mhurhangee/ep-ind-claims huggingface dataset:
Protective glove configured to protect a dorsal side of a hand of a user, comprising: - a flexible layer configured to fit against a back of the hand and comprising extensions that are each configured to extend along and fit against a respective proximal phalanx of a finger; - a rigid shell configured to extend over a metacarpal area and over knuckles of the back of the hand to thereby protect the back of the hand, wherein said shell is supported by said flexible layer and arranged at an offset relative to the back of the hand to thereby define a gap between the shell and the back of the hand; and - wherein one or more than one of the extensions that are configured to extend along the proximal phalanx of the finger supports a phalanx protector that is configured to extend over the respective proximal phalanx, characterized in that - the phalanx protector is further configured to extend over a corresponding knuckle of the hand; and - wherein, at least when the fingers are extended, the rigid shell and the phalanx protector define an overlap and the phalanx protector that extends over the corresponding knuckle extends in the offset that defines the gap between the rigid shell and the back of the hand. - a flexible layer configured to fit against a back of the hand and comprising extensions that are each configured to extend along and fit against a respective proximal phalanx of a finger; - a rigid shell configured to extend over a metacarpal area and over knuckles of the back of the hand to thereby protect the back of the hand, wherein said shell is supported by said flexible layer and arranged at an offset relative to the back of the hand to thereby define a gap between the shell and the back of the hand; and - wherein one or more than one of the extensions that are configured to extend along the proximal phalanx of the finger supports a phalanx protector that is configured to extend over the respective proximal phalanx, - the phalanx protector is further configured to extend over a corresponding knuckle of the hand; and - wherein, at least when the fingers are extended, the rigid shell and the phalanx protector define an overlap and the phalanx protector that extends over the corresponding knuckle extends in the offset that defines the gap between the rigid shell and the back of the hand.
Method for producing a sealing base in the ground by means of an injection lance which is introduced up to a defined ground layer and through which a gel material is injected as sealing medium into the ground, wherein a sealing body (12, 14, 16) is produced in the ground, wherein the gel material displaces water between grains of the ground material and closes up these interspaces in a water-impermeable manner, and a plurality of sealing bodies (12, 14, 16) are introduced into the ground layer by being spaced apart from each other such that a continuous sealing base is formed in the ground, wherein a plurality of first sealing bodies is produced in a first ground layer in a predetermined first spacing grid with grid interspaces, wherein the first sealing bodies are spaced apart from each other in a horizontal direction, and wherein, offset to the first sealing bodies, a plurality of second sealing bodies is introduced into a second ground layer which has a predetermined vertical spacing to the first ground layer, wherein in order to form the sealing base the second sealing bodies at least partially cover the grid interspaces of the first sealing bodies and contact adjacent first sealing bodies. a plurality of first sealing bodies is produced in a first ground layer in a predetermined first spacing grid with grid interspaces, wherein the first sealing bodies are spaced apart from each other in a horizontal direction, and wherein, offset to the first sealing bodies, a plurality of second sealing bodies is introduced into a second ground layer which has a predetermined vertical spacing to the first ground layer, wherein in order to form the sealing base the second sealing bodies at least partially cover the grid interspaces of the first sealing bodies and contact adjacent first sealing bodies.
A method of wireless communication performed by a user equipment, UE, having dual connectivity with first and second network nodes comprising respective first and second cell groups, the method comprising: determining, at the UE a timing difference between a first carrier of the first cell group and a second carrier of the second cell group, wherein the cell groups are different from one another; and offsetting, at the UE, a timing of at least one operation in relation to a radio resource configuration of the first carrier or the second carrier by a number of subframes determined in accordance with the timing difference, wherein the at least one operation comprises implementing a measurement gap on the second carrier and offsetting the timing comprises offsetting the measurement gap on the second carrier in relation to a measurement gap configuration of the first carrier, or wherein the at least one operation comprises a discontinuous reception, DRX, operation on the first carrier and offsetting the timing comprises offsetting a subframe in which radio frequency, RF, retuning is performed in connection with the DRX operation. determining, at the UE a timing difference between a first carrier of the first cell group and a second carrier of the second cell group, wherein the cell groups are different from one another; and offsetting, at the UE, a timing of at least one operation in relation to a radio resource configuration of the first carrier or the second carrier by a number of subframes determined in accordance with the timing difference, wherein the at least one operation comprises implementing a measurement gap on the second carrier and offsetting the timing comprises offsetting the measurement gap on the second carrier in relation to a measurement gap configuration of the first carrier, or wherein the at least one operation comprises a discontinuous reception, DRX, operation on the first carrier and offsetting the timing comprises offsetting a subframe in which radio frequency, RF, retuning is performed in connection with the DRX operation.
Surface covering, comprising a plurality of concrete moulded blocks (3, 3', 3") laid together in a pattern on a bedding layer, which is produced by paving, wherein adjoining moulded blocks (3, 3', 3") form joints (4, 4') which are filled with an essentially sand-like joint material and form seepage paths for draining off precipitation water flows from the surface of the surface covering into the bedding layer, wherein the joint material forms a filter layer for removing harmful substances from the precipitation water flows, characterised in that the joint material consists of a mixture of a sand-like portion, a fines portion and an artificial molecular sieve, wherein the volumetric proportion of the artificial molecular sieve in relation to the overall volume of the mixture is between 2% and 10%.
Rotor shaft module for a rotor shaft of a molded-case circuit breaker, having a module body consisting of an electrically insulating first material, wherein the module body has a receptacle for a contact element of the molded-case circuit breaker, and the rotor shaft module has at least one coupling apparatus for connection to an opposing coupling apparatus of a further rotor shaft module, wherein the rotor shaft module has an insert element which is fixed on the module body, wherein the insert element comprises a second material, which has a higher strength than the first material, wherein the insert element is completely spaced apart from the receptacle by the electrically insulating first material of the module body, and wherein the at least one coupling apparatus is formed by the insert element, wherein the rotor shaft module has at least one opposing coupling apparatus, wherein the at least one opposing coupling apparatus is formed by the insert element, characterized in that the at least one coupling apparatus and the at least one opposing coupling apparatus are arranged at different axial ends of the rotor shaft module.
An apparatus configured for communication with applications provided in a data network via a plurality of access systems providing a plurality of corresponding access interfaces based on different access technologies, the apparatus comprising a processor configured to: process service network information regarding access systems received from an access system and to select at least one access system or corresponding access interface for communication with an application provided in the data network based on said service network information and information regarding the application, wherein the processor is configured to select an access system or corresponding access interface with an associated suffix that matches with a suffix that associates with the application. process service network information regarding access systems received from an access system and to select at least one access system or corresponding access interface for communication with an application provided in the data network based on said service network information and information regarding the application, wherein the processor is configured to select an access system or corresponding access interface with an associated suffix that matches with a suffix that associates with the application.
An animal feed composition, comprising: (i) a base feed, and (ii) a gluco-oligosaccharide composition, wherein a glycosidic bond type distribution of the gluco-oligosaccharide composition is characterized by linkage content: 0 to 20 mol% α-(1,2) glycosidic linkages; 0 to 45 mol% β-(1,2) glycosidic linkages; 10 to 30 mol% α-(1,3) glycosidic linkages; 10 to 20 mol% β-(1,3) glycosidic linkages; 0 to 55 mol% β-(1,4) glycosidic linkages; and 10 to 55 mol% β-(1,6) glycosidic linkages, and wherein at least 10 dry wt% of the gluco-oligosaccharide composition has a degree of polymerization of at least 3. (i) a base feed, and (ii) a gluco-oligosaccharide composition, wherein a glycosidic bond type distribution of the gluco-oligosaccharide composition is characterized by linkage content: 0 to 20 mol% α-(1,2) glycosidic linkages; 0 to 45 mol% β-(1,2) glycosidic linkages; 10 to 30 mol% α-(1,3) glycosidic linkages; 10 to 20 mol% β-(1,3) glycosidic linkages; 0 to 55 mol% β-(1,4) glycosidic linkages; and 10 to 55 mol% β-(1,6) glycosidic linkages, and wherein at least 10 dry wt% of the gluco-oligosaccharide composition has a degree of polymerization of at least 3. 0 to 20 mol% α-(1,2) glycosidic linkages; 0 to 45 mol% β-(1,2) glycosidic linkages; 10 to 30 mol% α-(1,3) glycosidic linkages; 10 to 20 mol% β-(1,3) glycosidic linkages; 0 to 55 mol% β-(1,4) glycosidic linkages; and 10 to 55 mol% β-(1,6) glycosidic linkages, and
A nitrile rubber composition containing a carboxyl group-containing nitrile rubber with an iodine value of 120 or less and bituminous coal, the iodine value being measured in accordance with JIS K 6235.
A drying system for portable electronic devices, the system comprising: a chamber configured to receive a portable electronic device; a pressurization subsystem configured, when the portable electronic device is in the chamber, to produce a negative pressure environment within the chamber sufficient to gasify liquid in the portable electronic device; a heating subsystem comprising a thermal conduction assembly having a plurality of thermally conductive metal beads that are configured, when the portable electronic device is in the chamber, to at least partially conform to an external shape of the portable electronic device, the heating subsystem being configured to heat the portable electronic device when it is in the chamber by generating heat and conducting the heat to the portable electronic device via the plurality of thermally conductive beads while the negative pressure environment is produced; and a monitoring subsystem comprising a temperature sensor within the chamber configured to monitor an internal temperature of the chamber, wherein the monitoring subsystem is configured to modify the heat delivered to the thermal conduction assembly, such that the delivered heat is at least sufficient to replenish latent heat of vaporization lost from producing the negative pressure environment. a chamber configured to receive a portable electronic device; a pressurization subsystem configured, when the portable electronic device is in the chamber, to produce a negative pressure environment within the chamber sufficient to gasify liquid in the portable electronic device; a heating subsystem comprising a thermal conduction assembly having a plurality of thermally conductive metal beads that are configured, when the portable electronic device is in the chamber, to at least partially conform to an external shape of the portable electronic device, the heating subsystem being configured to heat the portable electronic device when it is in the chamber by generating heat and conducting the heat to the portable electronic device via the plurality of thermally conductive beads while the negative pressure environment is produced; and a monitoring subsystem comprising a temperature sensor within the chamber configured to monitor an internal temperature of the chamber, wherein the monitoring subsystem is configured to modify the heat delivered to the thermal conduction assembly, such that the delivered heat is at least sufficient to replenish latent heat of vaporization lost from producing the negative pressure environment.
A method of facilitating acquisition, by a mobile station in radio communication with an anchor base station, of data representing distances between the mobile station and base stations of an active set of base stations in radio communication with the mobile station, the active set including a subset of neighbor base stations of the anchor base station, the method comprising: transmitting, from the anchor base station to each other base station of the active set, a ranging resource signal identifying a reference code and a reference time associated with the mobile station; causing the mobile station to transmit a ranging signal including the reference code to each base station of the active set at a time in response to the reference time, such that each base station of the active set receives the ranging signal at a respective time; receiving, from each base station of the active set, a respective offset signal identifying a respective difference in time between the reference time and the respective time when the base station of the active set received the ranging signal; and transmitting, to the mobile station, a ranging control signal in response to the respective offset signals. transmitting, from the anchor base station to each other base station of the active set, a ranging resource signal identifying a reference code and a reference time associated with the mobile station; causing the mobile station to transmit a ranging signal including the reference code to each base station of the active set at a time in response to the reference time, such that each base station of the active set receives the ranging signal at a respective time; receiving, from each base station of the active set, a respective offset signal identifying a respective difference in time between the reference time and the respective time when the base station of the active set received the ranging signal; and transmitting, to the mobile station, a ranging control signal in response to the respective offset signals.
Method for the manufacture of an ALS inhibitor herbicide tolerant Beta vulgaris plant and parts thereof comprising a mutation at a position corresponding to position 1705-1707 of an endogenous acetolactate synthase gene shown in reference nucleotide sequence SEQ ID NO: 1, wherein the ALS gene encodes an ALS polypeptide containing amino acid leucine at a position 569 of the ALS polypeptide, and which are homozygous for the mutation of the ALS gene, wherein the Beta vulgaris plant is non-transgenic as regards said endogenous ALS gene, and the codon at a position corresponding to position 1705-1707 is TTG, said method comprising the following steps: (a) exposing calli from B. vulgaris, to about 10 -7 M - 10 -9 M of an ALS inhibitor herbicide; (b) selecting cell colonies which can grow in the presence of up to3 x 10 -6 M of an ALS inhibitor herbicide; (c) regenerating shoots in presence of an ALS inhibitor herbicide; (d) selecting regenerated plantlets with an ALS inhibitor herbicide, wherein the plantlets comprise a mutation at a position corresponding to position 1705-1707 of an endogenous acetolactate synthase gene shown in reference nucleotide sequence SEQ ID NO: 1, wherein the ALS gene encodes an ALS polypeptide containing amino acid leucine at a position 569 of the ALS polypeptide. (a) exposing calli from B. vulgaris, to about 10 -7 M - 10 -9 M of an ALS inhibitor herbicide; (b) selecting cell colonies which can grow in the presence of up to3 x 10 -6 M of an ALS inhibitor herbicide; (c) regenerating shoots in presence of an ALS inhibitor herbicide; (d) selecting regenerated plantlets with an ALS inhibitor herbicide,
Rotary actuator, in particular for a motor vehicle, comprising an actuating element which is able to rotate about an axis and comprising a position sensor which detects the position of the actuating element in the circumferential direction, wherein the rotary actuator is designed in such a way that the rotational movement of the actuating element, after manual actuation, is continued for a certain distance in the released state and is decelerated, wherein the rotary actuator has an electric motor for driving the actuating element in the released state, characterized in that the rotary actuator has a control device or is connected to a control device which switches on the electric motor when the end of manual actuation has been detected.
Safety profile strip, comprising a rubberized elastic sealing profile (30, 32) with a rubberized elastic profiled foot (34, 46), which can be fastened in recesses and support projections of a door profile, wherein the rubberized elastic sealing profile has a first outer side, a second outer side and a front side which extends in the longitudinal extension of the sealing profile, and the front face is located opposite the rubberized elastic profiled foot (30, 32), wherein a chamber (66, 68) for receiving a light grid strip, e.g. a transmitter and/or receiver strip or reflector strip, is cut out of the sealing profile (30, 32) and in the front side of the rubberized elastic sealing profile (30, 32) in the region of the chamber (66, 68), openings (90, 92) are provided, spaced apart from one another, for the passage of light beams from or to the light grid strip.
A system for determining closure state of an eye of a subject, said system comprising: a video imaging camera oriented to generate images of an eye of a subject; and a video processor for processing the images generated with the video imaging camera, said video processor configured to detect an edge boundary of an eye in the video images and determine if the images of an eye defined by the edge boundary of the eye are noisy when the shape of the eye defined by the edge boundary includes one or more tail extending from, or one or more peaks located in, said edge boundary, said video processor adapted to determine closure state of the eye based on a shape of the eye in the images if the images of the eye are not noisy, and determine closure state of the eye based on changes in the size of the eye over time if the images of the eye are noisy. a video imaging camera oriented to generate images of an eye of a subject; and a video processor for processing the images generated with the video imaging camera,
A control method of an automatic working system, said automatic working system comprising: a signal generating device for generating a current signal, said current signal generating an electromagnetic field when flowing through a boundary wire; and an automatic moving device, said automatic moving device having at least one detecting device for detecting said electromagnetic field; the control method comprising the following steps: detecting said electromagnetic field, and generating at least one detection signal; upward offsetting, downward offsetting or fixing the whole of the detection signal relative to a zero point in an offset device; comparing at least one feature point of the detection signal with a preset condition comprising a range of an input signal of an analog to digital converter, said range comprising an upper threshold value and a lower threshold value, said feature point comprising a peak value and/or a valley value of the detection signal; determining a gain signal according to the results of the comparison, if said feature point is higher than said upper threshold value, reducing an amplification factor of said gain signal, if said feature point is lower than said lower threshold value, then increasing an amplification factor of said gain signal, such that said gain signal formed after adjusting accords with said preset condition. detecting said electromagnetic field, and generating at least one detection signal; upward offsetting, downward offsetting or fixing the whole of the detection signal relative to a zero point in an offset device; comparing at least one feature point of the detection signal with a preset condition comprising a range of an input signal of an analog to digital converter, said range comprising an upper threshold value and a lower threshold value, said feature point comprising a peak value and/or a valley value of the detection signal; determining a gain signal according to the results of the comparison, if said feature point is higher than said upper threshold value, reducing an amplification factor of said gain signal, if said feature point is lower than said lower threshold value, then increasing an amplification factor of said gain signal, such that said gain signal formed after adjusting accords with said preset condition.
A wireless transmit/receive unit, WTRU, comprising: a circuit configured to transmit a request for uplink resources via an enhanced dedicated channel, E-DCH; the circuit further configured to receive an uplink scheduling grant in response to the request for uplink resources; the circuit further configured to multiplex data from at least one medium access control for dedicated channel, MAC-d, flow into a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU; the circuit further configured to select a transport format combination, TFC, for transmission of the MAC-e PDU, at least based on the uplink scheduling grant, a maximum allowed transmit power, logical channel priority, and allowed combinations of MAC-d flows in a MAC-e PDU which is configured by a radio network controller, RNC; and the circuit further configured to transmit the MAC-e PDU via the E-DCH using a hybrid automatic repeat request, H-ARQ, process. a circuit configured to transmit a request for uplink resources via an enhanced dedicated channel, E-DCH; the circuit further configured to receive an uplink scheduling grant in response to the request for uplink resources; the circuit further configured to multiplex data from at least one medium access control for dedicated channel, MAC-d, flow into a medium access control for enhanced uplink, MAC-e, protocol data unit, PDU; the circuit further configured to select a transport format combination, TFC, for transmission of the MAC-e PDU, at least based on the uplink scheduling grant, a maximum allowed transmit power, logical channel priority, and allowed combinations of MAC-d flows in a MAC-e PDU which is configured by a radio network controller, RNC; and the circuit further configured to transmit the MAC-e PDU via the E-DCH using a hybrid automatic repeat request, H-ARQ, process.