mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: applying a gain to a reference signal; estimating a wireless channel, over which a received signal passed, using the reference signal with the applied gain; adjusting equalization values obtained from the estimating to remove effects of the applied gain; and equalizing at least a data portion of the received signal using the adjusted equalization values and storing the result in a computer readable memory, wherein the received signal comprises a first portion comprising the reference signal and the at least data portion, and wherein at least prior to the equalizing the gain is not applied to any of the at least data portion. applying a gain to a reference signal; estimating a wireless channel, over which a received signal passed, using the reference signal with the applied gain; adjusting equalization values obtained from the estimating to remove effects of the applied gain; and equalizing at least a data portion of the received signal using the adjusted equalization values and storing the result in a computer readable memory, wherein the received signal comprises a first portion comprising the reference signal and the at least data portion, and wherein at least prior to the equalizing the gain is not applied to any of the at least data portion.
A composition [composition] comprising: - at least one vinylidene fluoride polymer [polymer], and - at least one polymer [polymer (N-ZW)] comprising zwitterionic recurring units derived from at least one ethylenically unsaturated monomer having at least two ionic groups, at least one of them being a cationic group [group (C+)] and at least one of them being an anionic group [group (A-)], and further comprising at least one hydroxyl group [units (R ZW)]. - at least one vinylidene fluoride polymer [polymer], and - at least one polymer [polymer (N-ZW)] comprising zwitterionic recurring units derived from at least one ethylenically unsaturated monomer having at least two ionic groups, at least one of them being a cationic group [group (C+)] and at least one of them being an anionic group [group (A-)], and further comprising at least one hydroxyl group [units (R ZW)].
A near field communication, NFC, very high bit rate, VHBR, phase shift keying receiver, said receiver comprising an analog front end for receiving an analog demodulated signal having a preamble portion and for generating a digital register input signal including a received preamble portion and comprising a number of symbols, each symbol having phase information; a preamble memory for storing all possible preambles contained within the demodulated signal and for supplying a selected preamble memory output corresponding to a selected memory address and comprising a number of symbols, each symbol having preamble phase information; a finite state machine for selecting the memory address of the demodulated signal based on a value of the symbols of the received preamble portion; and a memory alignment module configured to compare the phase information of the symbols of the preamble portion with the preamble phase information to check that the preamble portion of the register input signal matches the selected preamble memory output, wherein the memory alignment module is configured to compare the phase information of the symbols of the preamble portion with the preamble phase information by determining and comparing a phase variance trend of at least two symbols of the preamble portion with the phase variance trend of a corresponding at least two symbols of the selected preamble memory output, wherein the phase variance trend indicates how the phase of a symbol varies with respect to adjacent symbols. an analog front end for receiving an analog demodulated signal having a preamble portion and for generating a digital register input signal including a received preamble portion and comprising a number of symbols, each symbol having phase information; a preamble memory for storing all possible preambles contained within the demodulated signal and for supplying a selected preamble memory output corresponding to a selected memory address and comprising a number of symbols, each symbol having preamble phase information; a finite state machine for selecting the memory address of the demodulated signal based on a value of the symbols of the received preamble portion; and a memory alignment module configured to compare the phase information of the symbols of the preamble portion with the preamble phase information to check that the preamble portion of the register input signal matches the selected preamble memory output, wherein the memory alignment module is configured to compare the phase information of the symbols of the preamble portion with the preamble phase information by determining and comparing a phase variance trend of at least two symbols of the preamble portion with the phase variance trend of a corresponding at least two symbols of the selected preamble memory output, wherein the phase variance trend indicates how the phase of a symbol varies with respect to adjacent symbols.
An optoelectronic light emission assembly comprising an optoelectronic device including one of a light emitting diode and a laser diode, wherein the optoelectronic device is adapted to generate heat and light, and an upconverting material that, in exposure to said heat generated by the optoelectronic device reduces thermal energy of the device and produces up-converted visible light that is emitted together with the light generated by the optoelectronic device, and a down-converting material arranged to receive primary radiation from the light emitting diode or laser diode and to responsively emit a visible light output.
A method of wireless communications by a base station, comprising: transmitting a reservation request during a first control slot for the base station, the first control slot occurring in a reservation channel at a beginning of a synchronized frame; receiving a reservation response from a first user equipment associated with the base station during a second control slot of the reservation channel for the base station; characterised by receiving, from the first UE, after a third control slot of the reservation channel for a neighboring base station, a reservation indication based on a measurement by the first UE of the neighboring base station or at least one other UE associated with the neighboring base station during the third control slot. transmitting a reservation request during a first control slot for the base station, the first control slot occurring in a reservation channel at a beginning of a synchronized frame; receiving a reservation response from a first user equipment associated with the base station during a second control slot of the reservation channel for the base station; characterised by receiving, from the first UE, after a third control slot of the reservation channel for a neighboring base station, a reservation indication based on a measurement by the first UE of the neighboring base station or at least one other UE associated with the neighboring base station during the third control slot.
An elastic thread yarn comprising: - an elastic thread made of an elastomeric material; and - a substantially inextensible yarn that is helically wound around said elastic thread forming a predetermined number T of windings per length unit of said elastic thread yarn, wherein said substantially inextensible yarn comprises linen and/or ramiè and/or hemp, said inextensible yarn having a predetermined metric count Nm, wherein said metric count Nm of said inextensible yarn is set between 8 Km/Kg and 80 Km/Kg (10000/8÷10000/80 dtex); characterised in that said number T of windings per length unit is obtained by the equation T = K 1000 Nm α where K is a number set between 25.9 and 46.7and α is 0.327. - an elastic thread made of an elastomeric material; and - a substantially inextensible yarn that is helically wound around said elastic thread forming a predetermined number T of windings per length unit of said elastic thread yarn,
A method for the isolation of microvesicles from a sample containing microvesicles, comprising: (i) contacting the sample with at least one polysaccharide under conditions for the isolation of the microvesicles, wherein the conditions comprise: (a) contacting the sample with a solution comprising the at least one polysaccharide to form a polysaccharide-microvesicle complex; and (b) separating the polysaccharide-microvesicle complex from the solution; wherein the at least one polysaccharide is chondroitin sulfate, dermatan sulfate, keratan sulfate, heparin, heparan sulfate or hyaluronan. (i) contacting the sample with at least one polysaccharide under conditions for the isolation of the microvesicles, wherein the conditions comprise: (a) contacting the sample with a solution comprising the at least one polysaccharide to form a polysaccharide-microvesicle complex; and (b) separating the polysaccharide-microvesicle complex from the solution; wherein the at least one polysaccharide is chondroitin sulfate, dermatan sulfate, keratan sulfate, heparin, heparan sulfate or hyaluronan. (a) contacting the sample with a solution comprising the at least one polysaccharide to form a polysaccharide-microvesicle complex; and (b) separating the polysaccharide-microvesicle complex from the solution;
An LCD device comprising: first and second substrate (100, 200) confronting each other; a liquid crystal layer between the first and second substrates (100, 200); and a transparent electrode pattern layer in a predetermined pattern on one surface of the first substrate (100, 200), which is not confronting the second substrate, for prevention of static electricity and improvement of touch sensitivity, whereas transparent electrode pattern layer includes plural first patterns arranged at fixed intervals in a first direction, characterized in that the first patterns include a region with a first width in the first direction and another region with a second width in the first direction, wherein the first width is different from the second width. first and second substrate (100, 200) confronting each other; a liquid crystal layer between the first and second substrates (100, 200); and a transparent electrode pattern layer in a predetermined pattern on one surface of the first substrate (100, 200), which is not confronting the second substrate, for prevention of static electricity and improvement of touch sensitivity, whereas transparent electrode pattern layer includes plural first patterns arranged at fixed intervals in a first direction, characterized in that the first patterns include a region with a first width in the first direction and another region with a second width in the first direction, wherein the first width is different from the second width.
Flat material section for producing a bush-shaped metallic slide bearing element or metal/plastic compound slide bearing element, with a butt joint, in particular a slide bearing bush or slide bearing flange bush, in a bend-forming process, wherein the ends (8, 10) of the deformed flat material section lying against each other at the butt joint can be engaged with each other via projections and recesses at the ends (8, 10) in that the ends (8, 10) are pressed against each other during the bend-forming process and are engaged with each other in this way, wherein the projections are here bent relative to the circumference direction of the slide bearing element and also compressed, wherein the projections cannot be moved into the recesses without compression, wherein precisely one projection and precisely one recess are formed at each end (8, 10) of the flat material section, and wherein the respective projection and the respective recess are formed at each end (8, 10) immediately next to each other and merge with each other whilst becoming increasingly rounded, characterised in that the ends (8, 10) define a single separating plane of the butt joint next to the precisely one projection and next to the precisely one recess in a width direction and in that the projections are formed oversized compared to the recesses by 5 - 15%, wherein the respective recess engages behind the respective projection in circumference direction in that it extends into an area behind the projection in circumference direction, so that a rear grip is created in circumference direction when the two ends (8, 10) are pressed against each other during the bend-forming process, and that the respective recess forms an angle (α) of 5 - 45° to the circumference direction.
An apparatus for generating a representation of at least part of a scene from images of a scene captured by plurality of distributed depth-sensing cameras, the apparatus comprising: a first receiver for receiving a first image captured by a first depth-sensing camera and first depth data captured by the first depth-sensing camera; and characterized by further comprising: a detector for detecting an image position property for a fiducial marker in the first image, the image position property being indicative of a position of the fiducial marker in the first image and the fiducial marker representing a placement of a second depth sensing image camera by having a predetermined placement difference with respect to the second depth sensing camera; a placement processor for determining a relative placement vector indicative of a placement of the second depth sensing image camera relative to the first depth-sensing camera in response to the image position property, and depth data of the first depth data for an image position of the fiducial marker, and the predetermined placement difference, the relative placement vector being at least three dimensional; a second receiver for receiving a second image captured by the second depth sensing image camera and second depth data captured by the second depth sensing image camera; a generator for generating the representation of at least part the scene in response to a combination of at least the first image and the second image based on the relative placement vector. a detector for detecting an image position property for a fiducial marker in the first image, the image position property being indicative of a position of the fiducial marker in the first image and the fiducial marker representing a placement of a second depth sensing image camera by having a predetermined placement difference with respect to the second depth sensing camera; a placement processor for determining a relative placement vector indicative of a placement of the second depth sensing image camera relative to the first depth-sensing camera in response to the image position property, and depth data of the first depth data for an image position of the fiducial marker, and the predetermined placement difference, the relative placement vector being at least three dimensional; a second receiver for receiving a second image captured by the second depth sensing image camera and second depth data captured by the second depth sensing image camera; a generator for generating the representation of at least part the scene in response to a combination of at least the first image and the second image based on the relative placement vector.
Extractor hood comprising a viewing hood and at least one inner element, wherein the inner element is used for covering the distance between a suction opening and an outlet opening of the viewing hood, wherein the inner element has an air passage, via which air can be guided to the outlet opening, the air passage of the inner element has a size and shape which correspond to the size and shape of the outlet opening of the viewing hood, the inner element covers the entire suction opening in a perpendicular projection onto the suction opening, apart from the air passage for supplying air to the outlet opening of the viewing hood, characterised in that the inner element is connected to the viewing hood in a pivotable manner and can be moved in relation to the viewing hood and that the inner element is connected to the viewing hood via a hinge and the pivot axis of the pivotable inner element lies in the front region of the viewing hood.
Tool arrangement (11, 30a-c, 33a-c) comprising: a tool die as well as a plurality of compensation discs (30a-c, 33a-c) of different disc thicknesses (d1 to d3) which are placed below the tool die in order to compensate for the regrinding length, wherein the disc thickness (d1 to d3) of each compensation disc (30a-c, 33a-c) is an integral multiple of a predefined measurement unit, and wherein each compensation disc (30a-c, 33a-c) has a coding (31, 34) in the form of a profiled arrangement (31, 34), in which the disc thickness (d1 to d3) of the compensation disc (30a-c, 33a-c) is encoded. a tool die as well as a plurality of compensation discs (30a-c, 33a-c) of different disc thicknesses (d1 to d3) which are placed below the tool die in order to compensate for the regrinding length, wherein the disc thickness (d1 to d3) of each compensation disc (30a-c, 33a-c) is an integral multiple of a predefined measurement unit, and wherein each compensation disc (30a-c, 33a-c) has a coding (31, 34) in the form of a profiled arrangement (31, 34), in which the disc thickness (d1 to d3) of the compensation disc (30a-c, 33a-c) is encoded.
A drilling system for rock drilling with a drill string, wherein the drill string comprises at least one bendable drill pipe, the drilling system comprises: - at least one conveyor device adapted to guide and bend the drill string between the first direction and a second direction, so as to convert a motion of the drill string between the first direction and the second direction, wherein the second direction corresponds to a direction on which the wellbore is to be drilled, the drilling system characterised by - at least two block and tackle systems for driving an end of the drill string in a first direction, in which one of the systems exerts tension on the drill string so as to pull it from a wellbore and another exerts tension on the drill string so as to push it. - at least one conveyor device adapted to guide and bend the drill string between the first direction and a second direction, so as to convert a motion of the drill string between the first direction and the second direction, - at least two block and tackle systems for driving an end of the drill string in a first direction, in which one of the systems exerts tension on the drill string so as to pull it from a wellbore and another exerts tension on the drill string so as to push it.
Method for producing a composite sheet metal package, comprising the following steps: - preparing a stacked layer package of alternating first layers having a first thickness (d 1) in the range from greater than or equal to 0.1 mm to less than or equal to 1.0 mm, and second layers having a second thickness (d 2) in the range from greater than or equal to 50 μm to less than or equal to 350 μm, wherein each first layer has a first soft-magnetic metal and each second layer has a second soft-magnetic metal having a specific electrical resistance of at least 0.5 μΩ·m, and - sintering the stacked layer package in order to obtain the composite sheet metal package. - preparing a stacked layer package of alternating first layers having a first thickness (d 1) in the range from greater than or equal to 0.1 mm to less than or equal to 1.0 mm, and second layers having a second thickness (d 2) in the range from greater than or equal to 50 μm to less than or equal to 350 μm, wherein each first layer has a first soft-magnetic metal and each second layer has a second soft-magnetic metal having a specific electrical resistance of at least 0.5 μΩ·m, and - sintering the stacked layer package in order to obtain the composite sheet metal package.
A dairy product fortified with dairy minerals, the dairy product comprising a dairy base and dairy minerals, the dairy base comprising at least one of milk, cream, milk protein concentrate, whey protein concentrate, milk fat, and cheese, wherein the dairy product is a cream cheese and the dairy minerals are included in an amount effective to provide the following_ratios of mineral to total protein: 0.0282 mg to 0.0505 mg calcium per mg protein; and 0.0024 mg to 0.0038 mg magnesium per mg protein. 0.0282 mg to 0.0505 mg calcium per mg protein; and 0.0024 mg to 0.0038 mg magnesium per mg protein.
A welding protection device, comprising: an eye protection shield; an auto-darkening feature for the eye protection shield; a light sensor used for the auto-darkening feature; the welding protection device being characterized by: a light beacon configured to emit light in substantially all directions; a control circuitry to control the light beacon; and a visor configured to block at least some light from the light beacon from reaching the light sensor;. an eye protection shield; an auto-darkening feature for the eye protection shield; a light sensor used for the auto-darkening feature; the welding protection device being characterized by: a light beacon configured to emit light in substantially all directions; a control circuitry to control the light beacon; and a visor configured to block at least some light from the light beacon from reaching the light sensor;. a light beacon configured to emit light in substantially all directions; a control circuitry to control the light beacon; and a visor configured to block at least some light from the light beacon from reaching the light sensor;.
A connection apparatus configured to: receive a first material from a first isotope enrichment module and feed the received first material into a second isotope enrichment module and a first storage region of a material storage apparatus, and receive a second material from the second isotope enrichment module and feed the received second material into a second storage region of the material storage apparatus. receive a first material from a first isotope enrichment module and feed the received first material into a second isotope enrichment module and a first storage region of a material storage apparatus, and receive a second material from the second isotope enrichment module and feed the received second material into a second storage region of the material storage apparatus.