mhurhangee/ep-ind-claims huggingface dataset:
A pneumatic tire, comprising on a tread surface a widthwise outermost land portion partitioned by an outermost circumferential main groove and a tread edge, the outermost circumferential main groove being closest to the tread edge and extending in a tread circumferential direction, wherein: the widthwise outermost land portion has a plurality of side sipes extending to a tread widthwise outer side in a manner spaced from each other in the tread circumferential direction; the widthwise outermost land portion has an inner circumferential sipe and an outer circumferential sipe, the inner circumferential sipe extending in the tread circumferential direction, the outer circumferential sipe being positioned on a tread widthwise side outer than the inner circumferential sipe and extending in the tread circumferential direction; when h1 is a groove depth of the outermost circumferential main groove, h2 is a sipe depth of the inner circumferential sipe, and h3 is a sipe depth of the outer circumferential sipe, h1, h2 and h3 satisfy: h 1 > h 3 > h 2; the inner circumferential sipe extends continuously in the tread circumferential direction, characterised in that the outer circumferential sipe has end portions within the land portion; and, when the pitch spacing in the tread circumferential direction of the side sipes is L, the distance in the tread widthwise direction between the outermost circumferential main groove and the inner circumferential sipe is W1, and the distance in the tread widthwise direction between the inner circumferential sipe and the outer circumferential sipe is W2, conditions that: 0.7 ≤ L / W 1 ≤ 1.4, and 0.7 ≤ L / W 2 ≤ 1.4 and 0.7 ≤ L / W 1 ≤ 1.4, and 0.7 ≤ L / W 2 ≤ 1.4 are satisfied. the widthwise outermost land portion has a plurality of side sipes extending to a tread widthwise outer side in a manner spaced from each other in the tread circumferential direction; the widthwise outermost land portion has an inner circumferential sipe and an outer circumferential sipe, the inner circumferential sipe extending in the tread circumferential direction, the outer circumferential sipe being positioned on a tread widthwise side outer than the inner circumferential sipe and extending in the tread circumferential direction; when h1 is a groove depth of the outermost circumferential main groove, h2 is a sipe depth of the inner circumferential sipe, and h3 is a sipe depth of the outer circumferential sipe, h1, h2 and h3 satisfy: h 1 > h 3 > h 2; the inner circumferential sipe extends continuously in the tread circumferential direction, characterised in that the outer circumferential sipe has end portions within the land portion; and, when the pitch spacing in the tread circumferential direction of the side sipes is L, the distance in the tread widthwise direction between the outermost circumferential main groove and the inner circumferential sipe is W1, and the distance in the tread widthwise direction between the inner circumferential sipe and the outer circumferential sipe is W2, conditions that: 0.7 ≤ L / W 1 ≤ 1.4, and 0.7 ≤ L / W 2 ≤ 1.4 and 0.7 ≤ L / W 1 ≤ 1.4, and 0.7 ≤ L / W 2 ≤ 1.4 are satisfied.
A pump body assembly, comprising: a crankshaft comprising a first eccentric portion, a support shaft and a second eccentric portion which are arranged at intervals in an axial direction; a first baffle plate and a second baffle plate which are arranged in sequence between the first eccentric portion and the second eccentric portion, wherein a first round hole is arranged on the first baffle plate, and the support shaft is arranged in the first round hole, so that the first baffle plate and the support shaft form a baffle plate bearing, characterised in that the baffle plate bearing has a stress relief structure for reducing a contact stress between the support shaft and the first baffle plate, and the stress relief structure comprises a second flexible groove arranged on an end face of the first baffle plate facing toward the second baffle plate, the second flexible groove is arranged on a side of the first baffle plate close to an inner edge of the first round hole. a crankshaft comprising a first eccentric portion, a support shaft and a second eccentric portion which are arranged at intervals in an axial direction; a first baffle plate and a second baffle plate which are arranged in sequence between the first eccentric portion and the second eccentric portion, wherein a first round hole is arranged on the first baffle plate, and the support shaft is arranged in the first round hole, so that the first baffle plate and the support shaft form a baffle plate bearing, characterised in that the baffle plate bearing has a stress relief structure for reducing a contact stress between the support shaft and the first baffle plate, and the stress relief structure comprises a second flexible groove arranged on an end face of the first baffle plate facing toward the second baffle plate, the second flexible groove is arranged on a side of the first baffle plate close to an inner edge of the first round hole.
A negative pressure wound therapy (NPWT) dressing comprising a backing layer, wherein said backing layer comprises a thermoplastic elastomer, preferably a thermoplastic polyurethane, an adhesive skin contact layer and an absorbent structure arranged between said backing layer and said adhesive skin contact layer; said adhesive skin contact layer being configured to detachably adhere the dressing to a dermal surface, wherein said backing layer and said adhesive skin contact layer are configured to extend beyond the periphery of the absorbent structure to form a border portion along the contour of said absorbent structure, wherein said adhesive skin contact layer comprises a plurality of apertures in the area underlying said absorbent structure, but is void of apertures in the area forming said border portion, wherein said backing layer comprises a coupling member comprising a tubing configured to connect the dressing to a negative pressure source and to a remote fluid collection means, characterized in that said backing layer has a moisture vapor transmission rate (MVTR) in the range of from 500 to 3500 g/m2/24h, preferably in the range of from 600 to 2700 g/m2/24h, as measured by NWSP070.4R0, and in that said tubing comprises a fluid conduit configured to remove fluid from said dressing and an air conduit configured to supply air to said fluid conduit and/or said dressing.
A device comprising: - a plurality of electroactive material actuator units arranged as a linear set, each electroactive material actuator unit comprising at least two power line terminals (PL1, PL2) and at least one digital data line terminal; - at least two power lines (Vop, Vref) and a data line (Din), wherein each electroactive material actuator unit is connected in parallel between the at least two power lines (Vop, Vref), the at least two power lines connecting to the at least two power line terminals (PL1, PL2); and - data line connections (42; 50) between each adjacent pair of electroactive material actuator units of the linear set, wherein each electroactive material actuator unit comprises: - an electroactive material actuator; - a digital controller connected to the at least one data line terminal for receiving data from the data line; and - a driver for driving the electroactive material actuator in dependence on the received data. - a plurality of electroactive material actuator units arranged as a linear set, each electroactive material actuator unit comprising at least two power line terminals (PL1, PL2) and at least one digital data line terminal; - at least two power lines (Vop, Vref) and a data line (Din), wherein each electroactive material actuator unit is connected in parallel between the at least two power lines (Vop, Vref), the at least two power lines connecting to the at least two power line terminals (PL1, PL2); and - data line connections (42; 50) between each adjacent pair of electroactive material actuator units of the linear set, - an electroactive material actuator; - a digital controller connected to the at least one data line terminal for receiving data from the data line; and - a driver for driving the electroactive material actuator in dependence on the received data.
Processor unit for processing and controlling a preparation of a blood sample, said processor unit comprising a preparation unit, said preparation unit comprising: - a first chamber and a second chamber in fluid communication with each other, - a piston placed in the first chamber receiving the unprocessed blood sample, the first chamber comprising an outer cylindrical wall, a bottom wall consisting of the piston and a top wall, said processor unit further comprising a rod connected to the piston for driving said piston in a longitudinal direction coaxially with a centre axis of the preparation unit, said rod being configured to be moved by first moving means from a first position d1 to a new position d2 different from the first position such that the volume of the first chamber is reduced and that a part of the processed blood moves from the first chamber to the second chamber placed below the bottom wall of the first chamber, said processor unit further comprising means for centrifuging and rotating the preparation unit around the axis of rotation such that the blood is centrifuged into separate layers comprising an outer layer adhering to the inner side of the outer first chamber wall and an inner layer opposite to the outer layer, the processor unit further comprising a first unit being a light source for emitting an outcome light signal and a second unit being a sensor for detecting an incoming light signal, said first moving means being configured to be activated by control means as a function of the incoming light signal detected by the second unit such that the movement of the piston is regulated, the processor unit being characterized in that the first and second units are positioned in such a way that the outcome light signal is emitted through the bottom of the first chamber, runs through the first chamber parallel with the longitudinal direction of the centrifuged layers (15, 16), i.e parallel with the centre axis, and is detected by the second unit. - a first chamber and a second chamber in fluid communication with each other, - a piston placed in the first chamber receiving the unprocessed blood sample, the first chamber comprising an outer cylindrical wall, a bottom wall consisting of the piston and a top wall,
A wireless transmit/receive unit, WTRU, comprising: a location sensing entity configured to generate location information of the WTRU; and a trusted processing module configured to ensure integrity of the location information and the location sensing entity, wherein the trusted processing module is configured to ensure the integrity of the location sensing entity by checking the integrity of trust metrics associated with the location sensing entity, and wherein the WTRU is configured to: use the location sensing entity to generate the location information if the integrity of the location sensing entity is verified; use the location information to generate a digital signature; and append the digital signature, generated from the location information, to the location information. a location sensing entity configured to generate location information of the WTRU; and a trusted processing module configured to ensure integrity of the location information and the location sensing entity, wherein the trusted processing module is configured to ensure the integrity of the location sensing entity by checking the integrity of trust metrics associated with the location sensing entity, and wherein the WTRU is configured to: use the location sensing entity to generate the location information if the integrity of the location sensing entity is verified; use the location information to generate a digital signature; and append the digital signature, generated from the location information, to the location information. use the location sensing entity to generate the location information if the integrity of the location sensing entity is verified; use the location information to generate a digital signature; and append the digital signature, generated from the location information, to the location information.
A process for the preparation of 10-{[(3 S)-1-methylpiperidin-3-yl]methyl}-10H-phenothiazine (the S-enantiomer of mepazine) and solvates, salts, isotopically labeled forms and combinations thereof, comprising the step of reacting phenothiazine with a piperidine derivative of the following formula wherein LG is a leaving group, wherein A) the process comprises the step of converting a tertiary amine of the following formula into the piperidine derivative of formula and/or B) wherein LG is selected from the group consisting of mesylate, triflate, and tosylate. wherein LG is a leaving group, wherein A) the process comprises the step of converting a tertiary amine of the following formula into the piperidine derivative of formula and/or B) wherein LG is selected from the group consisting of mesylate, triflate, and tosylate. A) the process comprises the step of converting a tertiary amine of the following formula into the piperidine derivative of formula and/or B) wherein LG is selected from the group consisting of mesylate, triflate, and tosylate.
A peptidic compound having the formula: R 1 - Z - R 2 wherein Z is a peptide moiety having the formula X14 represents an amino acid residue selected from Met, Leu and Nle, X15 represents an amino acid residue selected from Glu and Asp, X40 is absent or represents Lys, R 1 represents NH 2, R 2 represents OH or NH 2, or a salt or solvate thereof.
A method for creating a feature-based coordinate reference using at least a first, second, and third feature (110a, 110b, 110c) of an object, the method comprising: placing a first, second, and third feature location block (120a, 120b, 120c) on the first, second, and third feature (110a, 110b, 110c) of the object, respectively; placing a first, second, and third target (130a, 130b, 130c) directly on the object using the first, second, and third feature location block (120a, 120b, 120c), respectively, wherein each feature location block (120a, 120b, 120c) is configured with a target placement feature for guiding placement of the respective target (130a, 130b, 130c) directly on the object; measuring locations of the first, second, and third target (130a, 130b, 130c); and creating a coordinate reference based on the locations of the first, second, and third target (130a, 130b, 130c). placing a first, second, and third feature location block (120a, 120b, 120c) on the first, second, and third feature (110a, 110b, 110c) of the object, respectively; placing a first, second, and third target (130a, 130b, 130c) directly on the object using the first, second, and third feature location block (120a, 120b, 120c), respectively, wherein each feature location block (120a, 120b, 120c) is configured with a target placement feature for guiding placement of the respective target (130a, 130b, 130c) directly on the object; measuring locations of the first, second, and third target (130a, 130b, 130c); and creating a coordinate reference based on the locations of the first, second, and third target (130a, 130b, 130c).
A use of polycaprolactone for removing or reducing inorganic nitrogen compounds from or in biological fish keeping waters under aerobic conditions, characterized in that the polycaprolactone is added in powder form or as a suspension of a powder to the fish keeping water.
An illumination system (15, 17, 19) comprising a light source emitting light around an axis of symmetry, a diffusing element (30, 32) and a specular back reflector, the light source being configured to emit light towards the specular back reflector, the specular back reflector reflecting at least part of the light emitted by the light source so as to illuminate the diffusing element (30, 32), a shape of the specular back reflector generating a substantially homogeneous distribution across the diffusing element (30, 32) of a light flux impinging on the diffusing element (30, 32), wherein the diffusing element (30, 32) comprises a first edge near the light source and a second edge away from the light source, the first edge and the second edge defining an imaginary planar surface having a normal axis, the axis of symmetry of the light source defining a further angle (β) to the normal axis, wherein an angle (α) between an imaginary plane perpendicular to the axis of symmetry and a plane tangent to the specular back reflector at a point of intersection where the axis of symmetry intersects the specular back reflector is equal to or less than 45°, characterized in that the axis of symmetry of the source is inclined with respect to the normal axis at the further angle β, with β <= 30°, so that substantially no light emitted by the light source directly impinges on the diffusing element (30, 32).
An oral hygiene device, comprising: a longitudinal shaft defining a longitudinal axis; an attachment assembly located at a first end of the longitudinal shaft, the attachment assembly for contacting a contact surface in a user's mouth; a handle portion comprising: a portion of the longitudinal shaft comprising a second end of the longitudinal shaft; at least one sensor (104a, 104b) operable to detect an amount of side force applied to the attachment assembly, the side force is a force applied by the contact surface in a direction perpendicular to both the longitudinal axis and the normal of the contact surface; and at least one accelerometer operable to measure an amount of gravitational force applied to the attachment assembly; and at least one processor operable to: determine an angle that the attachment assembly is applied at based on the detected amount of side force. a longitudinal shaft defining a longitudinal axis; an attachment assembly located at a first end of the longitudinal shaft, the attachment assembly for contacting a contact surface in a user's mouth; a handle portion comprising: a portion of the longitudinal shaft comprising a second end of the longitudinal shaft; at least one sensor (104a, 104b) operable to detect an amount of side force applied to the attachment assembly, the side force is a force applied by the contact surface in a direction perpendicular to both the longitudinal axis and the normal of the contact surface; and at least one accelerometer operable to measure an amount of gravitational force applied to the attachment assembly; and a portion of the longitudinal shaft comprising a second end of the longitudinal shaft; at least one sensor (104a, 104b) operable to detect an amount of side force applied to the attachment assembly, the side force is a force applied by the contact surface in a direction perpendicular to both the longitudinal axis and the normal of the contact surface; and at least one accelerometer operable to measure an amount of gravitational force applied to the attachment assembly; and at least one processor operable to: determine an angle that the attachment assembly is applied at based on the detected amount of side force.
A method for wireless communication, comprising: determining a number of available transmission units which can be used as forward link control segment, FLCS, resource, wherein the number of available transmission units depends on the total number of transmission units in a FLCS tile of the FLCS resource and the number of unavailable transmission units used for pilot and other control channels, wherein the FLCS comprises at least one FLCS tile, each FLCS tile comprising a plurality of transmission units; receiving an index R for the FLCS resource; determining an index h of a first FLCS tile of the FLCS resource and an index r of a first transmission unit in the first FLCS tile to which the FLCS resource index R is mapped; determining a set of transmission units for the FLCS resource index R, wherein R is mapped to transmission unit r in FLCS tile h, to transmission unit r+M in FLCS tile h+1 and to transmission unit r+2M in FLCS tile h+2 for a packet, wherein the packet comprises a plurality of symbols to be mapped to the determined transmission units, and wherein M denotes the number of FLCS resources per FLCS tile; and sending or receiving the packet via the set of transmission units, wherein each transmission unit in the set of transmission units corresponds to a particular hop-port. determining a number of available transmission units which can be used as forward link control segment, FLCS, resource, wherein the number of available transmission units depends on the total number of transmission units in a FLCS tile of the FLCS resource and the number of unavailable transmission units used for pilot and other control channels, wherein the FLCS comprises at least one FLCS tile, each FLCS tile comprising a plurality of transmission units; receiving an index R for the FLCS resource; determining an index h of a first FLCS tile of the FLCS resource and an index r of a first transmission unit in the first FLCS tile to which the FLCS resource index R is mapped; determining a set of transmission units for the FLCS resource index R, wherein R is mapped to transmission unit r in FLCS tile h, to transmission unit r+M in FLCS tile h+1 and to transmission unit r+2M in FLCS tile h+2 for a packet, wherein the packet comprises a plurality of symbols to be mapped to the determined transmission units, and wherein M denotes the number of FLCS resources per FLCS tile; and sending or receiving the packet via the set of transmission units, wherein each transmission unit in the set of transmission units corresponds to a particular hop-port.
A method for making a battery having low noise comprising: directing a first current from a first electrode of a battery with a first portion of a first conductor; directing a second current from a second electrode of the battery with a first portion of a second conductor, wherein the first portion of the first conductor and the first portion of the second conductor are substantially overlapping; carrying the first current with a second portion of the first conductor in a first direction; and carrying the first current with a third portion of the first conductor in a second direction, wherein the second portion and the third portion are outside a case of the battery, wherein the first direction is substantially opposite from the second direction, and wherein an insulator separates the second portion and the third portion and at least one of the first conductor and the second conductor comprises one or more segments, further comprising: positioning one or more devices between the one or more segments of the second and third portions of the first conductor; wherein the second portion and the third portion are proximate. directing a first current from a first electrode of a battery with a first portion of a first conductor; directing a second current from a second electrode of the battery with a first portion of a second conductor, wherein the first portion of the first conductor and the first portion of the second conductor are substantially overlapping; carrying the first current with a second portion of the first conductor in a first direction; and carrying the first current with a third portion of the first conductor in a second direction, wherein the second portion and the third portion are outside a case of the battery, wherein the first direction is substantially opposite from the second direction, and wherein an insulator separates the second portion and the third portion and at least one of the first conductor and the second conductor comprises one or more segments, further comprising: positioning one or more devices between the one or more segments of the second and third portions of the first conductor; wherein the second portion and the third portion are proximate.
A solid base catalyst comprising: (a) an organic base (b) an inorganic base; and (c) a carrier, wherein the organic base is polymerized with the carrier to produce a carrier-containing organic base, and the inorganic base serves to regenerate the organic base catalyst. (a) an organic base (b) an inorganic base; and (c) a carrier,