mhurhangee/ep-ind-claims huggingface dataset:
A method carried out in a cable modem termination system, CMTS, for high-throughput bandwidth allocation in a cable network, comprising: bonding a plurality of upstream channels in a group; receiving a bandwidth request from a cable modem, characterized in that: the bandwidth request is based on a depth of an upstream queue of data packets, and wherein since the cable modem does not know over which channels the CMTS will choose to grant the requested bandwidth, the bandwidth request is a request for bandwidth in unburdened bytes; and issuing a multichannel grant that allocates the requested bandwidth across the bonded group for use by the cable modem in transmitting a stream of data packets to the CMTS, wherein the multichannel grant comprises several grants staggered in time across all of the plurality of upstream channels in the bonded group, wherein each grant comprises a segment header that points to a first Data Over Cable Service Interface Specification header within said each grant, and wherein the bandwidth request does not include any estimation for segment header overhead. bonding a plurality of upstream channels in a group; receiving a bandwidth request from a cable modem, characterized in that: the bandwidth request is based on a depth of an upstream queue of data packets, and wherein since the cable modem does not know over which channels the CMTS will choose to grant the requested bandwidth, the bandwidth request is a request for bandwidth in unburdened bytes; and issuing a multichannel grant that allocates the requested bandwidth across the bonded group for use by the cable modem in transmitting a stream of data packets to the CMTS, wherein the multichannel grant comprises several grants staggered in time across all of the plurality of upstream channels in the bonded group, wherein each grant comprises a segment header that points to a first Data Over Cable Service Interface Specification header within said each grant, and wherein the bandwidth request does not include any estimation for segment header overhead. the bandwidth request is based on a depth of an upstream queue of data packets, and wherein since the cable modem does not know over which channels the CMTS will choose to grant the requested bandwidth, the bandwidth request is a request for bandwidth in unburdened bytes; and issuing a multichannel grant that allocates the requested bandwidth across the bonded group for use by the cable modem in transmitting a stream of data packets to the CMTS, wherein the multichannel grant comprises several grants staggered in time across all of the plurality of upstream channels in the bonded group, wherein each grant comprises a segment header that points to a first Data Over Cable Service Interface Specification header within said each grant, and wherein the bandwidth request does not include any estimation for segment header overhead.
An infant calming/sleep-aid device, comprising: a) a rigid base; b) a main movement linkage or bearing extending from the rigid base; c) a main moving platform mounted on the main movement linkage or bearing, whereby the main moving platform is moveable on the main movement linkage or bearing relative to the rigid base; and d) an actuation assembly (58, 102) that controls movement of the main moving platform about the main movement linkage or bearing relative to the rigid base, the actuation assembly (58, 102) including an actuator (60, 104) mounted to the rigid base, and the actuation assembly (58, 102) being operable to move the infant in a reciprocating manner about an axis that intersects the infant at a 90 degree angle to a major plane of a surface supporting the infant; characterized in that the rate and amplitude of the reciprocating rotation are controlled by a logic circuit in response to signals obtained from a motion detection device (50, 123) that is connected to the logic circuit and that detects perturbations caused by the infant during reciprocating rotation and/or in response to sounds detected by at least one sound detection device (38, 125) connected to the logic circuit. a) a rigid base; b) a main movement linkage or bearing extending from the rigid base; c) a main moving platform mounted on the main movement linkage or bearing, whereby the main moving platform is moveable on the main movement linkage or bearing relative to the rigid base; and d) an actuation assembly (58, 102) that controls movement of the main moving platform about the main movement linkage or bearing relative to the rigid base, the actuation assembly (58, 102) including an actuator (60, 104) mounted to the rigid base, and the actuation assembly (58, 102) being operable to move the infant in a reciprocating manner about an axis that intersects the infant at a 90 degree angle to a major plane of a surface supporting the infant; characterized in that the rate and amplitude of the reciprocating rotation are controlled by a logic circuit in response to signals obtained from a motion detection device (50, 123) that is connected to the logic circuit and that detects perturbations caused by the infant during reciprocating rotation and/or in response to sounds detected by at least one sound detection device (38, 125) connected to the logic circuit.
An optical imaging apparatus, comprising: a fiber bundle, comprising a set of optical fibers configured to guide an imaging light and spacings between the adjacent optical fibres; a scanning unit, configured to scan the imaging light over a proximal surface of the fiber bundle using a scanning pattern; a beam forming unit, configured to receive the imaging light from the fiber bundle and to redirect the imaging light to a target region based on the scanning pattern; and a bundle actuator having a rotation component characterised in that the rotation component is configured to rotate a distal end of the set of optical fibers around a longitudinal axis of the fiber bundle relative to a proximal end of the set of optical fibers of the fiber bundle, to adjust a position of the distal end of the set of optical fibers of the fiber bundle by an angle from a first position to a second rotated position different from the first position with the scanning unit scanning the imaging light over the proximal end of the set of optical fibers of the fiber bundle to cause the redirected imaging light to cover areas associated with the spacings between the adjacent optical fibers of the fiber bundle when the fiber bundle is in the first position. a fiber bundle, comprising a set of optical fibers configured to guide an imaging light and spacings between the adjacent optical fibres; a scanning unit, configured to scan the imaging light over a proximal surface of the fiber bundle using a scanning pattern; a beam forming unit, configured to receive the imaging light from the fiber bundle and to redirect the imaging light to a target region based on the scanning pattern; and a bundle actuator having a rotation component characterised in that the rotation component is configured to rotate a distal end of the set of optical fibers around a longitudinal axis of the fiber bundle relative to a proximal end of the set of optical fibers of the fiber bundle, to adjust a position of the distal end of the set of optical fibers of the fiber bundle by an angle from a first position to a second rotated position different from the first position with the scanning unit scanning the imaging light over the proximal end of the set of optical fibers of the fiber bundle to cause the redirected imaging light to cover areas associated with the spacings between the adjacent optical fibers of the fiber bundle when the fiber bundle is in the first position.
Vehicle light comprising - a container body and a lenticular body joined at least partially to close the container body, - wherein the container body delimits a containment seat housing at least one light source that emits a beam of light through the lenticular body, - wherein said at least one light source faces at least one light guide having a light guide body shaped to receive the light beam from a light input wall, and to transmit it, by total internal reflection, to a light output wall and from this to a main light emission portion of the lenticular body, - wherein the light guide body comprises at least first extractor elements, placed between the light input wall and the light output wall, which extract a first extracted portion of the light beam emitted by the light source and direct it onto first reflecting elements separate from the light guide, said first reflecting elements reflecting said first extracted portion towards the lenticular body at a first auxiliary light emission portion of the lenticular body, separate from said main emission portion, characterized in that the extractor elements (44,60,76) are configured so that the main light emission portion and the auxiliary light emission portions (56,72,88) have different luminance levels. - a container body and a lenticular body joined at least partially to close the container body, - wherein the container body delimits a containment seat housing at least one light source that emits a beam of light through the lenticular body, - wherein said at least one light source faces at least one light guide having a light guide body shaped to receive the light beam from a light input wall, and to transmit it, by total internal reflection, to a light output wall and from this to a main light emission portion of the lenticular body, - wherein the light guide body comprises at least first extractor elements, placed between the light input wall and the light output wall, which extract a first extracted portion of the light beam emitted by the light source and direct it onto first reflecting elements separate from the light guide, said first reflecting elements reflecting said first extracted portion towards the lenticular body at a first auxiliary light emission portion of the lenticular body, separate from said main emission portion,
A method of wireless communication, comprising: identifying, by a user equipment, UE, one or more services in use or predicted to be in use by the UE; selecting, by the UE, a service specific cell selection procedure or a default cell selection procedure based on the identified one or more services, wherein the service specific cell selection procedure comprises accessing stored system information for previously selected service-specific cells and wherein the default cell selection procedure comprises scanning all radio frequency, RF, channels in the frequency bands of the radio access technologies, RATs, in the vicinity of the UE; executing, by the UE, the selected one of the service specific cell selection procedure or the default cell selection procedure to identify and select a cell to camp on; and camping, by the UE, on the selected cell. identifying, by a user equipment, UE, one or more services in use or predicted to be in use by the UE; selecting, by the UE, a service specific cell selection procedure or a default cell selection procedure based on the identified one or more services, wherein the service specific cell selection procedure comprises accessing stored system information for previously selected service-specific cells and wherein the default cell selection procedure comprises scanning all radio frequency, RF, channels in the frequency bands of the radio access technologies, RATs, in the vicinity of the UE; executing, by the UE, the selected one of the service specific cell selection procedure or the default cell selection procedure to identify and select a cell to camp on; and camping, by the UE, on the selected cell.
An environmental control system (200, 300, 400, 500) for an aircraft, the environmental control system comprising: a ram module (202, 302) having a primary heat exchanger (208a, 308a, 408a, 508a) and a secondary heat exchanger (208b, 308b, 408b, 508b); a refrigeration module (204, 304) having an air cycle machine module and a condenser heat exchanger (216, 316, 416, 516); an air cycle machine module (218,318); and a first altitude diverter valve (438, 538) wherein the environmental control system (200,300,400,500) is configured to operate the primary and secondary heat exchangers in serie when the first altitude diverter valve (438,538) is in a first position and to operate the primary and secondary heat exchangers in parallel when the first altitude diverter valve (438,538) is in a second position, wherein the environmental control system (200,300,400,500) is further configured such that air from the primary and secondary heat exchangers is provided to (i) the condenser heat exchanger (216, 316, 416, 516) when the primary and secondary heat exchangers operate in series and (ii) an aircraft cabin when the primary and secondary heat exchangers operate in parallel, and characterized by the environmental control system (200,300,400,500) comprises a bleed air supply for supplying bleed air to the air cycle machine module (218,318) and further comprising a quench valve (444, 544) for controling the flow from the primary heat exchanger such that air from the primary heat exchange can be provided to supply cool air to the bleed air supply and condition the bleed air flowing through the bleed air supply. a ram module (202, 302) having a primary heat exchanger (208a, 308a, 408a, 508a) and a secondary heat exchanger (208b, 308b, 408b, 508b); a refrigeration module (204, 304) having an air cycle machine module and a condenser heat exchanger (216, 316, 416, 516); an air cycle machine module (218,318); and a first altitude diverter valve (438, 538) wherein the environmental control system (200,300,400,500) is configured to operate the primary and secondary heat exchangers in serie when the first altitude diverter valve (438,538) is in a first position and to operate the primary and secondary heat exchangers in parallel when the first altitude diverter valve (438,538) is in a second position, wherein the environmental control system (200,300,400,500) is further configured such that air from the primary and secondary heat exchangers is provided to (i) the condenser heat exchanger (216, 316, 416, 516) when the primary and secondary heat exchangers operate in series and (ii) an aircraft cabin when the primary and secondary heat exchangers operate in parallel, and characterized by the environmental control system (200,300,400,500) comprises a bleed air supply for supplying bleed air to the air cycle machine module (218,318) and further comprising a quench valve (444, 544) for controling the flow from the primary heat exchanger such that air from the primary heat exchange can be provided to supply cool air to the bleed air supply and condition the bleed air flowing through the bleed air supply.
A base station for a communication network, the base station comprising: a transceiver configured to receive, from a core network node, a signalling message indicating that a communication device changed its network attachment and requesting the base station to fetch user equipment, 'UE', context for the communication device from another base station, the signalling message including a resume identifier associated with the device within a cell of the communication network operated by the base station; and a controller configured to retrieve, based on the received resume identifier, the UE context for the communication device, for use in resumption, in the base station, of a previously suspended communication connection by the communication device. a transceiver configured to receive, from a core network node, a signalling message indicating that a communication device changed its network attachment and requesting the base station to fetch user equipment, 'UE', context for the communication device from another base station, the signalling message including a resume identifier associated with the device within a cell of the communication network operated by the base station; and a controller configured to retrieve, based on the received resume identifier, the UE context for the communication device, for use in resumption, in the base station, of a previously suspended communication connection by the communication device.
A protective cover for an affected area of a subject, comprising: a body portion comprising an aperture, the body portion comprising a cotton or equivalent material; and a window portion wherein the body portion and window portion each optionally comprises an antimicrobial composition, wherein the body portion is formed from a material having an approximately trapezoidal shape prior to assembly or application to the subject, wherein the material having the approximately trapezoidal shape comprises: a first end body edge approximately parallel to a second end body edge, wherein the first end body edge has a first length and the second end body edge has a second length that is different from the first length. a body portion comprising an aperture, the body portion comprising a cotton or equivalent material; and a window portion wherein the body portion and window portion each optionally comprises an antimicrobial composition, wherein the body portion is formed from a material having an approximately trapezoidal shape prior to assembly or application to the subject, wherein the material having the approximately trapezoidal shape comprises: a first end body edge approximately parallel to a second end body edge, wherein the first end body edge has a first length and the second end body edge has a second length that is different from the first length.
An image capturing apparatus capable of communicating using a plurality of network interfaces and which is connected with another apparatus via a network, the said other apparatus being configured to execute control processes of the image capturing apparatus, the image capturing apparatus comprising: reception means configured to receive setting of a network address for each of the plurality of network interfaces (205, 206) sent from the other apparatus, identifying means configured to identify a subnet for each of the plurality of network interfaces based on the received network addresses, determining means configured to determine whether each of the plurality of network interfaces belongs to the same subnet, output means configured to output, to the other apparatus, information including an error message indicating that each of the plurality of network interfaces (205, 206) belongs to the same subnet if it is determined that each of the plurality of network interfaces belongs to the same subnet. reception means configured to receive setting of a network address for each of the plurality of network interfaces (205, 206) sent from the other apparatus, identifying means configured to identify a subnet for each of the plurality of network interfaces based on the received network addresses, determining means configured to determine whether each of the plurality of network interfaces belongs to the same subnet, output means configured to output, to the other apparatus, information including an error message indicating that each of the plurality of network interfaces (205, 206) belongs to the same subnet if it is determined that each of the plurality of network interfaces belongs to the same subnet.
Training mask or snorkel mask (1, 1a, 1b) having improved air circulation of inhaled air and/or exhaled air consisting of a half-mask closing in sealing manner the mouth region and nose region, in which the inhaled air flows in valve-assisted manner into the interior of the snorkel mask into a half mask connected to a face seal via at least one snorkel (2, 3) and the exhaled air can be guided out from the half mask via discharge openings there, characterised in that an air-guiding, hollow-profile channel connector (15, 40), which connects two opposing supply air channels or transfer openings to one another, via which the inhaled air flows into the channel connector (15, 40), is arranged in front of the half mask and in that via the channel connector (15, 40) at least the inhaled air can be introduced into the half mask frontally via an approximately central inflow opening.
A lighting apparatus for a motor vehicle headlight, wherein the lighting apparatus comprises an optically relevant unit, which unit can pivot in a housing about two pivot axes (H, V) that run normal to one another, wherein a drive (20, 30) is provided, in each instance, for pivoting about each of the axes (V, H), wherein the two drives (20, 30) are disposed in the housing in fixed manner, wherein the first drive comprises or drives a linear drive element for pivoting the unit about the first axis, which linear drive element is connected with the unit in articulated manner, by means of a joint, and wherein furthermore, a driver element is provided, which driver element has at least one bearing location (41, 42), preferably two bearing locations (41, 42), in which the unit is mounted so as to pivot about the first axis, and wherein the driver element is mounted in the housing so as to pivot about the second axis, in a plane normal to the second axis, and wherein the at least one bearing location (41, 42) is rotated along with the driver element when the driver element is rotated about the second axis, and wherein the second drive rotates the driver element about the second axis, characterized in that the first and the second axis (H, V) intersect one another, and the optically relevant unit is furthermore mounted on the housing in a region that lies opposite or facing away from the first joint, with a further joint, preferably a ball joint.
Washing machine, comprising a dispensing compartment and comprising a device for supplying water to the washing machine, the device having the following features: a water inlet for introducing water into the washing machine; a water tank having an inlet and an outlet, the water tank being designed to store introduced water and to allow heat to be introduced from the surroundings of the washing machine; a nozzle line which is designed to direct introduced water to a dispensing compartment of the washing machine; a water tank line which is connected to the inlet of the water tank and is designed to guide the introduced water to the water tank; a water switch which is designed to direct water from the water inlet in the direction of the nozzle line in a first switching position and to direct water from the water inlet in the direction of the water tank line in a second switching position; and a storage water line which is connected to the outlet of the water tank and is designed to direct stored water from the water tank to the dispensing compartment; characterised in that the water tank has a plurality of partition walls which slow down mixing of the stored water with newly introduced water. a water inlet for introducing water into the washing machine; a water tank having an inlet and an outlet, the water tank being designed to store introduced water and to allow heat to be introduced from the surroundings of the washing machine; a nozzle line which is designed to direct introduced water to a dispensing compartment of the washing machine; a water tank line which is connected to the inlet of the water tank and is designed to guide the introduced water to the water tank; a water switch which is designed to direct water from the water inlet in the direction of the nozzle line in a first switching position and to direct water from the water inlet in the direction of the water tank line in a second switching position; and a storage water line which is connected to the outlet of the water tank and is designed to direct stored water from the water tank to the dispensing compartment; characterised in that the water tank has a plurality of partition walls which slow down mixing of the stored water with newly introduced water.