein said receptacle includes a generally hollow needle arranged at the bottom thereof for piercing a bottom of said container, said hollow needle being in fluid communication with a beverage outlet.
A method for controlling the crane of a working machine (10; 44) by using boom tip control, in which method the crane comprises at least two booms (24, 26, 28) connected to the working machine (10; 44) and to each other in an articulated manner, which booms are moved in relation to the working machine (10; 44) and each other by means of actuators (32, 34, 36) controlled by a control system of the working machine (10; 44), and in which method the direction and speed of motion of the head of the crane, controlled by a driver applying controls (50, 52) in the working machine (10; 44), are achieved by applying speeds of the different booms (24, 26, 28) of the crane, characterized in that the speeds of the different booms (24, 26, 28) of the crane are determined automatically on the basis of at least one of the following factors: the maximum speed of the head of the crane achieved by the crane; location of the head of the crane in relation to the working machine (10; 44); location of surrounding obstacles in relation to the crane.
A client device for hearing device communication, the client device comprising - a processing unit; - a memory unit; and - an interface, the memory unit having a client device key and a client device certificate (106, 107) stored thereon, characterized in that: the processing unit is configured to - receive a connection response comprising a hearing device identifier via the interface; - generate one or more keys based on the hearing device identifier and the client device key; - obtain an authentication message based on the one or more keys and the client device certificate (106, 107), and - transmit the authentication message via the interface. - a processing unit; - a memory unit; and - an interface, the memory unit having a client device key and a client device certificate (106, 107) stored thereon, characterized in that: the processing unit is configured to the memory unit having a client device key and a client device certificate (106, 107) stored thereon, characterized in that: the processing unit is configured to - receive a connection response comprising a hearing device identifier via the interface; - generate one or more keys based on the hearing device identifier and the client device key; - obtain an authentication message based on the one or more keys and the client device certificate (106, 107), and - transmit the authentication message via the interface.
Method for producing a bristle field consisting of multiple bundles of bristles for a brush, in particular for a toothbrush, wherein bundle holders of a bristle field support plate are filled with bundles of bristles, characterized in that the bundles of bristles, at least for the indirect filling of the bundle holders of the bristle field support plate, are delivered from funnel holders having insertion funnels, which are distributed on at least two arrangements (4,5) of funnel holders in such a way that a concentration of funnel holders in the at least two arrangements (4,5) is smaller in each case than a concentration of bundle holders on the bristle field support plate so that the funnels do not overlap.
Heat exchange apparatus for condensing water from a flow of respiratory gas, the apparatus comprising a first portion having an inlet and a second portion having an outlet, the inlet and outlet being connectable to a breathing system, the first and second portions being arranged in flow series, the first portion comprising a condenser, comprising a condensation chamber, and the second portion comprising a heater, comprising a heater chamber, downstream of the condenser for increasing the temperature of the respiratory gas flow prior to the outlet, wherein the apparatus comprises a heat exchange component and a base unit, the heat exchange component including the condensation chamber and the heater chamber through which the respiratory gas flows, and the base unit being adapted to aid removal of heat energy from the condensation chamber and to aid provision of heat energy to the heater chamber, wherein the heat exchange component is releasably engageable with the base unit such that the heat exchange component is replaceable.
A quantum memristor, comprising: a first quantum dot QD1 which is capacitively coupled to a second quantum dot QD2, a source electrode, a drain electrode, and a bath electrode, wherein said source electrode and said drain electrode are coupled via quantum tunnelling to QD1 and said bath electrode is coupled via quantum tunnelling to QD2, and wherein QD2 is capacitively coupled to either the source electrode or the drain electrode. a first quantum dot QD1 which is capacitively coupled to a second quantum dot QD2, a source electrode, a drain electrode, and a bath electrode, wherein said source electrode and said drain electrode are coupled via quantum tunnelling to QD1 and said bath electrode is coupled via quantum tunnelling to QD2, and wherein QD2 is capacitively coupled to either the source electrode or the drain electrode.
Device for cooling heat-generating electronics components, having means for supplying a gaseous coolant to the electronics components or to a cooling body of the electronics components, wherein the electronics components (14, 16) or the cooling body are arranged in a closed housing with an inlet and an outlet, and the inlet and the outlet are connected to a closed refrigeration circuit in which the coolant, in the form of a refrigerant which is suitable for refrigeration circuits, circulates so as to alternately undergo evaporation and liquefaction, wherein the refrigeration circuit comprises at least one compressor for the compression of the refrigerant, a condenser for the liquefaction of the refrigerant, an expansion element for the expansion of the refrigerant, and an evaporator for the evaporation of the refrigerant, characterized in that the closed refrigeration circuit is a refrigeration circuit of an air-conditioning system of a motor vehicle, and in that the housing with the electronics components (14, 16) or with the cooling body is arranged downstream of the condenser and upstream of the expansion element as viewed in a flow direction of the refrigerant through the refrigeration circuit, wherein a further condenser is arranged downstream of the outlet of the housing.
A transition part assembly (100, 2100, 3100, 4100), comprising: a transition part that couples a combustor liner with a turbine; a collision sleeve that surrounds the transition part; cooling holes defined in the collision sleeve; and a guide provided in the collision sleeve that guides air to a side surface of the transition part, characterized in that the guide includes a tapered surface that is inclined toward the side surface of the transition part and the guide (3200, 4200) includes a stepped surface disposed towards in an inner surface of the collision sleeve. a transition part that couples a combustor liner with a turbine; a collision sleeve that surrounds the transition part; cooling holes defined in the collision sleeve; and a guide provided in the collision sleeve that guides air to a side surface of the transition part, characterized in that the guide includes a tapered surface that is inclined toward the side surface of the transition part and the guide (3200, 4200) includes a stepped surface disposed towards in an inner surface of the collision sleeve.
Li-Ni composite oxide particles having a composition of Li x (Ni y Co 2(1-y)/5 Mn 3(1-y)/5) 1-z M z O 2 wherein x, y and z represent 1.00 ≤ x ≤ 1.10; 0.65 < y < 0.82; and 0 ≤ z < 0.05, respectively; and M is at least one element selected from the group consisting of Al, Zr and Mg, wherein a metal occupancy (%) of lithium sites of the Li-Ni composite oxide as determined by Rietveld analysis of X-ray diffraction thereof is not less than 2% and not more than 7% and a product of the metal occupancy (%) and a crystallite size (nm) of the Li-Ni composite oxide as determined by the Rietveld analysis is not less than 700 and not more than 1400.
A method of transmitting a signal by a terminal in a multi-cell system, comprising the steps of: receiving, by the terminal, information on an adjacent base station from a serving base station, wherein the information on the adjacent base station comprises information on a cell identifier of the adjacent base station and a number of multiple transmitting antennas of the adjacent base station; receiving, by the terminal, a reference signal transmitted via the multiple transmitting antennas from the adjacent base station based on the information on the adjacent base station; measuring, by the terminal, interference occurred from each of the multiple transmitting antennas of the adjacent base station using the reference signal; and when the interference occurred from at least one of the multiple transmitting antennas of the adjacent base station is greater than a threshold value, transmitting, by the terminal, information on an index of the at least one transmitting antenna of the adjacent base station to the adjacent base station such that the adjacent base station turns off the at least one transmitting antenna of the multiple transmitting antennas. receiving, by the terminal, information on an adjacent base station from a serving base station, wherein the information on the adjacent base station comprises information on a cell identifier of the adjacent base station and a number of multiple transmitting antennas of the adjacent base station; receiving, by the terminal, a reference signal transmitted via the multiple transmitting antennas from the adjacent base station based on the information on the adjacent base station; measuring, by the terminal, interference occurred from each of the multiple transmitting antennas of the adjacent base station using the reference signal; and when the interference occurred from at least one of the multiple transmitting antennas of the adjacent base station is greater than a threshold value, transmitting, by the terminal, information on an index of the at least one transmitting antenna of the adjacent base station to the adjacent base station such that the adjacent base station turns off the at least one transmitting antenna of the multiple transmitting antennas.
An assembly for removing deposits from a wellbore wall or from an equipment arranged in a wellbore of a subterranean formation and for collecting debris of said deposits, said assembly comprising an electrical discharge generating device configured for removing deposits from said wellbore wall or from said equipment and a collecting device, said collecting device comprising: - a deflector configured for deflecting falling debris of deposits while said deposits are being removed from said wellbore wall or said wellbore equipment, and - a debris storing module connected to said deflector, said debris storing module being configured for collecting and storing debris deflected by said deflector, wherein the deflector comprises: - a tubular portion comprising a first end connected to the debris storing module and a second end configured for collecting debris, said tubular portion being adapted to convey debris from said second end into the debris storing module through said first end, the second end of the tubular portion comprising an annular flange (212B1) from which extend three wings and in which are formed three openings delimited between said wings, - a connecting shaft mounted on the annular flange (212B1) of the second end of the tubular portion via the wings and attached to the bottom of the electrical discharge generating device so that the collecting device lays under the electrical discharge generating device to collect debris of deposits falling by gravity into the deflector while said deposits are being removed from the wellbore wall or the equipment arranged in the wellbore. - a deflector configured for deflecting falling debris of deposits while said deposits are being removed from said wellbore wall or said wellbore equipment, and - a debris storing module connected to said deflector, said debris storing module being configured for collecting and storing debris deflected by said deflector, - a tubular portion comprising a first end connected to the debris storing module and a second end configured for collecting debris, said tubular portion being adapted to convey debris from said second end into the debris storing module through said first end, the second end of the tubular portion comprising an annular flange (212B1) from which extend three wings and in which are formed three openings delimited between said wings, - a connecting shaft mounted on the annular flange (212B1) of the second end of the tubular portion via the wings and attached to the bottom of the electrical discharge generating device so that the collecting device lays under the electrical discharge generating device to collect debris of deposits falling by gravity into the deflector while said deposits are being removed from the wellbore wall or the equipment arranged in the wellbore.
A flow regulator system, comprising: a flow regulator (200,400) adapted for placement within a fluid flow path (700,800), the flow regulator (200,400) being adapted to maintain fluid flowing through the fluid flow path (700,800) at a desired flow rate, the flow regulator (200,400), comprising: a flow washer (250,450) including an orifice (263,463) therethrough, and a regulator body (300,500) adapted to receive the flow washer (250,450), the regulator body (300,500) including at least one flow washer stop (342-347,542-545), wherein, at fluid pressures between a first fluid pressure and a second fluid pressure, the flow washer (250,450) rotationally deforms to decrease or increase the size of the orifice (263,463) thereby maintaining the desired flow rate of fluid within the fluid flow path (700,800), further wherein, at fluid pressures greater than or equal to the second fluid pressure, the flow washer (250,450) engages the at least one flow washer stop (342-347,542-545) to prevent further rotational deformation of the flow washer (250,450), such that the flow washer (250,450) radially compresses to decrease the size of the orifice (263,463) or the flow washer (250,450) radially expands to increase the size of the orifice (263,463) thereby maintaining the desired flow rate of fluid within the fluid flow path (700,800). a flow washer (250,450) including an orifice (263,463) therethrough, and a regulator body (300,500) adapted to receive the flow washer (250,450), the regulator body (300,500) including at least one flow washer stop (342-347,542-545), wherein, at fluid pressures between a first fluid pressure and a second fluid pressure, the flow washer (250,450) rotationally deforms to decrease or increase the size of the orifice (263,463) thereby maintaining the desired flow rate of fluid within the fluid flow path (700,800), further wherein, at fluid pressures greater than or equal to the second fluid pressure, the flow washer (250,450) engages the at least one flow washer stop (342-347,542-545) to prevent further rotational deformation of the flow washer (250,450), such that the flow washer (250,450) radially compresses to decrease the size of the orifice (263,463) or the flow washer (250,450) radially expands to increase the size of the orifice (263,463) thereby maintaining the desired flow rate of fluid within the fluid flow path (700,800).
A packaging comprising two containers (1, 2) each having an open end, two lids, a male lid and a female lid each having a topside and a underside, each lid being adapted to close the open end of a container (1, 2), wherein - the male lid comprises a protrusion and the female lid comprising a cavity adapted to receive the protrusion of the male lid, and - the protrusion of the male lid has an edge circulating at least a part of the protrusion at varying heights of the protrusion, - the cavity comprising a ledge mating the edge of the male lid, so that when the protrusion is received in the cavity the edge of the male lid abuts the ledge of the cavity, whereby, a turning movement of one of the lids relatively to the other lid results in the two lids are pushed away from each other by abutment between the ledge and the edge. - the male lid comprises a protrusion and the female lid comprising a cavity adapted to receive the protrusion of the male lid, and - the protrusion of the male lid has an edge circulating at least a part of the protrusion at varying heights of the protrusion, - the cavity comprising a ledge mating the edge of the male lid, so that when the protrusion is received in the cavity the edge of the male lid abuts the ledge of the cavity, - the protrusion of the male lid has an edge circulating at least a part of the protrusion at varying heights of the protrusion, - the cavity comprising a ledge mating the edge of the male lid, so that when the protrusion is received in the cavity the edge of the male lid abuts the ledge of the cavity,
A process for removing a catalyst from a packed catalyst bed within process channels of a microchannel reactor, the process comprising airtight sealing a distal end of a linear array of process channels to form blocked process channels in the array, and directing a high velocity gas stream into the open proximal ends of the process channels, the velocity of the gas stream being sufficient to elevate the pressure in at least part of the blocked process channels to at least about 5 psig (34,473 Pa gauge), and thereby creating within the catalyst bed and/or between the catalyst bed and any open space adjacent the catalyst bed within the blocked process channels a pressure gradient effective to dislodge particulate catalyst from the catalyst bed.