mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a metal member, the process comprising: a shot peening step of shot peening particles which have an average particle size of not less than 10 μm and not more than 200 μm onto a surface of a metal material comprising an aluminum alloy using a compressed gas under a blast pressure of not less than 0.1 MPa and not more than 1 MPa such that the intensity of the shot peening treatment, expressed in terms of the arc height value as determined using an Almen gauge system, is not less than 0.002 N and the difference between the surface roughness prior to the shot peening treatment and the surface roughness following the shot peening treatment in the centerline average roughness is not more than 1 μm, the particles being alumina or silica particles which comprise a non-metallic hard material or a nonferrous hard material as a main constituent, and a chemical conversion treatment step of forming a chromate-based film or a chromate/phosphate-based film on the surface of the metal material by performing a chemical conversion treatment following the shot peening step, the thickness of the film formed by the chemical conversion treatment being not more than 5 μm. a shot peening step of shot peening particles which have an average particle size of not less than 10 μm and not more than 200 μm onto a surface of a metal material comprising an aluminum alloy using a compressed gas under a blast pressure of not less than 0.1 MPa and not more than 1 MPa such that the intensity of the shot peening treatment, expressed in terms of the arc height value as determined using an Almen gauge system, is not less than 0.002 N and the difference between the surface roughness prior to the shot peening treatment and the surface roughness following the shot peening treatment in the centerline average roughness is not more than 1 μm, the particles being alumina or silica particles which comprise a non-metallic hard material or a nonferrous hard material as a main constituent, and a chemical conversion treatment step of forming a chromate-based film or a chromate/phosphate-based film on the surface of the metal material by performing a chemical conversion treatment following the shot peening step, the thickness of the film formed by the chemical conversion treatment being not more than 5 μm.
A method for managing a streaming media service, said method comprising: receiving a request for a streaming media service from a client, said streaming media service comprising a media service component; selecting a service location manager to which to provide said request from a plurality of service location managers (120 and 122), said service location manager being configured for selecting a service provider from a plurality of service providers; selecting, by said service location manager, the service provider to which to assign said media service component from the plurality of service providers (130,132, 134 and 136) of a network; informing, by said service location manager, said service provider of said assignment to perform said media service component, causing said service provider to prepare to perform said streaming media service on streaming media; using by said service location manager information at said service location manager to determine whether to initiate a handoff of said streaming media service from said service provider to another service provider so that the client does not experience a reduced quality of service; and if it is determined to initiate said handoff, initiating said handoff to said another service provider such that said streaming media service to said client is not interrupted. receiving a request for a streaming media service from a client, said streaming media service comprising a media service component; selecting a service location manager to which to provide said request from a plurality of service location managers (120 and 122), said service location manager being configured for selecting a service provider from a plurality of service providers; selecting, by said service location manager, the service provider to which to assign said media service component from the plurality of service providers (130,132, 134 and 136) of a network; informing, by said service location manager, said service provider of said assignment to perform said media service component, causing said service provider to prepare to perform said streaming media service on streaming media; using by said service location manager information at said service location manager to determine whether to initiate a handoff of said streaming media service from said service provider to another service provider so that the client does not experience a reduced quality of service; and if it is determined to initiate said handoff, initiating said handoff to said another service provider such that said streaming media service to said client is not interrupted.
A synthetic leather comprising at least a base (i), an adhesive layer (ii), and a skin layer (iii), wherein the urethane resin composition forming the adhesive layer (ii) includes a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material and the aromatic polyisocyanate includes toluene diisocyanate; and wherein the urethane resin composition forming the skin layer (iii) includes a urethane resin, a nonionic emulsifier, and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material and the aromatic polyisocyanate is diphenylmethane diisocyanate. wherein the urethane resin composition forming the adhesive layer (ii) includes a urethane resin and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material and the aromatic polyisocyanate includes toluene diisocyanate; and wherein the urethane resin composition forming the skin layer (iii) includes a urethane resin, a nonionic emulsifier, and water, the urethane resin being produced using an aromatic polyisocyanate as a raw material and the aromatic polyisocyanate is diphenylmethane diisocyanate.
Method for producing a structural element, wherein a metal strip is rolled by a number of groups of upper and lower rollers arranged one behind the other in a rolling direction in such a way that the metal strip is produced with a varying thickness, wherein upper and/or lower rollers of each group are provided with profilings that change shape in the rolling direction, and wherein the prefabricated metal strip with a desired final contour is passed on to further processing steps, characterized in that the respectively shape-changing profilings of all the groups have a constant identical volume, wherein the metal strip is prefabricated with the partial contours (7a, 7b) produced as a result of the shape-changing profilings until the desired final contour is obtained.
A method for performing Domain Name Server, DNS, pre-fetching of information for a portable computing device, the method comprising: rendering a web page on a display screen of the portable computing device; detecting links on the rendered web page; determining that a screen changing operation is being performed, wherein the screen changing operation is selected from the group consisting of scrolling, panning, zooming, and combinations thereof; and if one or more of the detected links has entered the display screen as a result of the screen changing operation, placing one or more DNS pre-fetch tasks for the one or more of the detected links in a queue within the portable computing device when the screen changing operation is performed. rendering a web page on a display screen of the portable computing device; detecting links on the rendered web page; determining that a screen changing operation is being performed, wherein the screen changing operation is selected from the group consisting of scrolling, panning, zooming, and combinations thereof; and if one or more of the detected links has entered the display screen as a result of the screen changing operation, placing one or more DNS pre-fetch tasks for the one or more of the detected links in a queue within the portable computing device when the screen changing operation is performed.
A nucleic acid detection method comprising steps of: automatically dispensing a reagent and a sample suspected to contain a target nucleic acid into a detection container integrally provided with a lid, the detection container comprising a first and second cell part and the lid comprising a first and second lid part; closing said lid of said detection container after completely dispensing said reagent and said sample into said detection container; amplifying said target nucleic acid by a reaction part in said detection container having closed said lid and detecting said target nucleic acid in said detection container having said closed lid wherein detecting is performed by a detection part having a light source part mounted on a substrate arranged on a first side surface of the reaction part and a photodiode part or photoreceptor mounted on another substrate arranged on a second side surface of the reaction part, closing said lid of said detection container is performed automatically, wherein the lid parts of the lid placed on a lid closing arm (63a, 461a) are rotated toward the cell parts of the detection container and the lid parts are closed with respect to the cell parts, carrying out said steps of dispensing said reagent and said sample, closing said lid, amplifying said target nucleic acid and detecting said target acid while arranging said detection container on the same prescribed position of the reaction part. automatically dispensing a reagent and a sample suspected to contain a target nucleic acid into a detection container integrally provided with a lid, the detection container comprising a first and second cell part and the lid comprising a first and second lid part; closing said lid of said detection container after completely dispensing said reagent and said sample into said detection container; amplifying said target nucleic acid by a reaction part in said detection container having closed said lid and detecting said target nucleic acid in said detection container having said closed lid wherein detecting is performed by a detection part having a light source part mounted on a substrate arranged on a first side surface of the reaction part and a photodiode part or photoreceptor mounted on another substrate arranged on a second side surface of the reaction part, closing said lid of said detection container is performed automatically, wherein the lid parts of the lid placed on a lid closing arm (63a, 461a) are rotated toward the cell parts of the detection container and the lid parts are closed with respect to the cell parts, carrying out said steps of dispensing said reagent and said sample, closing said lid, amplifying said target nucleic acid and detecting said target acid while arranging said detection container on the same prescribed position of the reaction part.
Composition which comprises at least one thermoplastic based on polyvinyl chloride and which comprises at least one microgel that has been crosslinked by means of a free-radical generator photochemically by using a wavelength > 0.1 μm and/or thermally, preferably peroxidically, and that contains hydroxy groups and that is based on polybutadiene-acrylonitrile copolymers.
An illumination device comprising: a first excitation light source generating a first excitation light, the first excitation light source having a light emitting surface from which the first excitation light exits; a wavelength conversion material formed on the light emitting surface of the first excitation light source; and a second excitation light source structure generating a second excitation light incident on the wavelength conversion material from a second side which is opposite the first excitation light source; wherein the wavelength conversion material absorbs the first and second excitation lights (3 and 4) and generates a converted light having different wavelengths than the first and second excitation lights (3 and 4); characterized in that the first excitation light source has a highly reflective layer on a surface opposite the light emitting surface which reflects the first excitation light and the converted light; and in that the illumination device comprises a light separation structure disposed between the wavelength conversion material and the second excitation light source structure to separate the converted light and the second excitation light. a first excitation light source generating a first excitation light, the first excitation light source having a light emitting surface from which the first excitation light exits; a wavelength conversion material formed on the light emitting surface of the first excitation light source; and a second excitation light source structure generating a second excitation light incident on the wavelength conversion material from a second side which is opposite the first excitation light source; wherein the wavelength conversion material absorbs the first and second excitation lights (3 and 4) and generates a converted light having different wavelengths than the first and second excitation lights (3 and 4); characterized in that the first excitation light source has a highly reflective layer on a surface opposite the light emitting surface which reflects the first excitation light and the converted light; and in that the illumination device comprises a light separation structure disposed between the wavelength conversion material and the second excitation light source structure to separate the converted light and the second excitation light.
A pyrotechnic device comprising a main pyrotechnic charge, a firing device for firing the main pyrotechnic charge, a discharge passage for discharging the gas generated by firing the main pyrotechnic charge, characterised in that it comprises an injector device configured to inject a cooling fluid into said gas discharge passage.
A method for improving acknowledgement/negative- acknowledgement, ACK/NACK, bundling in a user equipment, UE, of an LTE wireless communication system, the method comprising: receiving an uplink, UL, grant allocated to an UL sub-frame, the UL sub-frame being utilized for transmitting a hybrid automatic repeat request, HARQ, feedback corresponding to a plurality of downlink, DL, sub-frames; characterized by determining a number of DL sub-frames generating the HARQ feedback within the plurality of DL sub-frames according to a number of Physical Downlink Shared Channel, PDSCH, transmissions detected by the UE within the plurality of DL sub-frames if a time division duplex, TDD, UL/DL configuration of the UE is set to 0, wherein in a TDD UL/DL configuration 0 a Physical Downlink Control Channel, PDCCH, carrying the uplink grant does not have a downlink assignment index, DAI, field or does not have an effective DAI field; and determining a number of DL sub-frames generating the HARQ feedback within the plurality of DL sub-frames according to a DAI field if a time division duplex, TDD, UL/DL configuration of the UE is set to 1-6, wherein in a TDD UL/DL configuration 1-6 a Physical Downlink Control Channel, PDCCH, carrying the uplink grant comprise the DAI field. receiving an uplink, UL, grant allocated to an UL sub-frame, the UL sub-frame being utilized for transmitting a hybrid automatic repeat request, HARQ, feedback corresponding to a plurality of downlink, DL, sub-frames; characterized by determining a number of DL sub-frames generating the HARQ feedback within the plurality of DL sub-frames according to a number of Physical Downlink Shared Channel, PDSCH, transmissions detected by the UE within the plurality of DL sub-frames if a time division duplex, TDD, UL/DL configuration of the UE is set to 0, wherein in a TDD UL/DL configuration 0 a Physical Downlink Control Channel, PDCCH, carrying the uplink grant does not have a downlink assignment index, DAI, field or does not have an effective DAI field; and determining a number of DL sub-frames generating the HARQ feedback within the plurality of DL sub-frames according to a DAI field if a time division duplex, TDD, UL/DL configuration of the UE is set to 1-6, wherein in a TDD UL/DL configuration 1-6 a Physical Downlink Control Channel, PDCCH, carrying the uplink grant comprise the DAI field.
An information handling system, comprising: one or more processors in communication with a network interface card, NIC; one or more interfaces for receiving frames through the NIC during a first period when the information handling system is coupled to an external network device; and a memory in communication with the one or more processors, the memory storing a classification matrix (208; 300); characterized in that: the classification matrix (208; 300) is formed by combining frame size counters and class-of-service counters which are configured to count each frame received during the first period according to frame size and class-of-service; and the classification matrix (208; 300) is used to determine an interrupt throttling rate from a plurality of candidate interrupt throttling rates to be applied to frames received during a subsequent period. one or more processors in communication with a network interface card, NIC; one or more interfaces for receiving frames through the NIC during a first period when the information handling system is coupled to an external network device; and a memory in communication with the one or more processors, the memory storing a classification matrix (208; 300); characterized in that: the classification matrix (208; 300) is formed by combining frame size counters and class-of-service counters which are configured to count each frame received during the first period according to frame size and class-of-service; and the classification matrix (208; 300) is used to determine an interrupt throttling rate from a plurality of candidate interrupt throttling rates to be applied to frames received during a subsequent period. the classification matrix (208; 300) is formed by combining frame size counters and class-of-service counters which are configured to count each frame received during the first period according to frame size and class-of-service; and the classification matrix (208; 300) is used to determine an interrupt throttling rate from a plurality of candidate interrupt throttling rates to be applied to frames received during a subsequent period.
A liquid crystal display apparatus comprising: a liquid crystal panel; a backlight provided on a rear face of the liquid crystal panel; a detector (5, 6, 7) which detects RGB output light levels of the backlight; a first controller which controls backlight current for driving the backlight so that a prescribed luminance is attained based on the RGB output light levels detected by the detector; a second controller which controls display signals supplied to the liquid crystal panel so that a prescribed chromaticity is attained based on the RGB output light levels detected by the detector (5, 6,7); a first converter which converts the RGB output light levels detected by the detector (5, 6, 7) into tristimulus values; and a second converted which converts the tristimulus values into a luminance value and chromaticity values, wherein the first controller controls the backlight current for driving the backlight based on the luminance value obtained from the second converter, and the second controller controls the x display signals supplied to the liquid crystal panel based on the chromaticity values obtained from the second converter, wherein the first controller controls the backlight current so that the luminance value obtained from the second converter matches a prescribed expected value. a liquid crystal panel; a backlight provided on a rear face of the liquid crystal panel; a detector (5, 6, 7) which detects RGB output light levels of the backlight; a first controller which controls backlight current for driving the backlight so that a prescribed luminance is attained based on the RGB output light levels detected by the detector; a second controller which controls display signals supplied to the liquid crystal panel so that a prescribed chromaticity is attained based on the RGB output light levels detected by the detector (5, 6,7); a first converter which converts the RGB output light levels detected by the detector (5, 6, 7) into tristimulus values; and a second converted which converts the tristimulus values into a luminance value and chromaticity values, wherein the first controller controls the backlight current for driving the backlight based on the luminance value obtained from the second converter, and the second controller controls the x display signals supplied to the liquid crystal panel based on the chromaticity values obtained from the second converter, wherein the first controller controls the backlight current so that the luminance value obtained from the second converter matches a prescribed expected value.
A ventilation device for heated rooms located in a building, through which exhaust air from the interior of the room is led to the outside of the building and fresh air is led from the outside of the building into the interior of the room, containing a counter flow heat exchanger vertically installed in a wall of the building, via which the exhaust air provides heat to the fresh air, the device, on the room side, in the upper part of the device, having an outlet for exhaust air to be brought to the outside of the building, and, in the lower part, having an inlet for supply air coming from the outside of the building, characterized in that the counter flow heat exchanger contains channels extending from above from the exhaust air inlet downwards to an exhaust air outlet placed in the lower region of the ventilation device for the flow of the exhaust air, and in counter-parallel direction contains adjoining channels extending upwards from below from a fresh air inlet located in the lower region of the ventilation device, and contains a supply air inlet channel extending from top to bottom to the inlet for the flow of fresh air, the channels being formed by air-impermeable lamellae ribbed in the direction of flow.
A master evolved node B, MeNB, operable to communicate data to a user equipment, UE, the MeNB having circuitry configured to: identify effective data rates for the UE, the effective data rates including an effective data rate for an MeNB link between the UE and the MeNB and an effective data rate for a secondary evolved node B, SeNB, link between the UE and the SeNB, wherein the effective data rates indicate an average transfer rate of data over a period of time; determine a downlink split ratio for bearers of the MeNB and the SeNB to the UE based in part on the effective data rate for the MeNB link, the effective data rate for the SeNB link, a data capacity of a link between the MeNB and the SeNB, and an Internet protocol, IP, data rate at a packet data convergence protocol, PDCP, layer of the MeNB; send a first portion of data from the MeNB to the UE according to the downlink split ratio; and send a remaining portion of data from the MeNB to the UE via the SeNB according to the downlink split ratio, wherein the UE supports dual connectivity with the MeNB and the SeNB. identify effective data rates for the UE, the effective data rates including an effective data rate for an MeNB link between the UE and the MeNB and an effective data rate for a secondary evolved node B, SeNB, link between the UE and the SeNB, wherein the effective data rates indicate an average transfer rate of data over a period of time; determine a downlink split ratio for bearers of the MeNB and the SeNB to the UE based in part on the effective data rate for the MeNB link, the effective data rate for the SeNB link, a data capacity of a link between the MeNB and the SeNB, and an Internet protocol, IP, data rate at a packet data convergence protocol, PDCP, layer of the MeNB; send a first portion of data from the MeNB to the UE according to the downlink split ratio; and send a remaining portion of data from the MeNB to the UE via the SeNB according to the downlink split ratio, wherein the UE supports dual connectivity with the MeNB and the SeNB.