mhurhangee/ep-ind-claims huggingface dataset:
A power receiver for transmitting a message using a power transmission signal, the power receiver comprising: a power receiving unit that is configured to receive a wireless power signal generated by a power transmitter and modulated by another power receiver; a demodulation unit (113,293) that is configured to demodulate the received wireless power signal; a modulation unit (113, 293) that is configured to modulate the received wireless power signal; and a controller that is configured to decode a periodically transmitted first packet from the wireless power signal demodulated by the demodulation unit (113, 293), determine whether or not a second packet is transmittable without collision with the first packet, and control the modulation unit (113, 293) to modulate the received wireless power signal to include the second packet therein, when the second packet is transmittable according to the determination result. a power receiving unit that is configured to receive a wireless power signal generated by a power transmitter and modulated by another power receiver; a demodulation unit (113,293) that is configured to demodulate the received wireless power signal; a modulation unit (113, 293) that is configured to modulate the received wireless power signal; and a controller that is configured to decode a periodically transmitted first packet from the wireless power signal demodulated by the demodulation unit (113, 293), determine whether or not a second packet is transmittable without collision with the first packet, and control the modulation unit (113, 293) to modulate the received wireless power signal to include the second packet therein, when the second packet is transmittable according to the determination result.
Use of a compound represented by the following formula as a label for a diagnostic or therapeutic substance, wherein during the use of said compound represented by the following formula it is bound by mutant streptavidin comprising the amino acid sequence shown in any one of SEQ ID NOS: 3-12, wherein X1 and X2 each independently represent O or NH; Y represents C or S; Z represents O, S or NH; V represents S or S + -O -; n represents an integer of 0 or 1; m represents an integer of 1 to 10; and W represents -OH, -NH(CH 2) p COOH, or -NH(CH 2) q C(NH 2)COOH, wherein p and q each independently represent an integer of 1 to 10.
A combustion control device for an engine having a piston disposed so as to be able to move up and down in a reciprocating manner within a cylinder and performing premixed charge compression ignition combustion, the device comprising: a fuel injection valve for injecting a fuel into a combustion chamber formed by the cylinder and piston; and injection valve control means for controlling the fuel injection valve so as to inject the fuel a plurality of times in portions; wherein an upper part of the piston is provided with a recessed cavity forming a part of the combustion chamber; wherein an upper end part of an inner wall face of the piston forming the cavity is provided with a lip projecting inwardly of the piston; wherein the injection valve control means executes first control means (8, 30, 33, S101, S102) for controlling the fuel injection valve so as to start an initial fuel injection when the piston arrives at a first elevation point before a compression top dead center, and executes second control means (8, 33, S107, S108) for controlling the fuel injection valve together so as to terminate a final fuel injection by the time when the piston arrives at a second elevation point located closer to the compression dead center than is the first elevation point; wherein the first elevation point is such a position that the fuel injected from the fuel injection valve reaches the lip but falls short of reaching a bore wall of the cylinder; and wherein the second elevation point is such a position that the fuel injected from the fuel injection valve reaches the lip but falls short of reaching a region under the lip in the cavity. a fuel injection valve for injecting a fuel into a combustion chamber formed by the cylinder and piston; and injection valve control means for controlling the fuel injection valve so as to inject the fuel a plurality of times in portions; wherein an upper part of the piston is provided with a recessed cavity forming a part of the combustion chamber; wherein an upper end part of an inner wall face of the piston forming the cavity is provided with a lip projecting inwardly of the piston; wherein the injection valve control means executes first control means (8, 30, 33, S101, S102) for controlling the fuel injection valve so as to start an initial fuel injection when the piston arrives at a first elevation point before a compression top dead center, and executes second control means (8, 33, S107, S108) for controlling the fuel injection valve together so as to terminate a final fuel injection by the time when the piston arrives at a second elevation point located closer to the compression dead center than is the first elevation point; wherein the first elevation point is such a position that the fuel injected from the fuel injection valve reaches the lip but falls short of reaching a bore wall of the cylinder; and
A system for processing, managing and extracting products recovered for reuse as feedstock products in a rubber mixing cycle, characterized in that the system comprises: a system for processing products recovered for reuse originating from at least one complexed-product manufacturing system, wherein the complexed products comprise semi-finished products made up of at least two rubber mixtures having different properties and the recovered products comprise complexed products that are recovered for reuse, the processing system comprising one or more containers filled with corresponding products recovered for reuse, each container containing only one recovered product type at any one time such that its volume is more or less constant; an identification and gripping system comprising an identification and gripping means; a management system downstream of the complexed-product manufacturing system, the management system comprising a system for managing pallets of containers of products recovered for reuse; and a demoulding and extraction system downstream of the management system. a system for processing products recovered for reuse originating from at least one complexed-product manufacturing system, wherein the complexed products comprise semi-finished products made up of at least two rubber mixtures having different properties and the recovered products comprise complexed products that are recovered for reuse, the processing system comprising one or more containers filled with corresponding products recovered for reuse, each container containing only one recovered product type at any one time such that its volume is more or less constant; an identification and gripping system comprising an identification and gripping means; a management system downstream of the complexed-product manufacturing system, the management system comprising a system for managing pallets of containers of products recovered for reuse; and a demoulding and extraction system downstream of the management system.
A composition for embryo culture, which contains a constitution shown in Table A below. Table A Components mM L-Alanine 0.297 ± 0.089 L-Asparagine 0.015 ± 0.005 L-Aspartic acid 0.120 ± 0.036 L-Glutamic acid 0.550 ± 0.165 Glycine 0.979 ± 0.294 L(-)-Proline 0.105 ± 0.032 L-Serine 0.176 ± 0.053 L(+)-Arginine 0.108 ± 0.032 L(-)-Cystine 0.048 ± 0.014 L-Histidine 0.053 ± 0.016 L(+)-Isoleucine 0.036 ± 0.011 L-Leucine 0.081 ± 0.024 L(+)-Lysine 0.176 ± 0.053 L-Methionine 0.022 ± 0.007 L(-)-Phenylalanine 0.045 ± 0.013 L(-)-Threonine 0.109 ± 0.033 L-Tryptophan 0.018 ± 0.005 L-Tyrosine 0.048 ± 0.014 L-Valine 0.108 ± 0.032 L-Glutamine or glutamine derivative 0.398 ± 0.119 Taurine 1.412 ± 0.424 wherein the glutamine derivative is glycyl-L-glutamine, L-alanyl-L-glutamine, L-leucyl-L-glutamine, L-valyl-L-glutamine or L-isoleucyl-L-glutamine.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, at least one synchronization signal block, SSB; receiving, from the base station, configuration information including information on a number of SSBs associated with one random access channel, RACH, occasion; identifying an RACH occasion corresponding to an SSB of the at least one SSB based on the configuration information; and transmitting a random access preamble based on the RACH occasion, wherein the number of SSBs are assigned to the one RACH occasion according to a frequency domain first criterion wherein a frequency resource of the RACH occasion is used before a time resource of the RACH occasion for assigning the SSBs to the one RACH occasion, wherein a frequency domain index n RO of the RACH occasion corresponding to the SSB is calculated as n RO = ⌊ ⌊ n SS / S ⌋ / N RO ⌋, and wherein a time domain index m RO of the RACH occasion corresponding to the SSB is calculated as m RO = mod ⌊ n SS / S ⌋, N RO, wherein n ss is an index of the SSB starting from zero, S is the number of SSBs associated with one RACH occasion and N RO is a number of available RACH occasions in the frequency domain, and wherein └ ┘ denotes a floor operation and mod () denotes a modulo operation. receiving, from a base station, at least one synchronization signal block, SSB; receiving, from the base station, configuration information including information on a number of SSBs associated with one random access channel, RACH, occasion; identifying an RACH occasion corresponding to an SSB of the at least one SSB based on the configuration information; and transmitting a random access preamble based on the RACH occasion, wherein the number of SSBs are assigned to the one RACH occasion according to a frequency domain first criterion wherein a frequency resource of the RACH occasion is used before a time resource of the RACH occasion for assigning the SSBs to the one RACH occasion, wherein a frequency domain index n RO of the RACH occasion corresponding to the SSB is calculated as n RO = ⌊ ⌊ n SS / S ⌋ / N RO ⌋, and wherein a time domain index m RO of the RACH occasion corresponding to the SSB is calculated as m RO = mod ⌊ n SS / S ⌋, N RO, wherein n ss is an index of the SSB starting from zero, S is the number of SSBs associated with one RACH occasion and N RO is a number of available RACH occasions in the frequency domain, and wherein └ ┘ denotes a floor operation and mod () denotes a modulo operation.
A method of operating an access terminal to receive broadcast content in a multiple access network, comprising: receiving a plurality of transmissions of content provided by a plurality of broadcast servers, wherein a broadcast server is associated with one or more serving servers, wherein: each serving server of the one or more serving servers provides a transmission of a respective content provided by the broadcast server associated with the one or more serving servers; and transmits the same selected broadcast content at the same time on the same physical channel where the energy of the set can be combined. determining a broadcast server weight for each of the plurality of broadcast servers, wherein the determining comprises determining an RF weight based on the combined weights of an RF component of a physical channel for each of the one or more serving servers; and ranking the plurality of broadcast servers by their respective broadcast server weights. receiving a plurality of transmissions of content provided by a plurality of broadcast servers, wherein a broadcast server is associated with one or more serving servers, wherein: each serving server of the one or more serving servers provides a transmission of a respective content provided by the broadcast server associated with the one or more serving servers; and transmits the same selected broadcast content at the same time on the same physical channel where the energy of the set can be combined. determining a broadcast server weight for each of the plurality of broadcast servers, wherein the determining comprises determining an RF weight based on the combined weights of an RF component of a physical channel for each of the one or more serving servers; and ranking the plurality of broadcast servers by their respective broadcast server weights. each serving server of the one or more serving servers provides a transmission of a respective content provided by the broadcast server associated with the one or more serving servers; and transmits the same selected broadcast content at the same time on the same physical channel where the energy of the set can be combined. determining a broadcast server weight for each of the plurality of broadcast servers, wherein the determining comprises determining an RF weight based on the combined weights of an RF component of a physical channel for each of the one or more serving servers; and ranking the plurality of broadcast servers by their respective broadcast server weights.
Rotating pump with at least one driven conveying element (10, 11), which is disposed in a product chamber through which the product to be conveyed flows and is driven by means of a shaft (12, 13) extending into the product chamber from the exterior, wherein the shaft (12, 13) is sealed against a wall of the product chamber, and wherein the seal is in the form of a mechanical seal (51, 52) to be mounted on the product side and comprises a positive-locking positional securing means in order to prevent rotation of the mechanical seal (51, 52) and displacement of the mechanical seal (51, 52) in the direction of the product chamber, characterized in that the positional securing means comprises a securing element extending perpendicularly to an axial direction of the shaft (12, 13) through the wall, wherein the securing element comprises a pin guided through a bore of the wall, the bore having an enlarged diameter at an end remote from the seal and being provided with an internal thread, and the pin being received with an end remote from the seal in a sealing screw which is screwed into the bore.
A solar cell connecting apparatus for manufacturing solar cell strings from individual crystalline solar cells and electrically conductive connectors, comprising a first module for bringing together solar cells and connectors (12, 13); a second module adjoining the first module for connecting the connectors to the solar cells; a third module for transporting the solar cells from the first module through the second module, characterised by a further module provided in front of the first module and having a screen printing unit for applying a conductive adhesive to at least one side of a solar cell, and a handling device adapted to guide the solar cell provided with the conductive adhesive into the first module and for transport through the third module.
An organic light-emitting device (OLED) comprising at least: a first electrode; a second electrode; an organic light emissive layer arranged between said first electrode and said second electrode; and a patterned organic charge transport layer arranged between said first electrode and said emissive layer, wherein the patterned organic charge transport layer has a refractive index which is lower than the refractive indices of any other of said layers of the OLED, wherein the spatial distribution of the patterned organic charge transport layer is such that constructive interference of light originating from local emission zones in the organic light emissive layer occurs, wherein such spatial distribution of local emission zones allows controlling the direction of constructive interference of light such that constructive interference of light is achievable in directions having an incidence angle on the interface between the organic light emissive layer and the patterned organic charge transport layer which is smaller than the critical angle of total internal reflection and destructive interference is achievable in directions having an incidence angle which is larger than the critical angle of total internal reflection, characterised in that the patterned organic charge transport layer is discontinuous.
A method for manufacturing an array-type double-side light-emitting diode device, comprising the following steps performed in this order: S202, attaching an array of first transparent conductive layers to an array of light-emitting wafers by means of a first anisotropic conductive adhesive layer; S204, attaching the array of light-emitting wafers to an array of second transparent conductive layers by means of a second anisotropic conductive adhesive layer; S206, laminating the array of first transparent conductive layers, the array of light-emitting wafers and the array of second transparent conductive layers such that the array of first transparent conductive layers and the array of second transparent conductive layers are electrically connected to the array of light-emitting wafers; characterized in that the method comprises the subsequent step S208, coating a first fluorescent layer or quantum dot layer and a second fluorescent layer or quantum dot layer respectively on a surface of the array of first transparent conductive layers and a surface of the array of second transparent conductive layers, and coating a first protective layer and a second protective layer respectively on the first fluorescent layer or quantum dot layer and the second fluorescent layer or quantum dot layer. S202, attaching an array of first transparent conductive layers to an array of light-emitting wafers by means of a first anisotropic conductive adhesive layer; S204, attaching the array of light-emitting wafers to an array of second transparent conductive layers by means of a second anisotropic conductive adhesive layer; S206, laminating the array of first transparent conductive layers, the array of light-emitting wafers and the array of second transparent conductive layers such that the array of first transparent conductive layers and the array of second transparent conductive layers are electrically connected to the array of light-emitting wafers; characterized in that the method comprises the subsequent step S208, coating a first fluorescent layer or quantum dot layer and a second fluorescent layer or quantum dot layer respectively on a surface of the array of first transparent conductive layers and a surface of the array of second transparent conductive layers, and coating a first protective layer and a second protective layer respectively on the first fluorescent layer or quantum dot layer and the second fluorescent layer or quantum dot layer.
Elastic bearing element having at least one first body, having at least one second body, and having at least one elastomer element arranged in the direction of a force flow between the first body and the second body, furthermore having at least one sensor configured and arranged to detect directly or indirectly a force in the force flow between the first body and the second body, wherein the sensor comprises at least one elastic layer, at least one first electrode and at least one second electrode,, wherein the elastic layer is arranged at least in sections between the first electrode and the second electrode, wherein the sensor is arranged in the force flow between the first body and the second body such that, by means of the force, the distance between the two electrodes (21, 22) can be altered and, by this means, the force can be at least partly detected, characterized in that the elastic layer comprises a rubber mixture comprising at least one silicone rubber, as the sole rubber component, and hollow microspheres, wherein the sensor is embodied in an elongate fashion, wherein the sensor, at least in sections in the direction of its elongate extent, is arranged at least substantially transversely with respect to the direction of the force flow. having at least one first body, having at least one second body, and having at least one elastomer element arranged in the direction of a force flow between the first body and the second body, furthermore having at least one sensor configured and arranged to detect directly or indirectly a force in the force flow between the first body and the second body, wherein the sensor comprises at least one elastic layer, at least one first electrode and at least one second electrode,, wherein the elastic layer is arranged at least in sections between the first electrode and the second electrode, wherein the sensor is arranged in the force flow between the first body and the second body such that, by means of the force, the distance between the two electrodes (21, 22) can be altered and, by this means, the force can be at least partly detected, characterized in that the elastic layer comprises a rubber mixture comprising at least one silicone rubber, as the sole rubber component, and hollow microspheres, wherein the sensor is embodied in an elongate fashion, wherein the sensor, at least in sections in the direction of its elongate extent, is arranged at least substantially transversely with respect to the direction of the force flow.
A method of forming an elastic seal member for a prefilled syringe including a drug-containing volume adapted to be filled with a liquid drug, the elastic seal member being adapted to seal the drug volume and having a piercing portion to be pierced, in use, with a needle, characterised in that the method comprises the steps of: providing a seal body of an elastic material, the seal body comprising a recess provided on the front surface of the seal body, the recess being arranged to serve as the piercing portion; providing a protective film located on a surface portion of the seal body closing the drug-containing volume; providing a moulding die adapted to hold the protective film, the moulding die having a projection complementary in shape to the recess; inserting the seal body and the protective film into the moulding die; holding the protective film between a peripheral portion of the front surface of the seal body and the moulding die; deforming the protective film by bringing the projection into abutment with the protective film so that the piercing portion of the film opposed to the recess is locally stretched to a greater extent and has thereby a smaller thickness when the film is laminated to the seal body. providing a seal body of an elastic material, the seal body comprising a recess provided on the front surface of the seal body, the recess being arranged to serve as the piercing portion; providing a protective film located on a surface portion of the seal body closing the drug-containing volume; providing a moulding die adapted to hold the protective film, the moulding die having a projection complementary in shape to the recess; inserting the seal body and the protective film into the moulding die; holding the protective film between a peripheral portion of the front surface of the seal body and the moulding die; deforming the protective film by bringing the projection into abutment with the protective film so that the piercing portion of the film opposed to the recess is locally stretched to a greater extent and has thereby a smaller thickness when the film is laminated to the seal body.