mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for processing data and using hardware support for atomic memory transactions, said apparatus comprising: a plurality of processing elements (4, 6, 8) each configured to execute a sequence of program instructions; and a memory configured to store data values shared by said plurality of processing elements (4, 6, 8); wherein at least one (4, 6) of said plurality of processing elements (4, 6, 8) is a transactional-memory-supporting processing element having a controller (14, 16) configured to monitor access to a lock address within said memory and said controller (14, 16) is configured to respond to a received request from another of said plurality of processing elements (4, 6, 8) to obtain exclusive access to said lock address by: (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition. a plurality of processing elements (4, 6, 8) each configured to execute a sequence of program instructions; and a memory configured to store data values shared by said plurality of processing elements (4, 6, 8); wherein at least one (4, 6) of said plurality of processing elements (4, 6, 8) is a transactional-memory-supporting processing element having a controller (14, 16) configured to monitor access to a lock address within said memory and said controller (14, 16) is configured to respond to a received request from another of said plurality of processing elements (4, 6, 8) to obtain exclusive access to said lock address by: (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition. (i) when said transactional-memory-supporting processing element is executing a memory transaction guarded by said lock address, delaying releasing said lock address for exclusive access until a predetermined condition is met; and (ii) when said transactional-memory-supporting processing element is not executing a memory transaction guarded by said lock address, granting said request independent of said predetermined condition.
A laundry washing machine comprising a rotatable drum inside a housing, a suspension arrangement (29, 31) carrying the housing in relation to a base structure, located under the washing machine and on which the washing machine is adapted to rest, and a load sensing device, configured to sense the load of the drum; characterized by: a first structural element substantially extending in a first plane and being connected to either of the housing and the suspension arrangement (29, 31), and a second structural element substantially extending in a second plane, which is parallel with the first plane, and being connected to the other of the housing and the suspension arrangement (29, 31), wherein the load sensing device is attached to the second structural element on a surface thereof facing away from the first structural element and is connected to the first structural element. a first structural element substantially extending in a first plane and being connected to either of the housing and the suspension arrangement (29, 31), and a second structural element substantially extending in a second plane, which is parallel with the first plane, and being connected to the other of the housing and the suspension arrangement (29, 31), wherein the load sensing device is attached to the second structural element on a surface thereof facing away from the first structural element and is connected to the first structural element.
A device for measuring radiation dosage, the device comprising: a sheet; one or more detector assemblies (111, 112, 113, 114) disposed on the sheet, each one or more detector assembly comprising a plurality of beads threaded onto a fibre, the plurality of beads comprising radiation-sensitive material for recording information about a radiation dosage to which each bead is exposed; and detector retaining means for retaining the one or more detector assemblies on the sheet, the detector retaining means being configured to permit each one or more detector assembly to be subsequently detached from the sheet without removing the plurality of beads from the fibre. a sheet; one or more detector assemblies (111, 112, 113, 114) disposed on the sheet, each one or more detector assembly comprising a plurality of beads threaded onto a fibre, the plurality of beads comprising radiation-sensitive material for recording information about a radiation dosage to which each bead is exposed; and detector retaining means for retaining the one or more detector assemblies on the sheet, the detector retaining means being configured to permit each one or more detector assembly to be subsequently detached from the sheet without removing the plurality of beads from the fibre.
A method of evaluating porosity of an aluminum ingot sample comprising the steps of: - cutting the aluminum ingot sample to form an aluminum ingot slice, whereby the cutting is performed using a diamond cutting insert as a fly cutter to produce an aluminum ingot slice; and - subjecting the aluminum ingot slice to focused beam ultrasonic testing and/or to fluorescent dye penetrant testing. - cutting the aluminum ingot sample to form an aluminum ingot slice, whereby the cutting is performed using a diamond cutting insert as a fly cutter to produce an aluminum ingot slice; and - subjecting the aluminum ingot slice to focused beam ultrasonic testing and/or to fluorescent dye penetrant testing.
A second coupling unit configured to enter a locking engagement with a first coupling unit in a plug-socket relationship in a plugging direction, and to be unlocked from the first coupling unit by moving a second magnet in a direction parallel to the plugging direction but outside the most distant surfaces perpendicular to the plugging direction of the first coupling unit and the second coupling unit, wherein the second coupling unit comprises a first coupling magnet for locking the second coupling unit to a first coupling unit, characterized in that the second coupling unit comprises a second coupling magnet configured for unlocking the first coupling unit from the second coupling unit. to enter a locking engagement with a first coupling unit in a plug-socket relationship in a plugging direction, and to be unlocked from the first coupling unit by moving a second magnet in a direction parallel to the plugging direction but outside the most distant surfaces perpendicular to the plugging direction of the first coupling unit and the second coupling unit, wherein the second coupling unit comprises a first coupling magnet for locking the second coupling unit to a first coupling unit, characterized in that the second coupling unit comprises a second coupling magnet configured for unlocking the first coupling unit from the second coupling unit.
A dishwasher, comprising: a rack (13, 14) positioned in a washing space and a nozzle (15, 16, 17) that disperses washing fluid into the washing space; a sump that collects washing fluid supplied to the washing space; a filter provided in the sump; and a cleaning device to clean the filter, the cleaning device comprising: at least one blade; a holder to hold the at least one blade, the holder being movably positioned adjacent to the filter; and a driver configured to provide a driving force to move the holder, wherein a movement of the holder causes the at least one blade to scrape the filter, which dislodges foreign materials from the filter, characterized in that the driver is configured to move the holder and the at least one blade coupled thereto vertically. a rack (13, 14) positioned in a washing space and a nozzle (15, 16, 17) that disperses washing fluid into the washing space; a sump that collects washing fluid supplied to the washing space; a filter provided in the sump; and a cleaning device to clean the filter, the cleaning device comprising: at least one blade; a holder to hold the at least one blade, the holder being movably positioned adjacent to the filter; and a driver configured to provide a driving force to move the holder, wherein a movement of the holder causes the at least one blade to scrape the filter, which dislodges foreign materials from the filter, at least one blade; a holder to hold the at least one blade, the holder being movably positioned adjacent to the filter; and a driver configured to provide a driving force to move the holder, wherein a movement of the holder causes the at least one blade to scrape the filter, which dislodges foreign materials from the filter, characterized in that the driver is configured to move the holder and the at least one blade coupled thereto vertically.
A method for producing a peptide library made of peptides having, at a designated position in the random sequence thereof, a special amino acid having a portion capable of binding to a target substance, comprising: (i) preparing a library of mRNAs containing, in an mRNA sequence thereof coding for a random amino acid sequence, a base sequence having an altered codon encoding the special amino acid, (ii) preparing an aminoacyl tRNA in which the special amino acid has been linked to a tRNA encoded by the altered codon, and (iii) translating the mRNAs by using a cell-free translation system containing the aminoacyl tRNA to obtain a library composed of groups of peptides having, in the random sequence thereof, the predetermined special amino acid, wherein the target substance is an enzyme and the portion of special amino acid capable of binding to the target substance is a low molecular weight group which is predicted to bind to an active site of the enzyme, said low molecular weight group having a molecular weight of 100 Da to 1000 Da. (i) preparing a library of mRNAs containing, in an mRNA sequence thereof coding for a random amino acid sequence, a base sequence having an altered codon encoding the special amino acid, (ii) preparing an aminoacyl tRNA in which the special amino acid has been linked to a tRNA encoded by the altered codon, and (iii) translating the mRNAs by using a cell-free translation system containing the aminoacyl tRNA to obtain a library composed of groups of peptides having, in the random sequence thereof, the predetermined special amino acid,
A method of manufacturing a nitride ceramic substrate, the method comprising: forming a scribe line on a first surface of a nitride ceramic base material by a laser; and dividing the nitride ceramic base material along the scribe line, wherein the scribe line comprises a plurality of recessed portions formed in a row on the first surface of the nitride ceramic base material, and the opening width (w) of each of the plurality of recessed portions is equal to or greater than 1.00 times and equal to or smaller than 1.10 times an inter-center distance (p) of the plurality of recessed portions, characterized in that a depth (d) of each of the plurality of recessed portions is equal to or greater than 0.70 times and equal to or smaller than 1.10 times an opening width (w) of each of the plurality of recessed portions. forming a scribe line on a first surface of a nitride ceramic base material by a laser; and dividing the nitride ceramic base material along the scribe line, wherein the scribe line comprises a plurality of recessed portions formed in a row on the first surface of the nitride ceramic base material, and the opening width (w) of each of the plurality of recessed portions is equal to or greater than 1.00 times and equal to or smaller than 1.10 times an inter-center distance (p) of the plurality of recessed portions, characterized in that a depth (d) of each of the plurality of recessed portions is equal to or greater than 0.70 times and equal to or smaller than 1.10 times an opening width (w) of each of the plurality of recessed portions.
A method performed by a network node serving a first user equipment, UE (101, 102), and a second LTE (101, 102), the method comprising: the network node transmitting, during a first time slot, a first superimposed signal (S) comprising a first message for the first LTE and a second message for the second LTE; the network node receiving a message transmitted by the first UE indicating that the first UE was unable to decode the first message; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node providing to the second UE a message indicating that the first UE was unable to decode the first message, thereby enabling the second LTE to select an appropriate decoding scheme to use in a subsequent time slot; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node transmitting, during a second time slot, a second superimposed signal (S) comprising the first message for the first UE and a third message for the second LTE; and adapting, based on decoding status of the first LTE and the second UE, transmission parameters comprising power and rate, such that the power used to transmit the first message in the second time slot is greater than power used to transmit the first message in the first time slot, and such that the rate used to transmit the third message in the second time slot is greater than rate used to transmit the second message in the first time slot. the network node transmitting, during a first time slot, a first superimposed signal (S) comprising a first message for the first LTE and a second message for the second LTE; the network node receiving a message transmitted by the first UE indicating that the first UE was unable to decode the first message; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node providing to the second UE a message indicating that the first UE was unable to decode the first message, thereby enabling the second LTE to select an appropriate decoding scheme to use in a subsequent time slot; after receiving the message transmitted by the first UE indicating that the first UE was unable to decode the first message, the network node transmitting, during a second time slot, a second superimposed signal (S) comprising the first message for the first UE and a third message for the second LTE; and adapting, based on decoding status of the first LTE and the second UE, transmission parameters comprising power and rate, such that the power used to transmit the first message in the second time slot is greater than power used to transmit the first message in the first time slot, and such that the rate used to transmit the third message in the second time slot is greater than rate used to transmit the second message in the first time slot.
Semiconductor nanoparticles including at least, In, P, Zn, Se, S and a halogen, wherein contents of P, Zn, Se, S and the halogen, in terms of molar ratio with respect to In, are as follows: 0.05 to 0.95 for P, 0.50 to 15.00 for Zn, 0.50 to 5.00 for Se, 0.10 to 15.00 for S, and 0.10 to 1.50 for the halogen. 0.05 to 0.95 for P, 0.50 to 15.00 for Zn, 0.50 to 5.00 for Se, 0.10 to 15.00 for S, and 0.10 to 1.50 for the halogen.
A suspension damper device comprising a housing adapted to be affixed, on which a suspension means may be supported which may be tensed in a direction of suspension via a damper body of a damping means adapted to be connected to a component to be dampened, wherein in the damper body a damper piston fixedly connected to the housing is guided which physically separates two damper spaces (28, 30) in the damper body, wherein three valves (54, 56, 58) are provided whereby a volume flow of a fluid between the damping spaces (28, 30) may be controlled during tensing of the suspension means in the direction of suspension, characterized in that the three valves (54, 56, 58) can be opened in dependence on different pressure differences between the damper spaces (28, 30).
A solder alloy having an alloy composition consisting of, in mass%: Ag: 1% to 4%; Cu: 0.5% to 0.8%; Bi: 4.9% or more and 5.5% or less; Sb: more than 1.5% and 5.5% or less; Ni: 0.01% or more and less than 0.1%; Co: more than 0.001% and 0.1% or less; and the balance being Sn, wherein the alloy composition satisfies the following relationships to: 0.020 % ≤ Ni + Co ≤ 0.105 % 9.1 % ≤ Sb + Bi ≤ 10.4 % 4.05 × 10 − 3 ≤ Ni + Co / Bi + Sb ≤ 1.00 × 10 − 2 wherein Ni, Co, Bi, and Sb each represent a content in mass% thereof in the solder alloy. Ag: 1% to 4%; Cu: 0.5% to 0.8%; Bi: 4.9% or more and 5.5% or less; Sb: more than 1.5% and 5.5% or less; Ni: 0.01% or more and less than 0.1%; Co: more than 0.001% and 0.1% or less; and the balance being Sn,
A photocurable composition comprising: a photocurable (meth)acrylate resin, a (meth)acrylate monomer selected from a monofunctional (meth)acrylate monomer and a difunctional (meth)acrylate monomer, a trifunctional or higher multifunctional (meth)acrylate monomer, a photopolymerization initiator, a benzotriazole anticorrosive agent, an anticorrosive pigment selected from a phosphate anticorrosive pigment and calcium ion-exchanged silica, and a phosphate ester. a photocurable (meth)acrylate resin, a (meth)acrylate monomer selected from a monofunctional (meth)acrylate monomer and a difunctional (meth)acrylate monomer, a trifunctional or higher multifunctional (meth)acrylate monomer, a photopolymerization initiator, a benzotriazole anticorrosive agent, an anticorrosive pigment selected from a phosphate anticorrosive pigment and calcium ion-exchanged silica, and a phosphate ester.
A cooking appliance arranged to supply superheated steam while food is cooked, the cooking appliance comprising: a main body, a front of which is openable, and in which a cooking compartment is disposed; a heating chamber disposed in the main body to be in communication with the cooking compartment; a steam generator arranged to generate steam sprayed into the heating chamber; a convection heater disposed in the heating chamber, the convection heater being arranged to heat the heating chamber and the cooking compartment, and a steam supplying pipe that connects the steam generator and the heating chamber so that the steam discharged from the steam generator is supplied to the heating chamber characterized by the steam supplying pipe having a steam discharge port through which superheated steam is discharged, wherein the convection heater is arranged to heat steam discharged from the steam generator and change it into superheated steam while the steam is moved along the steam supplying pipe, wherein the steam in a superheated steam state is sprayed into the heating chamber and is supplied into the cooking compartment; and wherein the steam discharge port is opened toward an upper portion of the heating chamber so that superheated steam is discharged toward the upper portion of the heating chamber. a main body, a front of which is openable, and in which a cooking compartment is disposed; a heating chamber disposed in the main body to be in communication with the cooking compartment; a steam generator arranged to generate steam sprayed into the heating chamber; a convection heater disposed in the heating chamber, the convection heater being arranged to heat the heating chamber and the cooking compartment, and a steam supplying pipe that connects the steam generator and the heating chamber so that the steam discharged from the steam generator is supplied to the heating chamber characterized by the steam supplying pipe having a steam discharge port through which superheated steam is discharged, wherein the convection heater is arranged to heat steam discharged from the steam generator and change it into superheated steam while the steam is moved along the steam supplying pipe, wherein the steam in a superheated steam state is sprayed into the heating chamber and is supplied into the cooking compartment; and wherein the steam discharge port is opened toward an upper portion of the heating chamber so that superheated steam is discharged toward the upper portion of the heating chamber.
A method of manufacturing a solid layer, especially for use as a wafer, with the following steps: preparation of a workpiece for detachment from the solid layer, wherein the workpiece at least comprises an exposed upper surface, production and/or preparation of a carrier unit for bearing at least one solid layer, wherein the carrier unit comprises a carrier layer for holding the solid layer, attachment of the carrier layer to the exposed upper surface of the workpiece to form a composite structure, production of a predefined stress distribution inside the workpiece for the influencing, especially in a predefined manner, of a detachment process with detachment of the solid layer from the workpiece, and detachment of the solid layer from the workpiece along a plane extending inside the workpiece according to the detachment process influenced by the predefined stress distribution, characterized in that: the carrier unit comprises a stabilising layer and the stabilising layer is overlaid at least in a cross-sectional direction by the carrier layer, wherein the coefficient of thermal expansion of the material of the stabilising layer and of the material of the carrier layer differ from each other by a factor of at least 2, wherein the coefficient of thermal expansion of the stabilising layer is smaller than the coefficient of thermal expansion of the carrier layer. preparation of a workpiece for detachment from the solid layer, wherein the workpiece at least comprises an exposed upper surface, production and/or preparation of a carrier unit for bearing at least one solid layer, wherein the carrier unit comprises a carrier layer for holding the solid layer, attachment of the carrier layer to the exposed upper surface of the workpiece to form a composite structure, production of a predefined stress distribution inside the workpiece for the influencing, especially in a predefined manner, of a detachment process with detachment of the solid layer from the workpiece, and detachment of the solid layer from the workpiece along a plane extending inside the workpiece according to the detachment process influenced by the predefined stress distribution, the carrier unit comprises a stabilising layer and the stabilising layer is overlaid at least in a cross-sectional direction by the carrier layer, wherein the coefficient of thermal expansion of the material of the stabilising layer and of the material of the carrier layer differ from each other by a factor of at least 2, wherein the coefficient of thermal expansion of the stabilising layer is smaller than the coefficient of thermal expansion of the carrier layer.