mhurhangee/ep-ind-claims huggingface dataset:
A method of configuring an electronic device comprising first (102, 402, 602) and second (104, 404, 604) electronics modules, the first electronics module including a first operative component (220, 420) that is electrically connected to a first communication unit (222, 422, 658), the first communication unit including a transducer (224, 424) configured to transmit and/or receive an extremely high frequency electromagnetic signal and to convert between electrical signals and electromagnetic signals, the first communication unit further including a first integrated circuit (226, 426) including at least one of a transmitter circuit (228, 428) and a receiver circuit (230, 430) that is operatively coupled to the transducer, the second electronics module including a second operative component (232, 432) that is electrically connected to a second communication unit (234, 434, 660), the second communication unit including a transducer (236, 436) configured to transmit and/or receive an EHF electromagnetic signal and to convert between electrical signals and electromagnetic signals, the second communication unit further including a second integrated circuit (238, 438) including at least one of a transmitter circuit (240, 440) and a receiver circuit (242, 442) that is operatively coupled to the transducer, the method comprising: orienting respective faces of the first and second electronics modules relative to one another; attaching the first electronics module to the second electronics module with the respective faces opposing each other; attaching a power module to at least one of the first and second electronics modules, wherein the power module includes a power supply configured to supply power for the first and second electronics modules when coupled either directly or indirectly to the first and second electronics modules, wherein the first electronics module and the second electronics module are configured to receive power from the power module via inductive power transmission; and establishing an EHF communication link (246, 446, 662) between the first and second communication units through the opposing faces of the first and second electronics modules. orienting respective faces of the first and second electronics modules relative to one another; attaching the first electronics module to the second electronics module with the respective faces opposing each other; attaching a power module to at least one of the first and second electronics modules, wherein the power module includes a power supply configured to supply power for the first and second electronics modules when coupled either directly or indirectly to the first and second electronics modules, wherein the first electronics module and the second electronics module are configured to receive power from the power module via inductive power transmission; and establishing an EHF communication link (246, 446, 662) between the first and second communication units through the opposing faces of the first and second electronics modules.
A tap for drainage of a urine collection bag comprising a valve housing having a first and second flow passage (10 1, 10 2) and a substantially cylindrical inner space, a moulded valve member with a rotatable valve element and operation means for rotating the valve element in the housing between a closed valve position and an open valve position, said valve member having a means for snap-engagement for mounting onto an annular rim flange groove (13, 14) on the housing, said means for snap-engagement comprising an annular collar, characterised in that the annular collar comprises at least two open retention flange sections with inwardly projecting engagement hooks for cooperating with the rim flange groove (13, 14) for rotatably mounting the valve member onto the housing, and that said at least two open retention flange sections are annularly spaced apart by non-engaging sections.
A coupling shaft assembly for a gas turbine engine comprising: a forward coupling shaft section includes a forward interface spline and a forward mid shaft interface spline; and an aft coupling shaft section includes an aft mid shaft interface spline and an aft interface spline, said aft mid shaft interface spline engageable with said forward mid shaft interface spline, characterised in that the coupling shaft assembly further comprises: an oil distribution feature between said forward coupling shaft section and said aft coupling shaft section, wherein said oil distribution feature includes an axial extending fluid bridge having a circumferential groove and multiple axial slots. a forward coupling shaft section includes a forward interface spline and a forward mid shaft interface spline; and an aft coupling shaft section includes an aft mid shaft interface spline and an aft interface spline, said aft mid shaft interface spline engageable with said forward mid shaft interface spline, characterised in that the coupling shaft assembly further comprises: an oil distribution feature between said forward coupling shaft section and said aft coupling shaft section, wherein said oil distribution feature includes an axial extending fluid bridge having a circumferential groove and multiple axial slots.
A vehicle system comprising a control unit, a vehicle compartment holding device for holding a removable accessory, and at least one vehicle compartment feature, wherein the control unit is configured to receive a holding signal from the holding device, the holding signal indicating: - if the holding device is holding the removable accessory or not, or - if the holding device is in a first or second position, and the control unit is further configured to send a control signal for changing a setting to the at least one vehicle compartment feature in response to a change in the holding signal, wherein the vehicle compartment feature is a vanity mirror function, characterised in that the holding device is arranged at a seat (3, 4) of the vehicle, at an entrance door of the vehicle, at a passenger leg space of the vehicle, at a vehicle center console, or at a vehicle dashboard. the control unit is configured to receive a holding signal from the holding device, the holding signal indicating: - if the holding device is holding the removable accessory or not, or - if the holding device is in a first or second position, and - if the holding device is holding the removable accessory or not, or - if the holding device is in a first or second position, and the control unit is further configured to send a control signal for changing a setting to the at least one vehicle compartment feature in response to a change in the holding signal, wherein the vehicle compartment feature is a vanity mirror function, characterised in that the holding device is arranged at a seat (3, 4) of the vehicle, at an entrance door of the vehicle, at a passenger leg space of the vehicle, at a vehicle center console, or at a vehicle dashboard.
An assembly comprising a non-self-supported connection structure, a multiple payload set for a launch vehicle and a ground support equipment, GSE,, the multiple payload set comprising a plurality of payloads, wherein the plurality of payloads are interconnected via the non-self-supported connection structure, said connection structure not being able to support alone the multiple payload set to be lifted and manoeuvred, wherein the connection structure is a tube or the like that can house cables, contacts or attachment means, or wherein the connection structure is a rail structure, wherein each payload comprises first attachment means attached to the connection structure, wherein the connection structure comprises second attachment means attached to the GSE,, wherein the connection structure is designed to align the payloads according to a predetermined pattern, wherein the GSE is attached to the multiple payload set via the second attachment means to reinforce and secure the multiple payload set to enable transport and maneuverability of the multiple payload set without jeopardizing the connection structure, and wherein the assembly further comprises a payload dispenser carrying the multiple payload set.
A composition comprising a cyclic thiasilacyclopentane and an unsaturated component, wherein the cyclic thiasilacyclopentane has an alkoxy substituent and/or the unsaturated component has a multiplicity of unsaturated sites, and wherein when the composition is exposed to hydroxyl groups on a surface or to atmospheric moisture and subsequently or concurrently irradiated, the composition cures to form a solid film or solid mass by radiation cure.
Polymer composition to manufacture a transparent ophthalmic lens characterized in that it is obtained by polymerization of a polymerizable composition comprising at least: - a monomer or oligomer comprising at least a reactive group selected from epoxy, thioepoxy, epoxysilane, (meth)acrylate, thio(meth)acrylate, vinyl, urethane, thiourethane, isocyanate, mercapto, and alcohol, wherein said monomer shrinks during polymerization; - a monomer comprising at least a non-aromatic cyclic group wherein during polymerization said cyclic group opens and reacts with another molecule of monomer and/or with a reactive group of monomer or oligomer, - wherein said monomer expands during polymerization and wherein said monomer is selected from tetraspiroorthocarbonate and cyclic sulfates. - a monomer or oligomer comprising at least a reactive group selected from epoxy, thioepoxy, epoxysilane, (meth)acrylate, thio(meth)acrylate, vinyl, urethane, thiourethane, isocyanate, mercapto, and alcohol, wherein said monomer shrinks during polymerization; - a monomer comprising at least a non-aromatic cyclic group wherein during polymerization said cyclic group opens and reacts with another molecule of monomer and/or with a reactive group of monomer or oligomer, - wherein said monomer expands during polymerization and wherein said monomer is selected from tetraspiroorthocarbonate and cyclic sulfates.
A turbomachine rotor blade having an outer part (114, 314) at its distal end (110B, 310B), the outer part comprising: · a platform (120, 320) defining the outside surface of the passage for gas passing through the turbomachine and presenting first and second opposite side edges (151, 152, 351, 352); and · upstream and downstream sealing wipers (131, 132, 331, 332) extending outwards from said platform (120, 320), each wiper extending between two lateral faces (131L, 132L, 331L, 332L) situated respectively at the first and second side edges (151, 152, 351, 352); the blade (110, 310) being characterized in that the lateral faces (131L, 132L, 331L, 332L) of the upstream and downstream wipers (131, 132, 331, 332) are covered, at least in part, in an anti-wear material (160, 360, 460). · a platform (120, 320) defining the outside surface of the passage for gas passing through the turbomachine and presenting first and second opposite side edges (151, 152, 351, 352); and · upstream and downstream sealing wipers (131, 132, 331, 332) extending outwards from said platform (120, 320), each wiper extending between two lateral faces (131L, 132L, 331L, 332L) situated respectively at the first and second side edges (151, 152, 351, 352);
A power inverter for converting one or more source currents or voltages into one or more alternating currents or voltages to be injected into an electrical supply grid, the power inverter comprising a harmonics compensator configured to detect one or more harmonics of the fundamental frequency of the electrical supply grid and to control the one or more alternating currents or voltages to be injected into the electrical supply grid in such a way as to selectively modify the voltage of at least one of the one or more detected harmonics in accordance with one or more respective targets; wherein the power inverter comprises a communication interface to join a network of power inverters; and the harmonics compensator is connected to the communication interface and configured to share operating parameters over the network and to adjust the one or more targets depending on instructions and/or operating parameters communicated to it via the network, characterised in that the operating parameters comprise the powers the power inverter delivers to the electrical supply grid at each of the one or more harmonics.
Transducer device for emission and reception of ultrasonic signal, the device being formed as a wheel, wherein the wheel comprises: an array of transducers arranged on a base attached to the axle of the wheel; a tire section providing a sealed enclosure around the array of transducers, the tire section comprising a tire tread section (11, 22, 24, 25); a coupling fluid in the sealed enclosure providing an acoustic transparency between the array of transducers and contact points for the tire tread section (11, 24) towards a test material, and wherein the tire tread section (11, 22, 24, 25) is made of an elastic material characterized in that the tire tread section (11, 22, 24, 25) has a plurality of circular protruding sections. an array of transducers arranged on a base attached to the axle of the wheel; a tire section providing a sealed enclosure around the array of transducers, the tire section comprising a tire tread section (11, 22, 24, 25); a coupling fluid in the sealed enclosure providing an acoustic transparency between the array of transducers and contact points for the tire tread section (11, 24) towards a test material, and wherein the tire tread section (11, 22, 24, 25) is made of an elastic material characterized in that the tire tread section (11, 22, 24, 25) has a plurality of circular protruding sections.
Motor vehicle without a rear axle carrier with a rear axle transmission and a body and at least one body-side support structure (4a, 4b) at which wheel guiding components (5, 6) are mounted without the interposition of a rear axle carrier, wherein the rear axle transmission is fastened, with the interposition of at least one vibration decoupling link (14, 16), indirectly via at least one suspension support (12, 13) to the at least one support structure (4a, 4b) and/or at least one of the crossmembers connecting the support structures (4a, 4b), wherein the at least one suspension support (12, 13) is fastened via vibration decoupling links to the at least one support structure (4a, 4b) and/or the at least one crossmember, characterised in that one joining direction (F 1) for fastening the suspension support (12, 13) to the least one support structure (4a, 4b), in which the second vibration decoupling links sit pre-mounted, extends parallel to the vehicle transverse direction (Y-direction) or forms an angle (α) of less than or equal to 35° with it.
A measuring instrument for indicating the load in a gyratory crusher, which comprises a crushing head on which an inner shell is mounted, and a frame on which an outer shell is mounted, which outer shell defines together with the inner shell a crushing gap, a driving device being arranged to cause the crushing head to execute a gyratory pendulum movement with a view to crushing material that is introduced in the crushing gap, wherein the measuring instrument (40, 140, 340) comprises a first measuring device (32, 42, 142, 342) for measuring at least one instantaneous load on the crusher, characterised in that the measuring instrument further comprises a second measuring device (38, 44, 144, 344) for measuring the gyrating position of the inner shell relative to the outer shell, at which the gyrating position is the point on the inner periphery of the outer shell to which the inner shell is closest at a given moment, and a correlating device (48, 148, 348), which is adapted to match said at least one instantaneous load on the crusher with a corresponding measured gyrating position of the inner shell relative to the outer shell.
Self-sufficient sensor (101, 501), configured for detecting a fill level, a limit level or a pressure of at least one medium in a transport container (102, 601), comprising: a closed housing, which is configured to immerse in the at least one medium; a sensor element arrangement with one or more sensor elements (204, 205) arranged in or on the housing; wherein the sensor (101, 501) is configured to sink into the at least one medium and to rest on the bottom of the container, without attaching to the container; characterized in that the self-sufficient sensor (101, 501) is designed in such a way that its external shape and weight distribution result in it assuming a standing position without attaching to the transport container (102, 601) after sinking into the at least one medium, in which position at least one of the sensor elements (204, 205) can measure unhindered by the container wall and uncontrolled detachment during transport can be prevented. a closed housing, which is configured to immerse in the at least one medium; a sensor element arrangement with one or more sensor elements (204, 205) arranged in or on the housing; wherein the sensor (101, 501) is configured to sink into the at least one medium and to rest on the bottom of the container, without attaching to the container; characterized in that the self-sufficient sensor (101, 501) is designed in such a way that its external shape and weight distribution result in it assuming a standing position without attaching to the transport container (102, 601) after sinking into the at least one medium, in which position at least one of the sensor elements (204, 205) can measure unhindered by the container wall and uncontrolled detachment during transport can be prevented.
An isolated microorganism being genetically modified to express pyruvate formate lyase or 2-ketobutyrate formate lyase, wherein the gene encoding for isocitrate lyase (aceA) and/or malate synthase in the microorganism is deleted, wherein acetyl-CoA of the microorganism is converted to pyruvate in the presence of formate in a single step reaction, wherein the net flux of the reaction is in the direction of pyruvate synthesis.
Device for determining the inertial parameters of a body, which comprises a holding platform on which the body can be positioned and which has a central spherical joint about which the holding platform can be moved, and the central spherical joint is arranged underneath the holding platform surface, characterized in that the holding platform can be moved in three degrees of freedom (z, y, z) by means of drives (Z1, Z2, Z3), the holding platform being connected via the central joint to a drive frame on which there are arranged at least three drives (Z1, Z2, Z3), which act on the holding platform in joints (G20, G30) at a distance from the central joint.
A method for determining a hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback time, the method performed by a terminal device and comprising: receiving a downlink control signaling, wherein the downlink control signaling carries a HARQ-ACK feedback time parameter, and the HARQ-ACK feedback time parameter comprises a feedback time interval, activating a downlink semi-persistent scheduling configuration based on the downlink control signaling; receiving semi-persistent scheduling data in downlink transmission on a first time-domain resource; and determining the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource, wherein the determining the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource comprises: determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration. receiving a downlink control signaling, wherein the downlink control signaling carries a HARQ-ACK feedback time parameter, and the HARQ-ACK feedback time parameter comprises a feedback time interval, activating a downlink semi-persistent scheduling configuration based on the downlink control signaling; receiving semi-persistent scheduling data in downlink transmission on a first time-domain resource; and determining the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource, wherein the determining the HARQ-ACK feedback time of the semi-persistent scheduling data in the downlink transmission, based on the HARQ-ACK feedback time parameter and the first time-domain resource comprises: determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration. determining a first HARQ-ACK feedback time based on the feedback time interval and the first time-domain resource; and determining, as the HARQ-ACK feedback time, a latest available uplink time after the first HARQ-ACK feedback time, when a time-domain resource format of the first HARQ-ACK feedback time conflicts with a time-domain resource format indicated by a semi-static or dynamic uplink and downlink configuration.
A vaccine adjuvant comprising a plurality of amphiphilic albumin-binding conjugates comprising (a) a lipid component; (b) an optional polar component; and (c) an immunomodulatory compound or molecular adjuvant; wherein the immunomodulatory compound or molecular adjuvant is covalently linked to the lipid via a nucleotide or oligonucleotide linker comprising "n" consecutive guanines, wherein n is 1-10, and wherein the conjugate is sufficiently soluble such that the lipid binds to albumin under physiological conditions. (a) a lipid component; (b) an optional polar component; and (c) an immunomodulatory compound or molecular adjuvant;