mhurhangee/ep-ind-claims huggingface dataset:
Implantable medical device comprising: - an airtight housing defining an internal space, - at least one electronic circuit board housed in said internal space of the housing, said board supporting electronic components, - a heat sink and shock absorption module, housed in the internal space of the housing and arranged between said electronic circuit board and an internal wall of the housing, and characterized in that said heat sink and shock absorption module comprises: - a first layer of thermal paste placed in the internal space of the housing and deposited on said electronic circuit board, - a second, metallic layer with high thermal conductivity deposited on said first layer, - a third layer of thermal paste deposited on said second layer and arranged to bear against said internal wall of the housing, said third layer comprising a structure having several cavities distributed over the entire zone of contact of the third layer with the internal wall of the housing. - an airtight housing defining an internal space, - at least one electronic circuit board housed in said internal space of the housing, said board supporting electronic components, - a heat sink and shock absorption module, housed in the internal space of the housing and arranged between said electronic circuit board and an internal wall of the housing, and - a first layer of thermal paste placed in the internal space of the housing and deposited on said electronic circuit board, - a second, metallic layer with high thermal conductivity deposited on said first layer, - a third layer of thermal paste deposited on said second layer and arranged to bear against said internal wall of the housing, said third layer comprising a structure having several cavities distributed over the entire zone of contact of the third layer with the internal wall of the housing.
Fluidized-bed reactor for producing granular polycrystalline silicon, comprising a segmented reactor tube disposed between a reactor top and a reactor bottom, a heating facility, at least one nozzle for supplying fluidizing gas, at least one nozzle for supplying silicon-containing reaction gas, a facility for supplying silicon seed particles, a product removal line, and an offgas removal line, characterized in that the reactor tube comprises a base segment and at least one spacer segment, there being disposed, between base segment and spacer segment, a flat seal made from a carbon-containing material, the spacer segment consisting of a material which within a temperature range from 100 to 950°C has a thermal conductivity of < 2 W/mK.
Cellulose nanofibers, wherein the cellulose nanofibers are derived from defibrated cellulose raw material selected from cotton, hemp and pulp, in a solution containing an ionic liquid and a first organic solvent, an average polymerization degree is 600 to 30000, an aspect ratio is 20 to 10000, an average diameter is 1 nm to 800 nm, and the cellulose nanofibers have an Iβ-type crystal peak in an X-ray diffraction pattern, and wherein the average polymerization degree, the aspect ratio and the average diameter are measured as disclosed in the description, characterized in that the hydroxyl groups of the cellulose nanofibers are esterified or etherified by a modification group, wherein 0.01% to 50% of the total hydroxyl groups are chemically modified by the modification group, and a saturated absorptivity of the cellulose nanofibers in a second organic solvent having an SP value of 8 to 13 is 300% by mass to 5000% by mass.
A fluid compressor device comprising: a housing (103,106,107,109); a rotating group (102,111,113,115) supported for rotation within the housing about an axis, the rotating group including a compressor wheel; an e-machine (114,112) that is operably coupled to the rotating group and configured as at least one of a motor and a generator; and an integrated controller of the e-machine and supported by the housing, the integrated controller having an arcuate support structure that extends about the axis, the support structure having a seat that is disposed at a radial area (204,206) of the arcuate support structure, the integrated controller having an electronics component supported on the seat, the integrated controller including a retainer clip, characterized in that the retainer clip is resiliently flexible between a neutral position and a flexed position, and the retainer clip is fixed to the support structure in the flexed position to retain the electronics component on the seat. a housing (103,106,107,109); a rotating group (102,111,113,115) supported for rotation within the housing about an axis, the rotating group including a compressor wheel; an e-machine (114,112) that is operably coupled to the rotating group and configured as at least one of a motor and a generator; and an integrated controller of the e-machine and supported by the housing, the integrated controller having an arcuate support structure that extends about the axis, the support structure having a seat that is disposed at a radial area (204,206) of the arcuate support structure, the integrated controller having an electronics component supported on the seat, the integrated controller including a retainer clip, characterized in that the retainer clip is resiliently flexible between a neutral position and a flexed position, and the retainer clip is fixed to the support structure in the flexed position to retain the electronics component on the seat.
An apparatus comprising: decode circuitry to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, an identification of a location of a second packed data source operand, and an identification of a packed data destination operand, wherein the opcode is to indicate that execution circuitry is to perform, for each data element position of the packed data source (201, 203) operands, a floating point scale operation of a FP8 data element of the first packed data source by multiplying the data element by a power of 2 value, wherein a value of the exponent of the power of 2 value is a floor value of a FP8 data element of the second packed data source, and store a result of the floating point scale operation into a corresponding data element position of the packed data destination operand; and the execution circuitry to execute the decoded instruction according to the opcode, wherein the floor value is a zero when the data element of the second packed data source is a denormal and wherein the data element of the first packed data source is a zero when the data element of the first packed data source is a denormal. decode circuitry to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, an identification of a location of a second packed data source operand, and an identification of a packed data destination operand, wherein the opcode is to indicate that execution circuitry is to perform, for each data element position of the packed data source (201, 203) operands, a floating point scale operation of a FP8 data element of the first packed data source by multiplying the data element by a power of 2 value, wherein a value of the exponent of the power of 2 value is a floor value of a FP8 data element of the second packed data source, and store a result of the floating point scale operation into a corresponding data element position of the packed data destination operand; and the execution circuitry to execute the decoded instruction according to the opcode, wherein the floor value is a zero when the data element of the second packed data source is a denormal and wherein the data element of the first packed data source is a zero when the data element of the first packed data source is a denormal.
A bidirectional inter prediction method for use in video picture coding, comprising: obtaining indication information by parsing a bitstream, wherein the indication information includes an identifier, mv_derived_flag_10; when the identifier, mv_derived_flag_10 is 1: obtaining a first motion information; and determining a second motion information based on the first motion information; and when the identifier, mv_derived_flag_10 is 0: parsing a second identifier, mv_derived_flag_11, and when the second identifier, mv_derived_flag_11 is 1: obtaining the second motion information; and determining the first motion information based on the second motion information, wherein the first motion information is motion information of a current picture block in a first direction, and the second motion information is motion information of the current picture block in a second direction; and determining prediction samples of the current picture block based on the first motion information and the second motion information. obtaining indication information by parsing a bitstream, wherein the indication information includes an identifier, mv_derived_flag_10; when the identifier, mv_derived_flag_10 is 1: obtaining a first motion information; and determining a second motion information based on the first motion information; and obtaining a first motion information; and determining a second motion information based on the first motion information; and when the identifier, mv_derived_flag_10 is 0: parsing a second identifier, mv_derived_flag_11, and when the second identifier, mv_derived_flag_11 is 1: obtaining the second motion information; and determining the first motion information based on the second motion information, wherein the first motion information is motion information of a current picture block in a first direction, and the second motion information is motion information of the current picture block in a second direction; and determining prediction samples of the current picture block based on the first motion information and the second motion information. parsing a second identifier, mv_derived_flag_11, and when the second identifier, mv_derived_flag_11 is 1: obtaining the second motion information; and determining the first motion information based on the second motion information, obtaining the second motion information; and determining the first motion information based on the second motion information, wherein the first motion information is motion information of a current picture block in a first direction, and the second motion information is motion information of the current picture block in a second direction; and determining prediction samples of the current picture block based on the first motion information and the second motion information.
A hydrophilic vapor deposition film comprising at least phosphorus, oxygen, and two or more metal elements as constituent elements, wherein at least one of the metal elements is a metal element capable of becoming trivalent, wherein a content of the metal element capable of becoming trivalent is 0.7 to 80.0 mass% based on a total amount of phosphorus and metal elements contained in the hydrophilic vapor deposition film, and wherein the content of phosphorous in the hydrophilic vapor deposition film is 19.0 to 99.0 mass%, characterized in that the metal element capable of becoming trivalent is at least one selected from the group consisting of cerium, iron, gallium, and bismuth. wherein at least one of the metal elements is a metal element capable of becoming trivalent, wherein a content of the metal element capable of becoming trivalent is 0.7 to 80.0 mass% based on a total amount of phosphorus and metal elements contained in the hydrophilic vapor deposition film, and wherein the content of phosphorous in the hydrophilic vapor deposition film is 19.0 to 99.0 mass%, characterized in that the metal element capable of becoming trivalent is at least one selected from the group consisting of cerium, iron, gallium, and bismuth.
Projection exposure method for exposing a substrate arranged in the region of an image plane of a projection lens with at least one image of a pattern of a mask arranged in the region of an object plane of the projection lens, including the following steps: coating the substrate with a radiation-sensitive multilayer system, which comprises a first photoresist layer composed of a first photoresist material and, between the first photoresist layer and the substrate, a separately applied second photoresist layer composed of a second photoresist material, wherein the first photoresist material has a relatively high first sensitivity in a first wavelength range and has a second sensitivity that is lower in relation to the first sensitivity in a second wavelength range, which is separate from the first wavelength range, and the second photoresist material has an exposure-appropriate second sensitivity in the second wavelength range; exposing the substrate coated with the radiation-sensitive multilayer system with the image of the pattern using radiation from a radiation source with a working wavelength range comprising the first wavelength range and the second wavelength range; wherein a projection lens is used, which is corrected for the first wavelength range and the second wavelength range such that a first focus region (FOCI) associated with the first wavelength range is offset with respect to a second focus region associated with the second wavelength range by a focus distance (ΔFOC), wherein the first focus region (FOCI) lies within the first photoresist layer and the second focus region lies within the second photoresist layer. coating the substrate with a radiation-sensitive multilayer system, which comprises a first photoresist layer composed of a first photoresist material and, between the first photoresist layer and the substrate, a separately applied second photoresist layer composed of a second photoresist material, wherein the first photoresist material has a relatively high first sensitivity in a first wavelength range and has a second sensitivity that is lower in relation to the first sensitivity in a second wavelength range, which is separate from the first wavelength range, and the second photoresist material has an exposure-appropriate second sensitivity in the second wavelength range; exposing the substrate coated with the radiation-sensitive multilayer system with the image of the pattern using radiation from a radiation source with a working wavelength range comprising the first wavelength range and the second wavelength range; wherein a projection lens is used, which is corrected for the first wavelength range and the second wavelength range such that a first focus region (FOCI) associated with the first wavelength range is offset with respect to a second focus region associated with the second wavelength range by a focus distance (ΔFOC), wherein the first focus region (FOCI) lies within the first photoresist layer and the second focus region lies within the second photoresist layer.
A cooling device comprising: a nitrogen generator generating nitrogen enriched air, a storage compartment into which the nitrogen-enriched air is delivered by the nitrogen generator, and an ionizer disposed inside the storage compartment increasing the amount of negatively charged ions by ionizing the air in its vicinity and providing the formation of an unfavorable medium for the reproduction of the microorganisms thereby removing the microorganisms from the storage compartment.
A device for motorically and manually adjusting a second vehicle part relative to a first vehicle part in an adjustment range, comprising at least - a driving device by means of which the second vehicle part is motorically adjustable both in opening direction and in opposite direction in a closing direction and can be held in an adjustment position within the adjustment range between a maximally open and a completely closed position relative to the first vehicle part, wherein the driving device is switchable between a holding position and a release position and in the holding position the second vehicle part is held in an adjustment position via the driving device and in the release position is manually adjustable within the adjustment range, and - an electronic control device by means of which the driving device is switchable from the holding position into the release position in response to an operating event triggered by a user, in order to permit a manual adjustment of the second vehicle part by the user relative to the first vehicle part, characterized in that the electronic control device is configured to, in response to an operating event triggered by a user, initially actuate the driving device for a power-operated adjustment out of the adjustment position in that adjustment direction (S, O) in which the manual adjustment is to be made before switching into the release position, and the electronic control device is coupled with at least one sensor unit by means of which an operating event triggered by a user is electronically detectable, via which it is signaled by the user in what of the two possible adjustment directions (S, O) the user wants to manually adjust the second vehicle part. - a driving device by means of which the second vehicle part is motorically adjustable both in opening direction and in opposite direction in a closing direction and can be held in an adjustment position within the adjustment range between a maximally open and a completely closed position relative to the first vehicle part, wherein the driving device is switchable between a holding position and a release position and in the holding position the second vehicle part is held in an adjustment position via the driving device and in the release position is manually adjustable within the adjustment range, and - an electronic control device by means of which the driving device is switchable from the holding position into the release position in response to an operating event triggered by a user, in order to permit a manual adjustment of the second vehicle part by the user relative to the first vehicle part,
A process comprising: (a) introducing an oxidant stream comprising molecular oxygen into a reaction zone of a bubble column reactor; (b) introducing a feed stream comprising para-xylene into said reaction zone, wherein said reaction zone has a maximum diameter, wherein at least 30 weight percent of said para-xylene enters said reaction zone within 1.5D of the lowest location where said molecular oxygen enters said reaction zone, wherein at least 75 weight percent of said para-xylene is introduced within 5D of the lowest location where said molecular oxygen enters said reaction zone; and (c) oxidizing said para-xylene in a liquid phase of a multi-phase reaction medium contained in said reaction zone to thereby form crude terephthalic acid, wherein said oxidizing causes at least 50 weight percent of said para-xylene to form solids in said reaction medium; wherein said feed stream is introduced into said reaction zone via a plurality of feed openings, wherein at least two of said feed openings are vertically spaced from one another by at least 0.5D; and wherein said reaction medium has a maximum height, a maximum width, and an H:W ratio of at least 3:1 wherein a majority of said molecular oxygen enters said reaction zone within 0.25W of the bottom of said reaction zone. (a) introducing an oxidant stream comprising molecular oxygen into a reaction zone of a bubble column reactor; (b) introducing a feed stream comprising para-xylene into said reaction zone, wherein said reaction zone has a maximum diameter, wherein at least 30 weight percent of said para-xylene enters said reaction zone within 1.5D of the lowest location where said molecular oxygen enters said reaction zone, wherein at least 75 weight percent of said para-xylene is introduced within 5D of the lowest location where said molecular oxygen enters said reaction zone; and (c) oxidizing said para-xylene in a liquid phase of a multi-phase reaction medium contained in said reaction zone to thereby form crude terephthalic acid, wherein said oxidizing causes at least 50 weight percent of said para-xylene to form solids in said reaction medium; wherein said feed stream is introduced into said reaction zone via a plurality of feed openings, wherein at least two of said feed openings are vertically spaced from one another by at least 0.5D; and wherein said reaction medium has a maximum height, a maximum width, and an H:W ratio of at least 3:1 wherein a majority of said molecular oxygen enters said reaction zone within 0.25W of the bottom of said reaction zone.
A network node transmission method, comprising: receiving a downlink optical signal sent by an optical line terminal OLT over a downlink optical channel, wherein the downlink optical signal is obtained through digital-to-analog conversion and electrical-to-optical conversion conversion performed on a first downlink multiplexing digital signal, and in the first downlink multiplexing digital signal, multiple customer premises equipments CPE correspond to respective OFDM symbol timeslots and/or subcarriers; and performing optical-to-electrical conversion and analog-to-digital conversion on the downlink optical signal to obtain a second downlink multiplexing digital signal, demultiplexing the second downlink multiplexing digital signal to obtain downlink OFDM symbols for each CPE of the multiple CPEs, performing digital-to-analog conversion on the downlink OFDM symbols of each CPE to obtain a downlink analog signal of each CPE, and sending the downlink analog signal of each CPE to each CPE over a downlink electrical channel corresponding to each CPE. receiving a downlink optical signal sent by an optical line terminal OLT over a downlink optical channel, wherein the downlink optical signal is obtained through digital-to-analog conversion and electrical-to-optical conversion conversion performed on a first downlink multiplexing digital signal, and in the first downlink multiplexing digital signal, multiple customer premises equipments CPE correspond to respective OFDM symbol timeslots and/or subcarriers; and performing optical-to-electrical conversion and analog-to-digital conversion on the downlink optical signal to obtain a second downlink multiplexing digital signal, demultiplexing the second downlink multiplexing digital signal to obtain downlink OFDM symbols for each CPE of the multiple CPEs, performing digital-to-analog conversion on the downlink OFDM symbols of each CPE to obtain a downlink analog signal of each CPE, and sending the downlink analog signal of each CPE to each CPE over a downlink electrical channel corresponding to each CPE.
A method, comprising the steps of: receiving a measurement report for a handover, at a source evolved Node B eNodeB of a Long Term Evolution LTE communication network, from a user equipment UE served by the source eNodeB; determining if the UE is dormant; determining if a current load level for the handover is over a threshold; discarding the measurement report if the current load level is over the threshold and the UE is dormant; and triggering the handover based on the measurement report if the current load level is not over the threshold or the UE is not dormant. receiving a measurement report for a handover, at a source evolved Node B eNodeB of a Long Term Evolution LTE communication network, from a user equipment UE served by the source eNodeB; determining if the UE is dormant; determining if a current load level for the handover is over a threshold; discarding the measurement report if the current load level is over the threshold and the UE is dormant; and triggering the handover based on the measurement report if the current load level is not over the threshold or the UE is not dormant.