mhurhangee/ep-ind-claims huggingface dataset:
A textile material measuring device comprising: a first light source section adapted to irradiate first light to a textile material; a second light source section adapted to irradiate second light to the textile material; a first light receiving section adapted to receive reflected light, the reflected light being the light from the first light source section reflected by the textile material; a second light receiving section adapted to receive reflected light and transmitted light, the reflected light being the light from the second light source section reflected by the textile material, and the transmitted light being the light from the second light source section that has been transmitted through the textile material; a first detecting section adapted to detect a foreign particle in the textile material in accordance with the reflected light received by the first light receiving section and the second light receiving section; and a second detecting section is adapted to detect thickness of the textile material in accordance with the transmitted light received by the second light receiving section, characterized in that the first light is first-color light and the second light is second-color light being complementary color with respect to the first-color light or wherein the first light is yellow light and the second light is ultraviolet light. a first light source section adapted to irradiate first light to a textile material; a second light source section adapted to irradiate second light to the textile material; a first light receiving section adapted to receive reflected light, the reflected light being the light from the first light source section reflected by the textile material; a second light receiving section adapted to receive reflected light and transmitted light, the reflected light being the light from the second light source section reflected by the textile material, and the transmitted light being the light from the second light source section that has been transmitted through the textile material; a first detecting section adapted to detect a foreign particle in the textile material in accordance with the reflected light received by the first light receiving section and the second light receiving section; and a second detecting section is adapted to detect thickness of the textile material in accordance with the transmitted light received by the second light receiving section, characterized in that the first light is first-color light and the second light is second-color light being complementary color with respect to the first-color light or wherein the first light is yellow light and the second light is ultraviolet light.
A method for identifying a small non-coding RNA (ncRNA) biomarker pair, the method comprising - determining the quantity of two different varieties of said ncRNA in a first bodily fluid sample obtained from a first individual reference and in a second bodily fluid sample obtained from a second individual reference, wherein said first individual reference has an altered health status from said second individual reference, - determining the ratio of the two different varieties in the first bodily fluid sample, - determining the ratio of the two different varieties in the second bodily fluid sample, - comparing the ratios from said first and second bodily fluid sample, and - identifying the two different varieties of said ncRNA as a biomarker pair when the ratio is altered between said first and second bodily fluid sample, wherein the first and second varieties are selected from the canonical ncRNA; the ncRNA trimmed at the 5' or 3' end and/or extended at the 5' or 3' end; and the ncRNA with a 3' non-templated nucleotide addition, optionally trimmed at the 5' or 3' end or extended at the 5'or 3'end; wherein when said ncRNA is not an miRNA the first variety is selected from the canonical ncRNA and the ncRNA with a 3' non-templated nucleotide addition and the second variety is the ncRNA with a 3' non-templated nucleotide addition, wherein the ncRNA is selected from miRNA, tRNA, and Y-RNA. - determining the quantity of two different varieties of said ncRNA in a first bodily fluid sample obtained from a first individual reference and in a second bodily fluid sample obtained from a second individual reference, wherein said first individual reference has an altered health status from said second individual reference, - determining the ratio of the two different varieties in the first bodily fluid sample, - determining the ratio of the two different varieties in the second bodily fluid sample, - comparing the ratios from said first and second bodily fluid sample, and - identifying the two different varieties of said ncRNA as a biomarker pair when the ratio is altered between said first and second bodily fluid sample, wherein the first and second varieties are selected from the canonical ncRNA; the ncRNA trimmed at the 5' or 3' end and/or extended at the 5' or 3' end; and the ncRNA with a 3' non-templated nucleotide addition, optionally trimmed at the 5' or 3' end or extended at the 5'or 3'end; wherein when said ncRNA is not an miRNA the first variety is selected from the canonical ncRNA and the ncRNA with a 3' non-templated nucleotide addition and the second variety is the ncRNA with a 3' non-templated nucleotide addition, wherein the ncRNA is selected from miRNA, tRNA, and Y-RNA.
An elevator group supervision controlling apparatus that supervises a plurality of elevator apparatuses as a group based on respective information from: a landing call registering apparatus that is disposed on a landing; and a remote call registering apparatus that is disposed at a position that is distant from the landing, the elevator group supervision controlling apparatus being characterized in that the elevator group supervision controlling apparatus is configured to: predict respective standby times of cars by comparing: a response time of each car of the elevator apparatuses to a car call from the remote call registering apparatus; and a passenger moving time that is found based on a positional relationship between the remote call registering apparatus and the landing, and generate an informing instruction that communicates to the remote call registering apparatus reinput requesting information that recommends an input operation at the landing call registering apparatus if the standby times of all of the car are greater than or equal to a predetermined time interval. predict respective standby times of cars by comparing: a response time of each car of the elevator apparatuses to a car call from the remote call registering apparatus; and a passenger moving time that is found based on a positional relationship between the remote call registering apparatus and the landing, and generate an informing instruction that communicates to the remote call registering apparatus reinput requesting information that recommends an input operation at the landing call registering apparatus if the standby times of all of the car are greater than or equal to a predetermined time interval. a response time of each car of the elevator apparatuses to a car call from the remote call registering apparatus; and a passenger moving time that is found based on a positional relationship between the remote call registering apparatus and the landing, and generate an informing instruction that communicates to the remote call registering apparatus reinput requesting information that recommends an input operation at the landing call registering apparatus if the standby times of all of the car are greater than or equal to a predetermined time interval.
A solid particulate catalyst which is useful as a heterogeneous catalyst, comprising 5% to 90% by weight of copper oxide and a metal oxide solid carrier material, wherein said solid particulate catalyst is in the form of a powder having a BET surface area greater than 150 m 2 /g, a particle size distribution in which D50 is in the range from 25 - 35 μm, and wherein the D50 after 60 minutes ultrasound treatment is at least 30% of the original value.
A method of making electrochromic insulating glass units, the method comprising: providing a first glass substrate; disposing electrochromic device layers on the first substrate comprising at least counter electrode -CE-, ion conductor -IC-, and electrochromic -EC- layers, and first and second transparent conductive coatings-TCCs- (404, 412) forming the opposing outermost layers of the electro chromic device layers; patterning the electrochromic device layers and cutting the first glass substrate with the electrochromic device layers disposed thereon so as to form a plurality of electrochromic device substrates; providing a plurality of thermally tempered second glass substrates; laminating or bonding the plurality of electrochromic device substrates to the plurality of second glass substrates, respectively; providing a plurality of third glass substrates; forming a plurality of electrochromic insulating glass -IG- units (600a, 600b), each comprising an electrochromic device substrate and a second substrate in substantially parallel, spaced apart relation to a third glass substrate. providing a first glass substrate; disposing electrochromic device layers on the first substrate comprising at least counter electrode -CE-, ion conductor -IC-, and electrochromic -EC- layers, and first and second transparent conductive coatings-TCCs- (404, 412) forming the opposing outermost layers of the electro chromic device layers; patterning the electrochromic device layers and cutting the first glass substrate with the electrochromic device layers disposed thereon so as to form a plurality of electrochromic device substrates; providing a plurality of thermally tempered second glass substrates; laminating or bonding the plurality of electrochromic device substrates to the plurality of second glass substrates, respectively; providing a plurality of third glass substrates; forming a plurality of electrochromic insulating glass -IG- units (600a, 600b), each comprising an electrochromic device substrate and a second substrate in substantially parallel, spaced apart relation to a third glass substrate.
An organizer comprising at least a first, a second and a third section, wherein the first section is connected to the second section, movably relative to the second section, wherein the second section is connected to the third section, movably relative to the third section, and wherein the organizer is designed such that tube parts, when attached to the first section, can be permanently connected without kinking to tube parts of the third section, by being supported or guided in the second section by an additional holding element.
Method of controlling at least one wind turbine in case of a rotational overspeed situation, the method comprising: determining a current state related to the wind turbine; providing data related to the current state as input to a turbine model; predicting a load of at least one wind turbine component (23, 31) and power output of the wind turbine using the turbine model provided with the input for plural control strategies; comparing the predicted load and power output for the plural control strategies; and selecting that control strategy among the plural control strategies that satisfies a target criterion comprising the load and the power output, wherein the overspeed situation is identified if rotational speed of the main rotor of the wind turbine exceeds a first predefined rotational speed limit but is lower than a second predetermined rotational speed limit. determining a current state related to the wind turbine; providing data related to the current state as input to a turbine model; predicting a load of at least one wind turbine component (23, 31) and power output of the wind turbine using the turbine model provided with the input for plural control strategies; comparing the predicted load and power output for the plural control strategies; and selecting that control strategy among the plural control strategies that satisfies a target criterion comprising the load and the power output,
A resin crosslinking agent comprising: a carbodiimide compound having at least one carbodiimide group, having terminals that are capped with at least one compound (hydrophilic organic compound I) selected from a dialkylamino alcohol, a hydroxycarboxylic acid alkyl ester and a (poly)alkylene glycol monoalkyl ether, and with a compound (hydrophilic organic compound II) that has higher hydrophilicity than the hydrophilic organic compound I and has at least one hydroxyl group; a water-miscible liquid compound; and water, wherein the mixing ratio of the water-miscible liquid compound and water is from 2/8 to 9/1 in terms of mass ratio, and wherein the water-miscible liquid compound is at least one selected from the group consist of a compound represented by the general formula, a monoalcohol having from 3 to 10 carbon atoms, an N-substituted amide compound, and 2,2,4-trimethyl-1,3-pentanediol monoisobutylate; R 10 O- (CH 2 -CHR 11 -O) m -R 12 wherein R 10 and R 12 each represent an alkyl group or an acyl group having from 1 to 4 carbon atoms, a hydrogen atom or a phenyl group, R 11 represents a hydrogen atom or a methyl group, and m represents an integer of from 1 to 3. a carbodiimide compound having at least one carbodiimide group, having terminals that are capped with at least one compound (hydrophilic organic compound I) selected from a dialkylamino alcohol, a hydroxycarboxylic acid alkyl ester and a (poly)alkylene glycol monoalkyl ether, and with a compound (hydrophilic organic compound II) that has higher hydrophilicity than the hydrophilic organic compound I and has at least one hydroxyl group; a water-miscible liquid compound; and water, wherein the mixing ratio of the water-miscible liquid compound and water is from 2/8 to 9/1 in terms of mass ratio, and wherein the water-miscible liquid compound is at least one selected from the group consist of a compound represented by the general formula, a monoalcohol having from 3 to 10 carbon atoms, an N-substituted amide compound, and 2,2,4-trimethyl-1,3-pentanediol monoisobutylate; R 10 O- (CH 2 -CHR 11 -O) m -R 12 wherein R 10 and R 12 each represent an alkyl group or an acyl group having from 1 to 4 carbon atoms, a hydrogen atom or a phenyl group, R 11 represents a hydrogen atom or a methyl group, and m represents an integer of from 1 to 3.
An intake air-flow rate detecting apparatus of an internal combustion engine, comprising: a thermal air-flow sensor for detecting an intake air-flow rate (KLFWD) of the internal combustion engine; and response lag compensating means for compensating for a response lag of said air-flow sensor using a first-order lag element based on heat release of said air-flow sensor, wherein said response lag compensating means is adapted to determine a time constant (τ) based on a flow amount of the intake air-flow rate detected by said air-flow sensor, characterized in that said response lag compensating means is adapted to compensate for the response lag of the heat release amount in said air-flow sensor by using the time constant (τ) and is adapted to calculate the intake air-flow rate based on the heat release amount after compensating for the response lag, wherein the response lag is processed based on the heat release amount of a detector part of said air-flow sensor. a thermal air-flow sensor for detecting an intake air-flow rate (KLFWD) of the internal combustion engine; and response lag compensating means for compensating for a response lag of said air-flow sensor using a first-order lag element based on heat release of said air-flow sensor, wherein said response lag compensating means is adapted to determine a time constant (τ) based on a flow amount of the intake air-flow rate detected by said air-flow sensor, characterized in that said response lag compensating means is adapted to compensate for the response lag of the heat release amount in said air-flow sensor by using the time constant (τ) and is adapted to calculate the intake air-flow rate based on the heat release amount after compensating for the response lag, wherein the response lag is processed based on the heat release amount of a detector part of said air-flow sensor.
Magnetic resonance tomography apparatus with a line for an electrical connection in a magnetic resonance tomography apparatus with a connector to the magnetic resonance tomography apparatus, wherein the line comprises an electrical interference conductor, which is configured to pick up an electromagnetic interference signal from the environment and/or irradiate said signal into the environment, wherein the line comprises a sensor, which is electrically and/or magnetically coupled to the interference line, wherein the line comprises a signal connection, which is configured to provide the interference signal picked up by the sensor at the connector to the magnetic resonance tomography apparatus for processing, wherein the sensor can be connected to the magnetic resonance tomography apparatus via a signal connection via which the interference signal picked up by the interference conductor can be relayed to a control system of the magnetic resonance tomography apparatus, characterised in that the sensor comprises a directional coupler, wherein the magnetic resonance tomography apparatus comprises a control system, which is configured to generate magnetic resonance imaging from received magnetic resonance signals in dependence on the interference signals picked up by the sensor.
A method for channel allocation comprising: during access of an enhanced general packet radio service, EGPRS, user equipment, determining Abis link resources of N candidate channel groups, wherein N is a positive integer; and selecting a specific channel group from the candidate channel groups according to the Abis link resources of the candidate channel groups, and allocating the selected specific channel group to the EGPRS user equipment, wherein any one channel group of the candidate channel groups comprises at least one EGPRS channel; characterized in that the selecting a specific channel group from the candidate channel groups according to the Abis link resources of the candidate channel groups comprises: if there is one channel group having maximum Abis link resources in the candidate channel groups, selecting the channel group having the maximum Abis link resources, as the specific channel group; or if there is more than one channel group having the maximum Abis link resources in the candidate channel groups, selecting, from channel groups having maximum Abis link resources in the candidate channel groups, a channel group having minimum load as the specific channel group. during access of an enhanced general packet radio service, EGPRS, user equipment, determining Abis link resources of N candidate channel groups, wherein N is a positive integer; and selecting a specific channel group from the candidate channel groups according to the Abis link resources of the candidate channel groups, and allocating the selected specific channel group to the EGPRS user equipment, wherein any one channel group of the candidate channel groups comprises at least one EGPRS channel; characterized in that the selecting a specific channel group from the candidate channel groups according to the Abis link resources of the candidate channel groups comprises: if there is one channel group having maximum Abis link resources in the candidate channel groups, selecting the channel group having the maximum Abis link resources, as the specific channel group; or if there is more than one channel group having the maximum Abis link resources in the candidate channel groups, selecting, from channel groups having maximum Abis link resources in the candidate channel groups, a channel group having minimum load as the specific channel group. if there is one channel group having maximum Abis link resources in the candidate channel groups, selecting the channel group having the maximum Abis link resources, as the specific channel group; or if there is more than one channel group having the maximum Abis link resources in the candidate channel groups, selecting, from channel groups having maximum Abis link resources in the candidate channel groups, a channel group having minimum load as the specific channel group.
Method for manufacturing a vane of a turbine engine comprising a pressure-face wall and a suction-face wall spaced apart from one another, this vane comprising a tip with: - a bottom wall extending from the pressure-face wall to the suction-face wall, the pressure-face wall and the suction-face wall each comprising a free edge (19, 21) extending beyond this bottom wall to delimit, together with this bottom wall, a squealer shape at the tip of the vane; - a partition wall extending from the pressure-face wall to the suction-face wall and spaced apart from the bottom wall to delimit, together with this bottom wall, a cavity under the squealer tip; the method including: - a moulding step to form at least the pressure-face wall, the suction-face wall and the partition wall; - a step of forming the bottom wall using an additive manufacturing method by adding metal material. - a bottom wall extending from the pressure-face wall to the suction-face wall, the pressure-face wall and the suction-face wall each comprising a free edge (19, 21) extending beyond this bottom wall to delimit, together with this bottom wall, a squealer shape at the tip of the vane; - a partition wall extending from the pressure-face wall to the suction-face wall and spaced apart from the bottom wall to delimit, together with this bottom wall, a cavity under the squealer tip; - a moulding step to form at least the pressure-face wall, the suction-face wall and the partition wall; - a step of forming the bottom wall using an additive manufacturing method by adding metal material.
A dressing assembly for providing reduced pressure to a moveable tissue site, comprising: a flexible bolster body (32, 132, 232, 332) having a first side (34, 134) and a second, inward-facing, side (36, 136), the bolster body (32, 132, 232, 332) formed from a bolster material; wherein a first plurality of bolster modules (42, 142, 342) are formed on the first side (34, 134) of the bolster body (32, 132, 232, 332), each bolster module (42, 142, 342) having a bolster ridge; and a drape extending over the bolster ridges of the first side (34, 134) of the bolster body (32, 132, 232, 332), wherein the drape is sized to extend beyond a peripheral edge of the bolster body (32, 132, 232, 332) and to thereby form a drape extension; wherein the drape extension has a first side and a second inward-facing side, and wherein the drape comprises a sealing apparatus for providing a fluid seal against an epidermis of a patient, which allows a reduced pressure to be maintained by a reduced-pressure subsystem. a flexible bolster body (32, 132, 232, 332) having a first side (34, 134) and a second, inward-facing, side (36, 136), the bolster body (32, 132, 232, 332) formed from a bolster material; wherein a first plurality of bolster modules (42, 142, 342) are formed on the first side (34, 134) of the bolster body (32, 132, 232, 332), each bolster module (42, 142, 342) having a bolster ridge; and a drape extending over the bolster ridges of the first side (34, 134) of the bolster body (32, 132, 232, 332), wherein the drape is sized to extend beyond a peripheral edge of the bolster body (32, 132, 232, 332) and to thereby form a drape extension; wherein the drape extension has a first side and a second inward-facing side, and wherein the drape comprises a sealing apparatus for providing a fluid seal against an epidermis of a patient, which allows a reduced pressure to be maintained by a reduced-pressure subsystem.