mhurhangee/ep-ind-claims huggingface dataset:
A railcar bogie (1, 101) comprising: a cross beam configured to support a carbody of a railcar; a pair of front and rear axles between which the cross beam is located and which are respectively arranged in front of and behind the cross beam in a railcar longitudinal direction so as to extend in a railcar width direction; bearings respectively provided at both railcar width direction sides of each of the axles and configured to rotatably support the axles; axle box main bodies configured to respectively accommodate the bearings; and plate springs extending in the railcar longitudinal direction to respectively support both railcar width direction end portions of the cross beam, both longitudinal direction end portions of each of the plate springs being respectively arranged above the axle box main bodies to be respectively supported by the axle box main bodies; characterized in that longitudinal direction middle portions of the plate springs are arranged under the cross beam so as not to be fixed to the cross beam, and in that the railcar bogie (1, 101) further comprises a first side wall (31b, 162) arranged at a plate spring longitudinal direction outer side of each of the longitudinal direction end portions of the plate springs and configured to restrict parallel displacement of the plate spring relative to an upper surface of the axle box main body in the longitudinal direction, the first side wall (31b, 162) restricting the parallel displacement of the plate spring within a first predetermined displacement a cross beam configured to support a carbody of a railcar; a pair of front and rear axles between which the cross beam is located and which are respectively arranged in front of and behind the cross beam in a railcar longitudinal direction so as to extend in a railcar width direction; bearings respectively provided at both railcar width direction sides of each of the axles and configured to rotatably support the axles; axle box main bodies configured to respectively accommodate the bearings; and plate springs extending in the railcar longitudinal direction to respectively support both railcar width direction end portions of the cross beam, both longitudinal direction end portions of each of the plate springs being respectively arranged above the axle box main bodies to be respectively supported by the axle box main bodies; characterized in that longitudinal direction middle portions of the plate springs are arranged under the cross beam so as not to be fixed to the cross beam, and in that the railcar bogie (1, 101) further comprises a first side wall (31b, 162) arranged at a plate spring longitudinal direction outer side of each of the longitudinal direction end portions of the plate springs and configured to restrict parallel displacement of the plate spring relative to an upper surface of the axle box main body in the longitudinal direction, the first side wall (31b, 162) restricting the parallel displacement of the plate spring within a first predetermined displacement
A method of performing a beam refinement protocol, comprising, at a responder: receiving a BRP measurement frame from an initiator of the BRP; generating feedback regarding the BRP measurement frame; and transmitting a response to the BRP measurement frame within a predetermined time of receipt of the BRP measurement frame, including, transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available. receiving a BRP measurement frame from an initiator of the BRP; generating feedback regarding the BRP measurement frame; and transmitting a response to the BRP measurement frame within a predetermined time of receipt of the BRP measurement frame, including, transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available. transmitting the feedback if the feedback is available within the predetermined time of receipt of the BRP measurement frame; and transmitting information in acknowledgement of receipt of the BRP measurement frame if the feedback is not available within the predetermined time of receipt of the BRP measurement frame, wherein transmitting the information includes transmitting an indication of a time at which the feedback will be available.
A tire (100, 200, 300, 400) comprising: a pair of sidewalls; a circumferential tread (120, 220, 320, 420) constructed of a base rubber, the circumferential tread (120, 220, 320, 420) having a plurality of bars (130, 230, 330, 440) and a plurality of valleys (240, 340, 450) disposed between the plurality of bars (130, 230, 330, 440); and a polymeric laminate (210, 310, 410) disposed on the circumferential tread (120, 220, 320, 420), such that the polymeric laminate (210, 310, 410) covers the plurality of bars (130, 230, 330, 440) and the plurality of valleys (240, 340, 450), characterized in that the polymeric laminate (210, 310, 410) has a greater hardness than the base rubber, and the polymeric laminate (210, 310, 410) has a greater elongation at break than the base rubber. a pair of sidewalls; a circumferential tread (120, 220, 320, 420) constructed of a base rubber, the circumferential tread (120, 220, 320, 420) having a plurality of bars (130, 230, 330, 440) and a plurality of valleys (240, 340, 450) disposed between the plurality of bars (130, 230, 330, 440); and a polymeric laminate (210, 310, 410) disposed on the circumferential tread (120, 220, 320, 420), such that the polymeric laminate (210, 310, 410) covers the plurality of bars (130, 230, 330, 440) and the plurality of valleys (240, 340, 450), characterized in that
Use as perfuming ingredient of a composition of matter comprising at least 95% w/w of at least one compound of formula wherein R group is a C 1-6 alkyl group optionally comprising an ether functional group; and wherein each carbon-carbon double bond of said compound, independently from each other, can be in a configuration Z or E.
A method comprising: communicating, by a wireless access point that behaves as a bridge between a device and a cellular access network node, a link layer frame between the device and the cellular access network node, the link layer frame comprising a portion including a header and data of an upper layer protocol layer instance in the device or the cellular access network node, the header including identification information to identify which of a plurality of upper layer protocol layer instances the data is associated with, wherein the portion of the link layer frame comprising the header and the data is a payload of an Ethertype Protocol Discrimination, EPD, encoded frame; and advertising, by the bridge, a capability to support bridged access to a cellular network, the bridged access allowing communication between devices and cellular network access nodes of the cellular network through the bridge, the advertising comprising setting an EPD capability indicator to a specified value. communicating, by a wireless access point that behaves as a bridge between a device and a cellular access network node, a link layer frame between the device and the cellular access network node, the link layer frame comprising a portion including a header and data of an upper layer protocol layer instance in the device or the cellular access network node, the header including identification information to identify which of a plurality of upper layer protocol layer instances the data is associated with, wherein the portion of the link layer frame comprising the header and the data is a payload of an Ethertype Protocol Discrimination, EPD, encoded frame; and advertising, by the bridge, a capability to support bridged access to a cellular network, the bridged access allowing communication between devices and cellular network access nodes of the cellular network through the bridge, the advertising comprising setting an EPD capability indicator to a specified value.
An exoskeleton, comprising: a first link and a second link, wherein the first link and the second link are rotatable relative to each other about a first axis of rotation, thereby forming a first rotary joint of the exoskeleton; and a joint drive with a first element and a second element; wherein the first link is an elongated rigid body; wherein the first element is connected to the first link by a second rotary joint; wherein the second element is connected to the second link by a linear joint; and wherein the second element is connected to the first element by a third rotary joint; characterized in that the first link is an upper arm link and the second link is a shoulder link; and the second link is an angled rigid body. a first link and a second link, wherein the first link and the second link are rotatable relative to each other about a first axis of rotation, thereby forming a first rotary joint of the exoskeleton; and a joint drive with a first element and a second element; wherein the first link is an elongated rigid body; wherein the first element is connected to the first link by a second rotary joint; wherein the second element is connected to the second link by a linear joint; and wherein the second element is connected to the first element by a third rotary joint; characterized in that the first link is an upper arm link and the second link is a shoulder link; and the second link is an angled rigid body.
Method for operating a fluid injector, wherein the fluid injector has a longitudinal axis and comprises: - a valve body, - a valve needle, being received in the valve body, being axially moveable and being operable to prevent a fluid injection in a closing position and to permit the fluid injection in further positions, - an armature being mechanically coupled to the valve needle so that it is operable to displace the valve needle away from the closing position, - a solenoid assembly comprising at least a first and second coil (34, 36) and being operable to magnetically actuate the armature via an electrical signal (I 1) the method comprising the following steps: - applying the electrical signal (I 1)to the first coil to generate a primary magnetic field to move the armature for displacing the valve needle away from the closing position, - evaluating a voltage (U 1) across terminals of the first coil - controlling the second coil with a further electrical signal (I 2) to saturate a magnetic field in a portion of the valve body which is located between the armature and the solenoid assembly in order to have a constant magnetic flux in the valve body during evaluating the voltage (U 1). - a valve body, - a valve needle, being received in the valve body, being axially moveable and being operable to prevent a fluid injection in a closing position and to permit the fluid injection in further positions, - an armature being mechanically coupled to the valve needle so that it is operable to displace the valve needle away from the closing position, - a solenoid assembly comprising at least a first and second coil (34, 36) and being operable to magnetically actuate the armature via an electrical signal (I 1) the method comprising the following steps: - applying the electrical signal (I 1)to the first coil to generate a primary magnetic field to move the armature for displacing the valve needle away from the closing position, - evaluating a voltage (U 1) across terminals of the first coil - controlling the second coil with a further electrical signal (I 2) to saturate a magnetic field in a portion of the valve body which is located between the armature and the solenoid assembly in order to have a constant magnetic flux in the valve body during evaluating the voltage (U 1).
Working receptacle for an electrical household food preparation appliance, consisting of a lower transmission element attached by an axle to a rotating work tool arranged in a receptacle, the axle crossing a base of the receptacle and being mounted pivotingly on a bearing housed in the base of the receptacle, the lower transmission element featuring a upper collar forming a tank around the axle, characterised in that the bearing has a lower part arranged in the tank.
Preformed pre-bonded thermoplastic sections comprising smaller articles; said articles and sections comprising planar top surfaces and planar bottom surfaces that are coplanar to each other, and further comprising an adhesive backing layer on said coplanar bottom surfaces, said adhesive backing layer bridging and bonding said coplanar bottom surface to form a unified pre-bonded thermoplastic signage thereby preventing dislodging or separation of said signage during handling, movement, and/or transportation before or during application of said signage and wherein said articles when properly sequenced, matched, and combined, together comprise said sections such that when said sections are also sequenced and matched said sections combine to form said signage with a final pattern characterized in that said planar top surfaces include sequential features necessary to visibly aid in quick assembly of one or more unified thermoplastic signages.
A structure for securing a diaphragm which divides a space into a first chest and a second chest, to a case which forms the space therein, wherein the case has a first frame having a first concave portion defining the first chest, and a second frame having a second concave portion defining the second chest, an edge portion of the diaphragm is compressed and held between the first frame and the second frame which are fitted with each other, and the first frame has first securing portions for holding the second frame in a retained state upon the fitting, characterized in that the second frame has second securing portions for holding the first frame in a retained state upon the fitting. the case has a first frame having a first concave portion defining the first chest, and a second frame having a second concave portion defining the second chest, an edge portion of the diaphragm is compressed and held between the first frame and the second frame which are fitted with each other, and the first frame has first securing portions for holding the second frame in a retained state upon the fitting, characterized in that the second frame has second securing portions for holding the first frame in a retained state upon the fitting.
Method for drying wood chips which are used as raw material for a gas-generating reactor, the product gas of which is at least in part used in a combined heat and power plant (BHKW), wherein, by means of a hot air line which leads to a drying hopper and opens into same, air from the building or the housing of the combined heat and power plant, which air is heated by the heat radiation of the combined heat and power plant, heats and dries the wood chips in this drying hopper, and the wood chips pass through a first airtight lock into the drying hopper and exit the drying hopper through a second airtight lock.
An elongate metallic or polymeric or composite tape for forming at least one helically wound layer of interlocked windings in a flexible pipe body for transporting production fluids, the tape having a substantially 'Zeta' shaped profile and being configured for interlocking of adjacent windings in the layer of tape by nesting of a hooked region of a winding in a valley region of an adjacent winding, characterised in that: the tape comprises a first elongate tape element (12; 512) and second elongate tape element (14; 514) arranged in contacting relation, thereby providing the 'Zeta' shaped profile, wherein each of the first and second elongate tape elements comprise cooperating formations (40F, 40S; 540F, 540S) wherein the cooperating formations are configured to resist relative displacement of the tape elements (10, 12; 510, 512) in a given direction. the tape comprises a first elongate tape element (12; 512) and second elongate tape element (14; 514) arranged in contacting relation, thereby providing the 'Zeta' shaped profile, wherein each of the first and second elongate tape elements comprise cooperating formations (40F, 40S; 540F, 540S) wherein the cooperating formations are configured to resist relative displacement of the tape elements (10, 12; 510, 512) in a given direction.
A thermoplastic elastomer composition comprising a blend of a thermoplastic organic polymer comprising a urethane polymer and a silicone composition comprising a silicone base comprising (B1a) a diorganopolysiloxane gum having an average of at least 2 alkenyl groups per molecule and (B1b) from 1 to 50% by weight based on the diorganopolysiloxane gum (B1a) of a reinforcing filler, and an organohydrido silicone compound which contains an average of at least 2 silicon-bonded hydrogen groups per molecule, wherein the weight ratio of the thermoplastic organic polymer to the silicone composition is in the range 55:45 to 80:20.
Device for generating droplets from a liquid(I; II; III; IV; V; VI; VII) comprising: - a hollow body (1; 101; 201; 301; 401; 501; 601) delimiting a generation enclosure, - means (20, 22; 120; 220; 320; 420; 520; 620) for generating droplets from a liquid jet flowing inside said enclosure, - means (8; 108; 208; 308; 408; 508; 685) for evacuating a major portion of the liquid jet, - as well as means (6, 7; 106, 107; 206, 207; 306, 307; 406, 407; 506, 507) for diffusing droplets from a mist, formed from said jet, said generating device being characterised in that - the generation enclosure comprises an upstream chamber (5; 105; 205; 305; 405; 505), referred to as a common chamber, designed for the flow of both the liquid and mist droplets, this chamber extending axially with respect to the enclosure, - the diffusion means comprise at least one diffusion branch (6, 7; 106, 107; 206, 207; 306, 307; 406, 407; 506, 507), each branch extending obliquely from the chamber, both radially outwards from this chamber and axially downstream, as viewed from above, and - the evacuation means (8; 108; 208; 308; 408; 508; 685) extend said common chamber downstream, beyond the junction between the diffusion branch and the common chamber. - a hollow body (1; 101; 201; 301; 401; 501; 601) delimiting a generation enclosure, - means (20, 22; 120; 220; 320; 420; 520; 620) for generating droplets from a liquid jet flowing inside said enclosure, - means (8; 108; 208; 308; 408; 508; 685) for evacuating a major portion of the liquid jet, - as well as means (6, 7; 106, 107; 206, 207; 306, 307; 406, 407; 506, 507) for diffusing droplets from a mist, formed from said jet, - the generation enclosure comprises an upstream chamber (5; 105; 205; 305; 405; 505), referred to as a common chamber, designed for the flow of both the liquid and mist droplets, this chamber extending axially with respect to the enclosure, - the diffusion means comprise at least one diffusion branch (6, 7; 106, 107; 206, 207; 306, 307; 406, 407; 506, 507), each branch extending obliquely from the chamber, both radially outwards from this chamber and axially downstream, as viewed from above, and - the evacuation means (8; 108; 208; 308; 408; 508; 685) extend said common chamber downstream, beyond the junction between the diffusion branch and the common chamber.
A system for canceling acoustic echoes comprising: a multiplicity of microphones (104 1 - 104 M) configured to pick up sound generated by a sound source and transferred from the sound source to the multiplicity of microphones (104 1 - 104 M) via a multiplicity of unknown transfer paths (101 1 - 101 M) having a multiplicity of unknown transfer functions (104 1 - 104 M), and to provide a multiplicity of electrical microphone signals therefrom; a multiplicity of adaptive filters (102 1 - 102 M) configured to approximate the multiplicity of unknown transfer functions with a multiplicity of estimated transfer functions and to filter a multiplicity of electrical signals representative of the sound generated by the sound source with the multiplicity of estimated transfer functions to provide a multiplicity of estimated signals therefrom; and a microphone calibration block (601, 602 1 - 602 M) configured to individually, frequency dependently or independently attenuate or amplify the multiplicity of electrical microphone signals dependent on a multiplicity of reference signals derived from the multiplicity of estimated transfer functions, the multiplicity of reference signals representing a multiplicity of predetermined gains or desired transfer functions. a multiplicity of microphones (104 1 - 104 M) configured to pick up sound generated by a sound source and transferred from the sound source to the multiplicity of microphones (104 1 - 104 M) via a multiplicity of unknown transfer paths (101 1 - 101 M) having a multiplicity of unknown transfer functions (104 1 - 104 M), and to provide a multiplicity of electrical microphone signals therefrom; a multiplicity of adaptive filters (102 1 - 102 M) configured to approximate the multiplicity of unknown transfer functions with a multiplicity of estimated transfer functions and to filter a multiplicity of electrical signals representative of the sound generated by the sound source with the multiplicity of estimated transfer functions to provide a multiplicity of estimated signals therefrom; and a microphone calibration block (601, 602 1 - 602 M) configured to individually, frequency dependently or independently attenuate or amplify the multiplicity of electrical microphone signals dependent on a multiplicity of reference signals derived from the multiplicity of estimated transfer functions, the multiplicity of reference signals representing a multiplicity of predetermined gains or desired transfer functions.
A method, comprising: receiving, by a processor of an apparatus, downlink control information in a first time slot, the downlink control information comprising coordination information from a first node of a wireless network, where the coordination information is information exchanged between the first node and a second node of the wireless network; copying, by the processor, the coordination information; embedding, by the processor, the coordination information and acknowledge information or feedback information for the first node in uplink control information; and transmitting, by the processor, the uplink control information in a second time slot to both the first node and the second node of the wireless network. receiving, by a processor of an apparatus, downlink control information in a first time slot, the downlink control information comprising coordination information from a first node of a wireless network, where the coordination information is information exchanged between the first node and a second node of the wireless network; copying, by the processor, the coordination information; embedding, by the processor, the coordination information and acknowledge information or feedback information for the first node in uplink control information; and transmitting, by the processor, the uplink control information in a second time slot to both the first node and the second node of the wireless network.