mhurhangee/ep-ind-claims huggingface dataset:
An amorphous polymer comprising segments of formula segments of formula and segments of formula wherein the amorphous polymer comprises 80.1 to 89% by mol of segments and 11 to 19.9% by mol of segments, based on the total number of mols of segments and segments comprised in the amorphous polymer. segments of formula segments of formula and segments of formula wherein the amorphous polymer comprises 80.1 to 89% by mol of segments and 11 to 19.9% by mol of segments, based on the total number of mols of segments and segments comprised in the amorphous polymer. 80.1 to 89% by mol of segments and 11 to 19.9% by mol of segments, based on the total number of mols of segments and segments comprised in the amorphous polymer.
Video data compression method, the compressed data being intended to be decoded with use of an error masking algorithm, comprising a video data coding step providing a data bitstream arranged in packets, characterised in that it also comprises: - a bitstream reduction step consisting in the removal of one or more video packets from the bitstream to supply a reduced bitstream, - an implementation step of an error masking algorithm on the reduced bitstream to calculate a corrected degraded local decoded image that is the image reconstructed from the reduced bitstream and the masking algorithm, - a validation step to validate or not the reduction of the bitstream according to the quality of the corrected degraded local decoded image, - a selection step of the reduced bitstream or the bitstream, according to whether or not there is validation. - a bitstream reduction step consisting in the removal of one or more video packets from the bitstream to supply a reduced bitstream, - an implementation step of an error masking algorithm on the reduced bitstream to calculate a corrected degraded local decoded image that is the image reconstructed from the reduced bitstream and the masking algorithm, - a validation step to validate or not the reduction of the bitstream according to the quality of the corrected degraded local decoded image, - a selection step of the reduced bitstream or the bitstream, according to whether or not there is validation.
Transmission/reception device (12; 120) for a bus system, having a transmitter for transmitting a transmission signal (TxD) to a first bus wire of a bus of the bus system, which bus system exhibits at least intermittently ensured exclusive collision-free access by a subscriber station (10, 20, 30) to the bus of the bus system, and for transmitting the transmission signal (TxD) to a second bus wire of the bus, a receiver for receiving the bus signal (CAN_H, CAN_L) transmitted on the bus wires (41, 42), and an emission reduction unit (15; 150) for controlling the signals for the bus wires (41, 42) on the basis of a detected level of a differential bus voltage (VDIFF) of the signals on the bus wires (41, 42) is configured when a dominant state of the transmission signal (TxD) occurs, characterized in that the emission reduction unit (15; 150) is configured to determine that, for a changing bus load, the level of the differential bus voltage (VDIFF) is always set to be as low as possible, but safely above a required minimum value.
A method for manufacturing an integrated micro-electro-mechanical systems, MEMS, transducer device, the method comprising - providing a substrate body with a surface; - depositing an etch-stop layer, ESL, on the surface; - depositing a sacrificial layer on the ESL; - depositing a diaphragm layer on the sacrificial layer; and - removing the sacrificial layer; wherein - depositing the sacrificial layer comprises depositing a first sub-layer of a first material on the ESL and depositing a second sub-layer of a second material on the first sub-layer; and - the first and the second material are different materials, characterized in that the first material has a lower moisture content and/or higher density compared to the second material, so that the first material has a lower etch rate compared to the second material. - providing a substrate body with a surface; - depositing an etch-stop layer, ESL, on the surface; - depositing a sacrificial layer on the ESL; - depositing a diaphragm layer on the sacrificial layer; and - removing the sacrificial layer; - depositing the sacrificial layer comprises depositing a first sub-layer of a first material on the ESL and depositing a second sub-layer of a second material on the first sub-layer; and - the first and the second material are different materials,
A sterile filtered lyophilized nanoparticle composition comprising (a) a biodegradable polymer selected from a poly(α-hydroxy acid), a polyhydroxy butyric acid, a polycaprolactone, a polyorthoester, a polyanhydride, a polycyanoacrylate and combinations thereof, (b) a surfactant which is poly(vinyl alcohol), (c) a cryoprotective agent which comprises a combination of an alditol and a saccharide and (d) a polypeptide antigen wherein the nanoparticles within the composition have a Z average particle size of less than 250nm, less than 200nm or less than 150nm. (a) a biodegradable polymer selected from a poly(α-hydroxy acid), a polyhydroxy butyric acid, a polycaprolactone, a polyorthoester, a polyanhydride, a polycyanoacrylate and combinations thereof, (b) a surfactant which is poly(vinyl alcohol), (c) a cryoprotective agent which comprises a combination of an alditol and a saccharide and (d) a polypeptide antigen
A substrate for use in an optical device, the substrate comprising a base layer and a black column spacer formed on the base layer, wherein the black column spacer has an optical density in a range of 1.1 to 4, wherein the top of the black column spacer is hemispherical, wherein the hemispherical portion has a height in a range of 6 μm to 20 μm and a width in a range of 12 μm to 40 μm, wherein a tapered portion, in which a cross-sectional trajectory of the black column spacer has a curved shape such that the curvature center is formed outside a cross section of the black column spacer, is formed at the bottom of the black column spacer, wherein a maximum curvature of a cross-sectional trajectory of a hemispherical portion of the black column spacer is 2,000 mm -1 or less, wherein the loss rate of spacers measured by attaching a Nichiban tape CT-24 to the surface of the base layer, on which the black column spacers are formed, wherein the Nichiban tape CT-24 is attached by applying a load of about 200 g thereon using a roller, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction using a tensile tester at a peel rate of 30 mm/s and a peel angle of about 180 degrees is 15% or less, wherein the Nichiban tape CT-24 has a peel force of 3.72 to 4.16N/10mm and a peel angle of 180 degrees according to the JIS Z 1522 standard. wherein the black column spacer has an optical density in a range of 1.1 to 4, wherein the top of the black column spacer is hemispherical, wherein the hemispherical portion has a height in a range of 6 μm to 20 μm and a width in a range of 12 μm to 40 μm, wherein a tapered portion, in which a cross-sectional trajectory of the black column spacer has a curved shape such that the curvature center is formed outside a cross section of the black column spacer, is formed at the bottom of the black column spacer, wherein a maximum curvature of a cross-sectional trajectory of a hemispherical portion of the black column spacer is 2,000 mm -1 or less, wherein the loss rate of spacers measured by attaching a Nichiban tape CT-24 to the surface of the base layer, on which the black column spacers are formed, wherein the Nichiban tape CT-24 is attached by applying a load of about 200 g thereon using a roller, with a rectangular attachment area of 24 mm in width and 40 mm in length and then peeling the Nichiban tape CT-24 in the longitudinal direction using a tensile tester at a peel rate of 30 mm/s and a peel angle of about 180 degrees is 15% or less, wherein the Nichiban tape CT-24 has a peel force of 3.72 to 4.16N/10mm and a peel angle of 180 degrees according to the JIS Z 1522 standard.
A radiator system for irradiating differently broad laminated glass panels, which comprises at least three elongate radiators, wherein the elongate radiators are arranged one after another on a common longitudinal axis, wherein the radiator system is arranged in a glass cutting device, and wherein the common longitudinal axis of the elongate radiators is arranged parallel to a cutting axis of the glass cutting device, characterized in that the elongate radiators each comprise two ends which are angled relative to the common longitudinal axis. which comprises at least three elongate radiators, wherein the elongate radiators are arranged one after another on a common longitudinal axis, wherein the radiator system is arranged in a glass cutting device, and wherein the common longitudinal axis of the elongate radiators is arranged parallel to a cutting axis of the glass cutting device, characterized in that the elongate radiators each comprise two ends which are angled relative to the common longitudinal axis.
Apaper sheet processing apparatus comprising: a conveyance device comprising a conveyor belt extending along a conveyance path and configured to convey a paper sheet by the conveyor belt; and an inspection device configured to inspect the paper sheet conveyed by the conveyor belt based on an image of the paper sheet; the inspection device comprising an image detection device configured to capture an image of the paper sheet conveyed by the conveyor belt and an image of the conveyor belt and obtain an image of the paper sheet and the conveyor belt; characterized by further comprising: an image processing device configured to detect a degradation level of the conveyor belt based on a belt image of the conveyor belt in the obtained image; and a controller configured to transmit information encouraging replacement of the conveyor belt to a monitor mounted on or connected to the inspection device in accordance with the detected degradation level, wherein accordingly, a belt replacement instruction is displayed on the monitor. a conveyance device comprising a conveyor belt extending along a conveyance path and configured to convey a paper sheet by the conveyor belt; and an inspection device configured to inspect the paper sheet conveyed by the conveyor belt based on an image of the paper sheet; the inspection device comprising an image detection device configured to capture an image of the paper sheet conveyed by the conveyor belt and an image of the conveyor belt and obtain an image of the paper sheet and the conveyor belt; characterized by further comprising: an image processing device configured to detect a degradation level of the conveyor belt based on a belt image of the conveyor belt in the obtained image; and a controller configured to transmit information encouraging replacement of the conveyor belt to a monitor mounted on or connected to the inspection device in accordance with the detected degradation level, wherein accordingly, a belt replacement instruction is displayed on the monitor. an image processing device configured to detect a degradation level of the conveyor belt based on a belt image of the conveyor belt in the obtained image; and a controller configured to transmit information encouraging replacement of the conveyor belt to a monitor mounted on or connected to the inspection device in accordance with the detected degradation level, wherein accordingly, a belt replacement instruction is displayed on the monitor.
A shoe comprising a sole structure having a top side facing a shoe interior, and an air-pumping device for blowing air into the shoe interior, the air-pumping device comprising a bellows formed in a cavity in a heel region of the sole structure, an intake channel connected to the bellows for transporting air to the bellows from an intake opening, and an air supply device connected to the bellows for forwarding air from the bellows into the shoe interior; the sole structure having, at least in the heel region, a multilayer structure comprising at least one cover layer comprising a layer of a bending stiff material arranged over the cavity, at least one intermediate layer of a compressible material, the intermediate layer containing the cavity, and at least one outsole layer arranged below the cavity; the layer of the bending stiff material forming a bending stiff plate that overlaps the cavity, wherein the cavity extends horizontally over most of the surface of the heel region so that a support strip of the compressible material or materials of the at least one intermediate layer remains between the cavity and the lateral and rear outside edges of the sole structure, wherein the support strip extends vertically over the full height of the cavity and the average width of the support strip is not more than 20% of the maximum width of the heel region measured transversely to the walking direction; wherein the cavity has an average height of at least 4 mm, and wherein the compressible material has an average hardness between 30 and 55 Shore-A at least in the region of the support strip. bellows formed in a cavity in a heel region of the sole structure, an intake channel connected to the bellows for transporting air to the bellows from an intake opening, and an air supply device connected to the bellows for forwarding air from the bellows into the shoe interior; at least one cover layer comprising a layer of a bending stiff material arranged over the cavity, at least one intermediate layer of a compressible material, the intermediate layer containing the cavity, and at least one outsole layer arranged below the cavity;
A lighting device, comprising an elongated body, a cover, and one or more light sources, wherein the body of the lighting device comprises a bottom and walls (11, 12) extending from the bottom and having open edges, the cover of the lighting device is formed from a light transmitting material tube, the cross-section of said cover is smooth and round or oval, and it is arranged between the open edges of said walls (11, 12) at a distance from the bottom, the one or more light sources being located in a space delimited by the body and the cover of the lighting device, wherein differing optical properties are formed in the tube used as the cover, in different parts of the cross-section of the tube, characterized in that: the body of the lighting device comprises at least one curved portion to provide a curved lighting device, in proximity to the open edges of the walls (11, 12) of the body, on the inner surfaces of the walls, there are recesses to receive the tube used as the cover, and wherein the light transmitting material tube is a light transmitting plastic material tube. the body of the lighting device comprises at least one curved portion to provide a curved lighting device, in proximity to the open edges of the walls (11, 12) of the body, on the inner surfaces of the walls, there are recesses to receive the tube used as the cover, and wherein the light transmitting material tube is a light transmitting plastic material tube.
A communication method, comprising: generating, by a network device, first indication information, wherein the first indication information is used to indicate one or more frequency hopping bandwidths used by the terminal device to send a physical uplink shared channel resource to the network device; and sending, by the network device, the first indication information to the terminal device, wherein the network device schedules, in a unit of a slot, the terminal device to send the physical uplink shared channel resource, one slot comprises a first time unit and a second time unit, and the method further comprises: generating, by the network device, second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device, the second indication information to the terminal device. generating, by a network device, first indication information, wherein the first indication information is used to indicate one or more frequency hopping bandwidths used by the terminal device to send a physical uplink shared channel resource to the network device; and sending, by the network device, the first indication information to the terminal device, wherein the network device schedules, in a unit of a slot, the terminal device to send the physical uplink shared channel resource, one slot comprises a first time unit and a second time unit, and the method further comprises: generating, by the network device, second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device, the second indication information to the terminal device. generating, by the network device, second indication information, wherein the second indication information is used to indicate a frequency-domain offset of a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the second time unit in the frequency hopping bandwidth relative to a physical resource block used by the terminal device to send the physical uplink shared channel to the network device in the first time unit in the same frequency hopping bandwidth; and sending, by the network device, the second indication information to the terminal device.
Stowage device, in particular life jacket stowage device, with a stowage unit comprising a first closure element and at least one second stowage element, which are configured to delimit a stowage space of the stowage unit from an environment, wherein a valve element is configured to at least encumber a reach-through, along the first closure element and the second closure element, into the stowage space, wherein the valve element is embodied differently from the first and second closure elements (12, 14), from a hook-and-loop system, from an adhesive tape and/or from a seam.
A method for collaborative spatial position determination between objects, comprising: receiving by a first object information describing a position of the first object derived from two or more disparate position determination techniques; combining information describing the position of the first object from the two or more disparate position determination techniques to determine a first object spatial position; communicatively coupling by establishing peer-to-peer communication between the first object to a second object; and exchanging between the first object and the second object information describing the position of the first object wherein the second object determines a second object spatial location based, in part, on information describing the first object spatial position, information describing a peer-to-peer relative location between the first object and the second object, and information describing the position of the second object from the two or more disparate position determination techniques independent of those received by the first object and based on information exchanged from the first object to the second object describing the position of the second object, the second object corrects variances in the information describing the position of the second object for each of the two or more disparate position determination techniques associated with the second object. receiving by a first object information describing a position of the first object derived from two or more disparate position determination techniques; combining information describing the position of the first object from the two or more disparate position determination techniques to determine a first object spatial position; communicatively coupling by establishing peer-to-peer communication between the first object to a second object; and exchanging between the first object and the second object information describing the position of the first object wherein the second object determines a second object spatial location based, in part, on information describing the first object spatial position, information describing a peer-to-peer relative location between the first object and the second object, and information describing the position of the second object from the two or more disparate position determination techniques independent of those received by the first object and based on information exchanged from the first object to the second object describing the position of the second object, the second object corrects variances in the information describing the position of the second object for each of the two or more disparate position determination techniques associated with the second object.
Metering machine including a frame on which are mounted a feed hopper and a cylindrical metering sleeve mounted between an outlet of the feed hopper and a discharge pipe, the metering sleeve comprises a first opened end that slidably receives along a longitudinal axis a suction and discharge piston, the metering machine including means for driving the suction and discharge piston and the metering sleeve including a radial window and being rotatable about the longitudinal axis by rotation drive means (40, 41) arranged to position the metering sleeve selectively in a first position in which the radial window faces the outlet of the feed hopper and a second position in which the radial window faces a feed end of the discharge pipe, being characterized in that the metering sleeve comprises a second opened end that comes into abutment against a first element that is slidably mounted relative to the frame.