mhurhangee/patent-ind-claim-en huggingface dataset:
A method for fabricating patterns on the surface of a layer of a device , the method comprising: providing at least one layer of said device ; adding at least one alkali metal comprising Cs and/or Rb; controlling the temperature of the at least one layer, thereby forming a plurality of embossings at the surface of the at least one layer, at least a portion of the plurality of embossings resulting from a self-assembly process comprising: - the forming of a plurality of alkali crystal compounds including compounds of Cs and/or Rb from said at least one alkali metal, - the self-assembling and the embedding of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer. providing at least one layer of said device ; adding at least one alkali metal comprising Cs and/or Rb; controlling the temperature of the at least one layer, thereby forming a plurality of embossings at the surface of the at least one layer, at least a portion of the plurality of embossings resulting from a self-assembly process comprising: - the forming of a plurality of alkali crystal compounds including compounds of Cs and/or Rb from said at least one alkali metal, - the self-assembling and the embedding of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer. - the forming of a plurality of alkali crystal compounds including compounds of Cs and/or Rb from said at least one alkali metal, - the self-assembling and the embedding of the alkali crystal compounds into the surface of the at least one layer, thereby forming at least a first line of regularly spaced embossings that is adjacent and parallel to at least a second line of regularly spaced embossings within at least one region of the at least one layer.
Loading tube apparatus for use in compressing and/or loading a stent-valve , for a delivery catheter , the loading tube apparatus comprising: a plurality of segments that are assembable around a portion of a delivery catheter to define a tubular shape ; and at least one retainer for retaining the plurality of segments in the assembled shape, wherein the retainer comprises at least one threaded nut. a plurality of segments that are assembable around a portion of a delivery catheter to define a tubular shape ; and at least one retainer for retaining the plurality of segments in the assembled shape, wherein the retainer comprises at least one threaded nut.
Oil sensor comprising an elongated crystal and a holder to which the elongated crystal is fastened, wherein the elongated crystal is made of a material that is transparent to light in the infrared spectrum and which has a refractive index greater than the refractive index of the oil to be examined, whereby a light source is provided in the holder at a first end of the elongated crystal for transmitting light in the infrared spectrum in the elongated crystal , and detection means are provided in the holder at a second end of the elongated crystal for measuring the intensity of the light, which during the passage through the elongated crystal undergoes total reflection at least four times in succession at a boundary plane in a contact zone where the elongated crystal comes into contact with the oil to be examined, characterised in that the oil sensor is further provided with at least one temperature sensor arranged to determine the temperature of at least one of the components of the oil sensor , in that the part of the light source that can emit light can be heated to a temperature of more than 400°C in order to emit light, and in that the elongated crystal is tubular, wherein the ratio of the inside diameter to the outside diameter of the tubular elongated crystal is between 0.3 and 0.9.
Process for providing a cell comprising a chimeric antigen receptor (CAR) specific for one or more target antigens exposed on tumor cells characterized by providing a cell sample comprising tumor and non-tumor cells and repeating the steps of - contacting the cell tissue with a conjugate comprising a fluorescent moiety and an antigen recognizing moiety - removing unbound conjugate from the cell tissue and detecting cells bound to the conjugate by the fluorescence radiation emitted by the fluorescent moieties of the first conjugates - erasing the fluorescence emitted by the fluorescent moieties of the conjugates with conjugates comprising a fluorescent moiety and antigen recognizing moieties recognizing different antigens until identifying at least two conjugates provided with antigen recognizing moieties recognizing different antigens, allowing in combination to discriminate between tumor cells and non-tumor cells and providing cells with the identified at least two antigen recognizing moieties as chimeric antigen receptor (CAR). - contacting the cell tissue with a conjugate comprising a fluorescent moiety and an antigen recognizing moiety - removing unbound conjugate from the cell tissue and detecting cells bound to the conjugate by the fluorescence radiation emitted by the fluorescent moieties of the first conjugates - erasing the fluorescence emitted by the fluorescent moieties of the conjugates with conjugates comprising a fluorescent moiety and antigen recognizing moieties recognizing different antigens until identifying at least two conjugates provided with antigen recognizing moieties recognizing different antigens, allowing in combination to discriminate between tumor cells and non-tumor cells and providing cells with the identified at least two antigen recognizing moieties as chimeric antigen receptor (CAR).
A printer cartridge comprising: a shared free fluid chamber ; multiple backpressure chambers arranged in an array and in fluid communication with the shared free fluid chamber , each backpressure chamber (104-1, 104-2, 104-3) comprising: an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and multiple ports disposed between the shared free fluid chamber and the multiple backpressure chambers to regulate flow of fluid between the free fluid chamber and the multiple backpressure chambers . a shared free fluid chamber ; multiple backpressure chambers arranged in an array and in fluid communication with the shared free fluid chamber , each backpressure chamber (104-1, 104-2, 104-3) comprising: an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and an outlet to supply fluid from the backpressure chamber (104-1, 104-2, 104-3) to a corresponding nozzle of a fluidic ejection assembly, and a spring-compliant wall to regulate backpressure provided to the nozzle during deposition of fluid onto a print medium; and multiple ports disposed between the shared free fluid chamber and the multiple backpressure chambers to regulate flow of fluid between the free fluid chamber and the multiple backpressure chambers .
A circuit board comprising: a substrate ; a conductor layer located on the substrate; a reflective layer located on the conductor layer ; and a resin layer located on the substrate to be in contact with the conductor layer and the reflective layer , wherein in a surface of the reflective layer , arithmetic mean roughness Ra obtained from a roughness profile is less than 0.2 um and a ratio of kurtosis Rku obtained from the roughness profile to skewness Rsk obtained from the roughness profile is 5 or more and 15 or less, characterised in that , in the surface of the reflective layer , a reduced valley depth Rvk obtained from a roughness profile is smaller than a reduced peak height Rpk obtained from the roughness profile. a substrate ; a conductor layer located on the substrate; a reflective layer located on the conductor layer ; and a resin layer located on the substrate to be in contact with the conductor layer and the reflective layer , wherein in a surface of the reflective layer , arithmetic mean roughness Ra obtained from a roughness profile is less than 0.2 um and a ratio of kurtosis Rku obtained from the roughness profile to skewness Rsk obtained from the roughness profile is 5 or more and 15 or less, characterised in that , in the surface of the reflective layer , a reduced valley depth Rvk obtained from a roughness profile is smaller than a reduced peak height Rpk obtained from the roughness profile.
An apparatus for accessing memory based on message packets, comprising: a CPU, configured to convert a memory access instruction into a message-based memory access request on a message-based bus ; a message-based memory controller, configured to: receive the message-based memory access request transmitted from the message-based bus ; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module ; the storage module , comprising a buffer scheduler configured to: receive the request message packet from the message-based memory controller ; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module. a CPU, configured to convert a memory access instruction into a message-based memory access request on a message-based bus ; a message-based memory controller, configured to: receive the message-based memory access request transmitted from the message-based bus ; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module ; receive the message-based memory access request transmitted from the message-based bus ; package a plurality of the message-based memory access requests into a request message packet after receiving the plurality of the message-based memory access requests and send the request message packet to a storage module ; the storage module , comprising a buffer scheduler configured to: receive the request message packet from the message-based memory controller ; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module. receive the request message packet from the message-based memory controller ; unpack the request message packet to get the plurality of message-based memory access requests; and schedule the execution sequence of the plurality of message-based memory access requests to access a memory chip of the storage module.
A power production system comprising: an integrated control system configured for automated control of at least one component of the power production system, the control system including at least one controller unit configured to receive an input related to a measured parameter of the power production system and configured to provide an output to the at least one component of the power production system subject to the automated control; a turbine ; a power producing generator ; a compressor downstream from the turbine and in fluid connection with the turbine ; a pump downstream from the compressor and in fluid connection with the compressor ; and a heater positioned downstream from the pump and in fluid connection with the pump and positioned upstream from the turbine and in fluid connection with the turbine ; wherein the integrated control system is a power controller configured to receive an input related to power produced by the power producing generator and provide an output to a heater of the power production system to increase or decrease heat production by the heater ; wherein the integrated control system includes a pump controller configured to receive an input related to temperature of an exhaust stream exiting the turbine and provide an output to the pump to control a flow rate of a stream passing from the pump to the heater and thereby control the heat output by the heater . an integrated control system configured for automated control of at least one component of the power production system, the control system including at least one controller unit configured to receive an input related to a measured parameter of the power production system and configured to provide an output to the at least one component of the power production system subject to the automated control; a turbine ; a power producing generator ; a compressor downstream from the turbine and in fluid connection with the turbine ; a pump downstream from the compressor and in fluid connection with the compressor ; and a heater positioned downstream from the pump and in fluid connection with the pump and positioned upstream from the turbine and in fluid connection with the turbine ; wherein the integrated control system is a power controller configured to receive an input related to power produced by the power producing generator and provide an output to a heater of the power production system to increase or decrease heat production by the heater ; wherein the integrated control system includes a pump controller configured to receive an input related to temperature of an exhaust stream exiting the turbine and provide an output to the pump to control a flow rate of a stream passing from the pump to the heater and thereby control the heat output by the heater .
A memory controller, MC, comprising: an output interface; and an execution engine, EE, the memory controller being characterised to: identify, based on field test results of an non-volatile memory, NVM, die coupled to the MC, initial test results of the die using an artificial neural network, ANN, trained to identify the die from a set of NVM dies coupled to the MC based on initial test results of the set of NVM dies obtained at a time of manufacture of the set of dies, the initial test results of the die including a first useful life prediction and the field test results of the die including a second useful life prediction, wherein the initial test results of the die are regenerated by the ANN to protect their confidentiality; compare the second useful life prediction with the first useful life prediction, to determine, based on the comparison, a deviation between the two predictions; and output, via the output interface, the deviation to a user. an output interface; and an execution engine, EE, the memory controller being characterised to: identify, based on field test results of an non-volatile memory, NVM, die coupled to the MC, initial test results of the die using an artificial neural network, ANN, trained to identify the die from a set of NVM dies coupled to the MC based on initial test results of the set of NVM dies obtained at a time of manufacture of the set of dies, the initial test results of the die including a first useful life prediction and the field test results of the die including a second useful life prediction, wherein the initial test results of the die are regenerated by the ANN to protect their confidentiality; compare the second useful life prediction with the first useful life prediction, to determine, based on the comparison, a deviation between the two predictions; and output, via the output interface, the deviation to a user. identify, based on field test results of an non-volatile memory, NVM, die coupled to the MC, initial test results of the die using an artificial neural network, ANN, trained to identify the die from a set of NVM dies coupled to the MC based on initial test results of the set of NVM dies obtained at a time of manufacture of the set of dies, the initial test results of the die including a first useful life prediction and the field test results of the die including a second useful life prediction, wherein the initial test results of the die are regenerated by the ANN to protect their confidentiality; compare the second useful life prediction with the first useful life prediction, to determine, based on the comparison, a deviation between the two predictions; and output, via the output interface, the deviation to a user.
A liquid-containing container manufacturing method of manufacturing a liquid-containing container (C) containing a content liquid (L) from a synthetic resin-made preform using a mold for blow molding and a nozzle unit that includes: a nozzle unit body having an annular seat part provided in a supply path of a liquid (L); a seal body movable between a closed position at which the seat part is closed and an open position at which the seat part is open; and an opening-closing body capable of opening and closing a preliminary supply path that is formed inside the seal body and communicates with a part of the supply path upstream from the seat part , the liquid-containing container manufacturing method comprising: an air discharge step of discharging air inside the preform placed in the mold for blow molding to outside, by opening the preliminary supply path by the opening-closing body in a state in which the seal body is at the closed position to supply the liquid (L) from the preliminary supply path into the preform ; and a liquid blow molding step of molding the preform into the liquid-containing container (C) of a shape along an inner surface of the mold for blow molding, by moving the seal body from the closed position to the open position to supply the liquid (L) pressurized into the preform through the seat part . an air discharge step of discharging air inside the preform placed in the mold for blow molding to outside, by opening the preliminary supply path by the opening-closing body in a state in which the seal body is at the closed position to supply the liquid (L) from the preliminary supply path into the preform ; and a liquid blow molding step of molding the preform into the liquid-containing container (C) of a shape along an inner surface of the mold for blow molding, by moving the seal body from the closed position to the open position to supply the liquid (L) pressurized into the preform through the seat part .
A solar cell comprising a monocrystalline silicon substrate having a texture structure at a major surface on the light-receiving side of the solar cell, an emitter layer forming a p-n junction with the textured major surface of the substrate , a light-receiving side electrode on the emitter layer , the monocrystalline silicon substrate including a damaged layer on said major surface having the texture structure on the light-receiving side, the damaged layer originating from a slicing step during the preparation of the substrate and having a depth of 0.2 to 5 μm.
A method for the purification of a sialyllactose from other carbohydrates, characterized in that the method comprises the steps of subjecting an aqueous solution containing the sialyllactose and other carbohydrates to two membrane filtration steps using different membranes, wherein - one membrane has a molecular weight cut-off of between about 300 to about 500 Dalton, and - the other membrane has a molecular weight cut-off of between about 600 to about 800 Dalton. - one membrane has a molecular weight cut-off of between about 300 to about 500 Dalton, and - the other membrane has a molecular weight cut-off of between about 600 to about 800 Dalton.
A method of printing a three-dimensional "3D" object and a removable support construction for the 3D object, the method comprising: generating 3D cross sectional digital data comprising a set of horizontal slices (310; 320; 330; 340; 350), wherein each of the slices includes one or more body regions representing a horizontal cross section of the 3D object, and at least each of some of the slices further includes one or more support regions (312; 322; 332; 342; 352) being adjacent to the body regions (314; 324; 334; 344; 354) and representing a corresponding horizontal cross section of the support construction; manipulating the 3D digital data to create a set of shifted slices (310a; 320a; 330a; 340a; 350a) by performing vertical shifts between the body region and the support region of a same horizontal slice to create printing digital data, wherein at least each of some of the shifted slices include a body region of one of the horizontal slices together with a support region of another one of the horizontal slices; and depositing, in layers, from printing heads , a body material and a support material based on the printing digital data, wherein in a same scan, droplets of the support material and droplets of the body material travel different distances. generating 3D cross sectional digital data comprising a set of horizontal slices (310; 320; 330; 340; 350), wherein each of the slices includes one or more body regions representing a horizontal cross section of the 3D object, and at least each of some of the slices further includes one or more support regions (312; 322; 332; 342; 352) being adjacent to the body regions (314; 324; 334; 344; 354) and representing a corresponding horizontal cross section of the support construction; manipulating the 3D digital data to create a set of shifted slices (310a; 320a; 330a; 340a; 350a) by performing vertical shifts between the body region and the support region of a same horizontal slice to create printing digital data, wherein at least each of some of the shifted slices include a body region of one of the horizontal slices together with a support region of another one of the horizontal slices; and depositing, in layers, from printing heads , a body material and a support material based on the printing digital data, wherein in a same scan, droplets of the support material and droplets of the body material travel different distances.
Latch needle for a stitch-forming textile machine, the latch needles having a needle shank and a needle latch with a back , the needle shank having a slot for receiving the needle latch and a first contact section adapted to the back , wherein the needle latch is mounted pivotably on the needle shank between an open position and a closed position about a pivot axis and the back in the open position bears on the first contact section , characterised in that the latch needle has a damping spring adapted to the back and/or the first contact section , in order to dampen the application of the needle latch with the back on the first contact section in the open position.