mhurhangee/ep-ind-claims huggingface dataset:
A vehicular glass module for a vehicle comprising a vehicular window glass having a conductive pattern formed thereon and an on-glass connector attached to the vehicular window glass and electrically connecting the conductive pattern and a vehicle system to each other, wherein the on-glass connector comprises: a case including a hollow portion; a circuit board disposed in the hollow portion; a pair of glass-side conductors electrically connecting the circuit board to the conductive pattern; and a pair of system-side conductors electrically connecting the circuit board to the vehicle system, and wherein a through hole is provided in a partition wall defining a part of the hollow portion of the case, the partition wall being spaced from the circuit board, wherein the through hole is positioned lower than a conductive part of the circuit board with respect to the vehicle, wherein the case has a floor portion on which the circuit board is placed, wherein the floor portion has a ridge, wherein the circuit board is placed on a tip of the ridge, characterized in that the ridge includes a pair of ridges so as to extend in a direction approaching and separating from the partition wall, and that a groove is formed between the pair of ridges and the partition wall such that a space surrounded by the pair of ridges and the circuit board is in communication with the through hole. a case including a hollow portion; a circuit board disposed in the hollow portion; a pair of glass-side conductors electrically connecting the circuit board to the conductive pattern; and a pair of system-side conductors electrically connecting the circuit board to the vehicle system, and wherein a through hole is provided in a partition wall defining a part of the hollow portion of the case, the partition wall being spaced from the circuit board, wherein the through hole is positioned lower than a conductive part of the circuit board with respect to the vehicle, wherein the case has a floor portion on which the circuit board is placed, wherein the floor portion has a ridge, wherein the circuit board is placed on a tip of the ridge, characterized in that the ridge includes a pair of ridges so as to extend in a direction approaching and separating from the partition wall, and that a groove is formed between the pair of ridges and the partition wall such that a space surrounded by the pair of ridges and the circuit board is in communication with the through hole.
A microfluidic, electrochemical device comprising: a first electrode assembly comprising a first substrate layer supporting one or more electrodes; and a first porous, hydrophilic layer overlaying the electrode assembly, wherein the hydrophilic layer comprises a fluid-impermeable boundary that substantially permeates the thickness of the hydrophilic layer and defines a one or more hydrophilic channels within the hydrophilic layer, wherein the one or more hydrophilic channels comprise a first hydrophilic region which is in fluidic communication with the one or more electrodes. a first electrode assembly comprising a first substrate layer supporting one or more electrodes; and a first porous, hydrophilic layer overlaying the electrode assembly, wherein the hydrophilic layer comprises a fluid-impermeable boundary that substantially permeates the thickness of the hydrophilic layer and defines a one or more hydrophilic channels within the hydrophilic layer, wherein the one or more hydrophilic channels comprise a first hydrophilic region which is in fluidic communication with the one or more electrodes.
A unit (2a, 2b) for use with an image forming apparatus, comprising: a developer accommodating portion (30, 70) constituted by a frame, for accommodating a developer; a sheet member (15, 16, 17, 18) provided on the frame in contact with a rotatable member (21, 22, 23), for preventing the developer from leaking out from a gap between said developer accommodating portion and the rotatable member (21, 22, 23); and a resin member (10, 11, 12, 13) for fixing said sheet member (15, 16, 17, 18) on the frame, wherein said resin member (10, 11, 12, 13) is formed of resin material by molding, and wherein said sheet member (15, 16, 17, 18) is welded to said resin member (10, 11, 12, 13) for fixing, characterized in that said resin member (10, 11, 12, 13) is injection molded to fix on the frame. a developer accommodating portion (30, 70) constituted by a frame, for accommodating a developer; a sheet member (15, 16, 17, 18) provided on the frame in contact with a rotatable member (21, 22, 23), for preventing the developer from leaking out from a gap between said developer accommodating portion and the rotatable member (21, 22, 23); and a resin member (10, 11, 12, 13) for fixing said sheet member (15, 16, 17, 18) on the frame, wherein said resin member (10, 11, 12, 13) is formed of resin material by molding, and wherein said sheet member (15, 16, 17, 18) is welded to said resin member (10, 11, 12, 13) for fixing, characterized in that said resin member (10, 11, 12, 13) is injection molded to fix on the frame.
A device comprising: a processing section for processing a medium, the processing section including a drum for retaining the medium; and a duplex section comprising: a first retaining section arranged to retain a first portion of the medium received from the drum of the processing section, the medium having first and second faces; and a second retaining section arranged to retain a second portion of the medium, wherein the duplex section is arranged such that the medium is held substantially flat by the first and second retaining sections, the medium is linearly stretched by the first and second retaining sections while being held substantially flat, characterised in that the duplex section is arrangement such that while, or subsequent to, being stretched the medium is returned to the drum of the processing section with the first and second faces interchanged relative to the processing of the processing section. a processing section for processing a medium, the processing section including a drum for retaining the medium; and a duplex section comprising: a first retaining section arranged to retain a first portion of the medium received from the drum of the processing section, the medium having first and second faces; and a second retaining section arranged to retain a second portion of the medium, wherein the duplex section is arranged such that the medium is held substantially flat by the first and second retaining sections, the medium is linearly stretched by the first and second retaining sections while being held substantially flat, characterised in that the duplex section is arrangement such that while, or subsequent to, being stretched the medium is returned to the drum of the processing section with the first and second faces interchanged relative to the processing of the processing section. a first retaining section arranged to retain a first portion of the medium received from the drum of the processing section, the medium having first and second faces; and a second retaining section arranged to retain a second portion of the medium, wherein the duplex section is arranged such that the medium is held substantially flat by the first and second retaining sections, the medium is linearly stretched by the first and second retaining sections while being held substantially flat, characterised in that the duplex section is arrangement such that while, or subsequent to, being stretched the medium is returned to the drum of the processing section with the first and second faces interchanged relative to the processing of the processing section.
A vane rotary compressor, comprising: a cylinder; a main bearing and a sub bearing each coupled to the cylinder to form a compression space together with the cylinder, and each having a back pressure pocket (1313, 1323) formed on a surface facing the cylinder; a rotation shaft radially supported by the main bearing and the sub bearing; a roller provided with a plurality of vane slots (1341a, 1341b, 1341c) formed along a circumferential direction and each having one end opened toward an outer circumferential surface, and back pressure chambers (1342a, 1342b, 1342c) each formed in another end of the vane slot so as to communicate with the back pressure pocket (1313, 1323); and a plurality of vanes slidably inserted into the vane slots (1341a, 1341b, 1341c) of the roller, and configured to protrude in a direction toward an inner circumferential surface of the cylinder when the roller rotates so as to divide the compression space into a plurality of compression chambers (V1, V2, V3), wherein the back pressure pocket (1313, 1323) is divided into a plurality of pockets (1313, 1323) having different inner pressure along the circumferential direction, and characterized in that the plurality of pockets (1313, 1323) is provided with bearing protrusion portions (1314a, 1314b, 1324a, 1324b) formed on an inner circumferential side facing an outer circumferential surface of the rotation shaft and forming radial bearing surfaces (1311a, 1321a) with respect to the outer circumferential surface of the rotation shaft. a cylinder; a main bearing and a sub bearing each coupled to the cylinder to form a compression space together with the cylinder, and each having a back pressure pocket (1313, 1323) formed on a surface facing the cylinder; a rotation shaft radially supported by the main bearing and the sub bearing; a roller provided with a plurality of vane slots (1341a, 1341b, 1341c) formed along a circumferential direction and each having one end opened toward an outer circumferential surface, and back pressure chambers (1342a, 1342b, 1342c) each formed in another end of the vane slot so as to communicate with the back pressure pocket (1313, 1323); and a plurality of vanes slidably inserted into the vane slots (1341a, 1341b, 1341c) of the roller, and configured to protrude in a direction toward an inner circumferential surface of the cylinder when the roller rotates so as to divide the compression space into a plurality of compression chambers (V1, V2, V3), wherein the back pressure pocket (1313, 1323) is divided into a plurality of pockets (1313, 1323) having different inner pressure along the circumferential direction, and characterized in that the plurality of pockets (1313, 1323) is provided with bearing protrusion portions (1314a, 1314b, 1324a, 1324b) formed on an inner circumferential side facing an outer circumferential surface of the rotation shaft and forming radial bearing surfaces (1311a, 1321a) with respect to the outer circumferential surface of the rotation shaft.
A method of wireless communication performed by a user equipment, UE, comprising: identifying a physical uplink control channel, PUCCH, resource configuration associated with an unlicensed spectrum, wherein the control channel resource configuration is associated with an indication of whether a resource to be used for an uplink control channel in the unlicensed spectrum is a fixed resource associated with a fixed frequency location, a floating resource associated with a fixed bandwidth and a variable frequency location, or an adaptive resource associated with a variable bandwidth and a variable frequency location; identifying the resource based at least in part on the control channel resource configuration; and transmitting uplink control information on the identified resource. identifying a physical uplink control channel, PUCCH, resource configuration associated with an unlicensed spectrum, wherein the control channel resource configuration is associated with an indication of whether a resource to be used for an uplink control channel in the unlicensed spectrum is a fixed resource associated with a fixed frequency location, a floating resource associated with a fixed bandwidth and a variable frequency location, or an adaptive resource associated with a variable bandwidth and a variable frequency location; identifying the resource based at least in part on the control channel resource configuration; and transmitting uplink control information on the identified resource.
A multilayer film comprising at least 3 layers, each layer having opposing facial surfaces and arranged in the order A/B/C, wherein: Layer A comprises a high density polyethylene having a M w,cc /M n,cc of at least 6.0, a M z,abs of at least 500,000 grams/mol as measured by triple detector GPC, and a density of 0.957 - 0.970 g/cm 3, wherein the high density polyethylene comprises at least 90 percent by weight of Layer A; Layer B comprises a gas permeation layer, wherein a top facial surface of Layer B is in adhering contact with a bottom facial surface of Layer A; and Layer C comprises a high density polyethylene having a M w,cc /M n,cc of at least 6.0, a M z,abs of at least 500,000 grams/mol as measured by triple detector GPC, and a density of 0.957 - 0.970 g/cm 3, wherein the high density polyethylene comprises at least 90 percent by weight of Layer C and wherein a top facial surface of Layer C is in adhering contact with a bottom facial surface of Layer B, wherein the film is oriented in the machine direction and wherein the film exhibits a normalized carbon dioxide transmission rate of at least 1181 cm 3.mm/m 2 /24hr (3000 cm 3 ·mil/100 in 2 /day) when measured according to ASTM F-2476 at 23 °C, 0% relative humidity, and 1 atm, and wherein the film exhibits a ratio of the carbon dioxide transmission rate to an oxygen transmission rate of at least 4.0, when the oxygen transmission rate is measured according to ASTM D3985 at 23 °C, 0% relative humidity, and 1 atm. Layer A comprises a high density polyethylene having a M w,cc /M n,cc of at least 6.0, a M z,abs of at least 500,000 grams/mol as measured by triple detector GPC, and a density of 0.957 - 0.970 g/cm 3, wherein the high density polyethylene comprises at least 90 percent by weight of Layer A; Layer B comprises a gas permeation layer, wherein a top facial surface of Layer B is in adhering contact with a bottom facial surface of Layer A; and Layer C comprises a high density polyethylene having a M w,cc /M n,cc of at least 6.0, a M z,abs of at least 500,000 grams/mol as measured by triple detector GPC, and a density of 0.957 - 0.970 g/cm 3, wherein the high density polyethylene comprises at least 90 percent by weight of Layer C and wherein a top facial surface of Layer C is in adhering contact with a bottom facial surface of Layer B,
A smart bed with sections with adjustable firmness, that has a base frame on which the base of spring blocks is located, the base of spring blocks is longitudinally divided into different plate sections corresponding to the measurements of the user's body zones, the distance between at least two plate sections and the base of the corresponding spring blocks (4, 5) is adjustable, under the adjustable plate sections are sensors configured to measure the pressure on the plate sections in real time, a main controller configured to carry out the personalisation, detect the user's sleeping position and control the bed's spring blocks (4, 5) and to be connected with a portable communication device via a wireless data communication channel, characterised in that the sensors are located in every corner of the adjustable plate section and sensor pairs are thus formed along the axis of the bed.
A method of characterizing DNA in a biological sample, the method comprising: (a) isolating fragments of DNA from a biological sample; (b) constructing a library comprising said fragments; (c) sequencing the library, wherein the sequencing comprises whole genome sequencing; and (d) detecting alterations in the fragmentation pattern in cell free DNA (cfDNA) and fragmented genomic DNA (gDNA) from the biological sample, wherein the fragmentation pattern in each DNA fragment identifies the DNA methylation pattern with single base pair resolution; wherein detecting alterations in the fragmentation pattern comprises detecting alterations in fragment length, fragment coverage, and distance to fragment end in the cfDNA and the fragmented gDNA, wherein the fragmentation pattern in each DNA fragment identifies the DNA methylation pattern, thereby indicating that at least a fragment of the DNA in the sample was derived from a diseased cell or was derived from a healthy cell. (a) isolating fragments of DNA from a biological sample; (b) constructing a library comprising said fragments; (c) sequencing the library, wherein the sequencing comprises whole genome sequencing; and (d) detecting alterations in the fragmentation pattern in cell free DNA (cfDNA) and fragmented genomic DNA (gDNA) from the biological sample, wherein the fragmentation pattern in each DNA fragment identifies the DNA methylation pattern with single base pair resolution;
A hub-mounted active vibration control (HAVC) device, comprising: a housing configured to attach to a rotary hub and rotate therewith; a plurality of coaxial ring motors (308A, 308B, 310A, 310B) configured to rotate a plurality of imbalance masses; and an electrical module for independently controlling a rotational position, phase, and/or speed of the plurality of imbalance masses such that the combined forces of the imbalance masses substantially cancel unwanted vibration; characterized in that the housing includes a tolerance ring configured to accommodate dissimilar coefficients of thermal expansion between components of dissimilar metals. a housing configured to attach to a rotary hub and rotate therewith; a plurality of coaxial ring motors (308A, 308B, 310A, 310B) configured to rotate a plurality of imbalance masses; and an electrical module for independently controlling a rotational position, phase, and/or speed of the plurality of imbalance masses such that the combined forces of the imbalance masses substantially cancel unwanted vibration; characterized in that the housing includes a tolerance ring configured to accommodate dissimilar coefficients of thermal expansion between components of dissimilar metals.
A method of manufacturing a tire, comprising: curing the tire in a curing press; applying microwave energy at a given frequency band into the tire during the curing of the tire; monitoring the interaction between the microwave energy and the tire to obtain a complex reflection coefficient; calculating a root-mean-squared error using the measured complex reflection coefficient and a reference reflection coefficient, wherein the reference reflection coefficient is from a fully cured tire made from the same material as the tire; continuing to monitor the interaction to obtain the complex reflection coefficient and continuing to calculate the root-mean-squared error at different times during the curing of the tire in the curing press; and using the calculated root-mean-squared errors to determine whether to stop the curing of the tire in the curing press. curing the tire in a curing press; applying microwave energy at a given frequency band into the tire during the curing of the tire; monitoring the interaction between the microwave energy and the tire to obtain a complex reflection coefficient; calculating a root-mean-squared error using the measured complex reflection coefficient and a reference reflection coefficient, wherein the reference reflection coefficient is from a fully cured tire made from the same material as the tire; continuing to monitor the interaction to obtain the complex reflection coefficient and continuing to calculate the root-mean-squared error at different times during the curing of the tire in the curing press; and using the calculated root-mean-squared errors to determine whether to stop the curing of the tire in the curing press.
A shoe comprising a sole composed of a thermoplastic material adhered to an upper shoe with a hot melt adhesive that is applied between the sole and the upper shoe, characterised in that the upper shoe is mechanically connected to the sole by adhering the upper shoe to a surface of the sole, the sole being composed of a thermoplastic material that has a melting temperature T M, the method comprising: - Heating the hot melt adhesive to a temperature T HM such that it softens; - Heating the sole such that the thermoplastic material obtains a surface temperature T SUB below T M; - Applying the heated hot melt adhesive to the surface of the heated sole; - Applying the upper shoe to the sole to form a workpiece; - Cooling the workpiece such that the hot melt adhesive hardens; - Wherein the temperatures are chosen such that (T HM + T SUB)/2 is equal to or higher than (T M -10°C); - Wherein the workpiece is used to manufacture the shoe, whereby the method results in the absence of a borderline and/or distinct boundary between materials in Scanning Electronic Microscopy pictures at an enlargement of 500 to 1000 times. - Heating the hot melt adhesive to a temperature T HM such that it softens; - Heating the sole such that the thermoplastic material obtains a surface temperature T SUB below T M; - Applying the heated hot melt adhesive to the surface of the heated sole; - Applying the upper shoe to the sole to form a workpiece; - Cooling the workpiece such that the hot melt adhesive hardens; - Wherein the temperatures are chosen such that (T HM + T SUB)/2 is equal to or higher than (T M -10°C); - Wherein the workpiece is used to manufacture the shoe,
Antimicrobial mixture comprising 4-(3-ethoxy-4-hydroxyphenyl)butan-2-one and an ammonium compound: i) an alkyltrimethylammonium salt of formula R-N + (CH 3) 3 X - in which R denotes an alkyl group containing from 20 to 24 carbon atoms, X - denotes a halide ion, in particular chloride or bromide, or a methosulfate ion.