mhurhangee/ep-ind-claims huggingface dataset:
A method of content transmission based on multimedia broadcast/multicast service, MBMS, in a machine type communication, MTC, comprising: receiving a session start time from a MTC server; sending to a plurality of MTC devices a service announcement including the session start time; beginning to establish MBMS bearers to the plurality of MTC devices when the session start time is reached; sending a notification about MBMS bearers established for the session start time to the plurality of MTC devices; and transmitting to the plurality of MTC devices via the MBMS bearers, MTC service contents coming from the MTC server, wherein the service announcement is sent to the plurality of MTC devices via the MBMS bearers at a fixed time point preconfigured to the plurality of MTC devices. receiving a session start time from a MTC server; sending to a plurality of MTC devices a service announcement including the session start time; beginning to establish MBMS bearers to the plurality of MTC devices when the session start time is reached; sending a notification about MBMS bearers established for the session start time to the plurality of MTC devices; and transmitting to the plurality of MTC devices via the MBMS bearers, MTC service contents coming from the MTC server, wherein the service announcement is sent to the plurality of MTC devices via the MBMS bearers at a fixed time point preconfigured to the plurality of MTC devices.
A capacitive micro-electro-mechanical sensor, comprising: a) a first layer, wherein said first layer has a top surface and a bottom surface, wherein said first layer comprises single-crystal silicon, and wherein said first layer forms at least one single-crystal silicon electrode; b) a second layer, wherein said second layer has a top surface and a bottom surface, wherein said second layer comprises single-crystal silicon, and wherein at least one single-crystal silicon electrode is defined in said second layer by an insulating trench of dielectrical material that extends from said top surface to said bottom surface of said second layer and forms a periphery around said electrode; and c) at least one electrical contact, wherein said at least one electrical contact is situated on said bottom surface of said second layer and is in electrical connection with said at least one electrode in said second layer; wherein said at least one electrode in said first layer and said at least one electrode in said second layer define a capacitor. a) a first layer, wherein said first layer has a top surface and a bottom surface, wherein said first layer comprises single-crystal silicon, and wherein said first layer forms at least one single-crystal silicon electrode; b) a second layer, wherein said second layer has a top surface and a bottom surface, wherein said second layer comprises single-crystal silicon, and wherein at least one single-crystal silicon electrode is defined in said second layer by an insulating trench of dielectrical material that extends from said top surface to said bottom surface of said second layer and forms a periphery around said electrode; and c) at least one electrical contact, wherein said at least one electrical contact is situated on said bottom surface of said second layer and is in electrical connection with said at least one electrode in said second layer;
A user equipment operable to communicate a power preference indication message, the UE having computer circuitry configured to: receive PPI configuration information, from an evolved node B (eNB), wherein the PPI configuration information includes a predetermined threshold for a number of PPI messages that the UE can communicate to the eNB during a defined time window after indicating a low power consumption configuration; communicate a plurality of PPI messages after indicating the low power consumption configuration to the eNB during the defined time window, wherein the plurality of PPI messages each indicate a change in preferred power consumption configuration; detect that the plurality of PPI messages exceeds the predetermined threshold for the number of PPI messages that the UE can communicate to the eNB during the defined time window as defined in the PPI configuration information; and initiate a threshold timer in response to the plurality of PPI messages exceeding the predetermined threshold to restrict additional PPI messages from being communicated to the eNB until expiration of the threshold timer, wherein the threshold timer is a T340 prohibit timer. receive PPI configuration information, from an evolved node B (eNB), wherein the PPI configuration information includes a predetermined threshold for a number of PPI messages that the UE can communicate to the eNB during a defined time window after indicating a low power consumption configuration; communicate a plurality of PPI messages after indicating the low power consumption configuration to the eNB during the defined time window, wherein the plurality of PPI messages each indicate a change in preferred power consumption configuration; detect that the plurality of PPI messages exceeds the predetermined threshold for the number of PPI messages that the UE can communicate to the eNB during the defined time window as defined in the PPI configuration information; and initiate a threshold timer in response to the plurality of PPI messages exceeding the predetermined threshold to restrict additional PPI messages from being communicated to the eNB until expiration of the threshold timer, wherein the threshold timer is a T340 prohibit timer.
A method for transmitting control information to a User Equipment, UE, in a Multiple Input Multiple Output, MIMO, system, the method comprising: dividing frequency bandwidth into ranges to which a same Precoding Matrix Index, PMI, is applied; obtaining multiple antenna information by the range to which the same PMI is applied; transmitting common control information through a first control channel; the method being characterized in that: the common control information includes information on an existence, a location, and a size of specific control information loaded on a second control channel, wherein the specific control information includes the multiple antenna information, transmitting the multiple antenna information when the information included in the common control information indicates the existence of specific control information, using the location and the size of the specific control information loaded on the second control channel. dividing frequency bandwidth into ranges to which a same Precoding Matrix Index, PMI, is applied; obtaining multiple antenna information by the range to which the same PMI is applied; transmitting common control information through a first control channel; the method being characterized in that: the common control information includes information on an existence, a location, and a size of specific control information loaded on a second control channel, wherein the specific control information includes the multiple antenna information, transmitting the multiple antenna information when the information included in the common control information indicates the existence of specific control information, using the location and the size of the specific control information loaded on the second control channel. the common control information includes information on an existence, a location, and a size of specific control information loaded on a second control channel, wherein the specific control information includes the multiple antenna information, transmitting the multiple antenna information when the information included in the common control information indicates the existence of specific control information, using the location and the size of the specific control information loaded on the second control channel.
A flexible accommodating intraocular lens comprising: an optic, and a pair of longitudinally rigid plate haptics, each having an anterior surface, a posterior surface, a proximal end, and a distal end, and each connected to the optic by one or more flexible connection members; a plurality of rigid paddle-like extensions, each extending laterally from one of the pair of longitudinally rigid plate haptics; and one or more anterior ridge protrusions (5, 6), each positioned on the anterior surface of one of the pair of longitudinally rigid plate haptics and adjacent to at least one of the one or more flexible connection members, and further positioned on an anterior surface of at least one of the rigid paddle-like extensions; wherein the one or more anterior ridge protrusions (5, 6) are configured to separate the optic of the intraocular lens from an anterior portion of a human lens capsular bag into which the lens is to be implanted. an optic, and a pair of longitudinally rigid plate haptics, each having an anterior surface, a posterior surface, a proximal end, and a distal end, and each connected to the optic by one or more flexible connection members; a plurality of rigid paddle-like extensions, each extending laterally from one of the pair of longitudinally rigid plate haptics; and one or more anterior ridge protrusions (5, 6), each positioned on the anterior surface of one of the pair of longitudinally rigid plate haptics and adjacent to at least one of the one or more flexible connection members, and further positioned on an anterior surface of at least one of the rigid paddle-like extensions; wherein the one or more anterior ridge protrusions (5, 6) are configured to separate the optic of the intraocular lens from an anterior portion of a human lens capsular bag into which the lens is to be implanted.
A spindle arrangement for a machine tool, comprising a spindle for driving a tool and comprising an actuator for exciting vibration of the tool, wherein the spindle arrangement is provided with a compensation device for at least partly compensating the inertia forces produced by the vibration excitation in the spindle region, wherein the actuator drives a compensation mass, characterized in that a further compensation mass encompasses the spindle and is driven by at least one further actuator.
A multi-layered dimensionally heat- recoverable tubing system comprising: a first crosslinked polymeric layer which is an outer layer of the tubing system; a second uncrosslinked polymeric layer disposed adjacent to the first layer; and a reinforcing structure positioned adjacent the second layer; characterised in that the second layer is coextruded with the first layer, in that the uncrosslinked material of the second polymeric layer has sufficient flowability to allow infiltration by the reinforcing structure and in that the first and the second layers are dimensionally heat recoverable and are configured such that the reinforcing structure infiltrates uncrosslinked material of the second layer when the tubing system is dimensionally recovered. a first crosslinked polymeric layer which is an outer layer of the tubing system; a second uncrosslinked polymeric layer disposed adjacent to the first layer; and a reinforcing structure positioned adjacent the second layer; characterised in that the second layer is coextruded with the first layer, in that the uncrosslinked material of the second polymeric layer has sufficient flowability to allow infiltration by the reinforcing structure and in that the first and the second layers are dimensionally heat recoverable and are configured such that the reinforcing structure infiltrates uncrosslinked material of the second layer when the tubing system is dimensionally recovered.
Wood-fibre mat with a bulk density from 50 to 250 kg/m 3 for use as plant substrate comprising wood fibres, - at least one biodegradable binder, - at least one means for the absorption of a polar liquid, in particular water, characterized by a quantity of from 0.5 to 5% by weight, based on the quantity of wood fibres in the wood-fibre mat, of at least one antimicrobial agent. - at least one biodegradable binder, - at least one means for the absorption of a polar liquid, in particular water, characterized by
A nuclear fuel pellet for a nuclear reactor, comprising a metallic matrix and ceramic fuel particles of a fissile material dispersed in the metallic matrix, characterized in that the metallic matrix is an alloy consisting of the principle elements U, Zr, Nb and Ti, and of possible rest elements, wherein the concentration of each of the principle elements in the metallic matrix is at the most 50 molar-%.
A personal care composition comprising: a) at least 0.2% by weight of the personal care composition hydrogen peroxide; and b) at least one antagonist to TRPA1 receptor, wherein the antagonist is at least one of Isobornyl Isobutyrate, Phloretin or 3,3,5-trimethylcyclohexanol. a) at least 0.2% by weight of the personal care composition hydrogen peroxide; and b) at least one antagonist to TRPA1 receptor, wherein the antagonist is at least one of Isobornyl Isobutyrate, Phloretin or 3,3,5-trimethylcyclohexanol.
A method for producing woodbase products from lignocellulosic particles and formaldehydic adhesives, wherein: - the lignocellulosic particles are mixed together with a zeolite - a formaldehydic adhesive is added to the mixture of lignocellulosic particles and zeolite and mixed - after the mixing, the lignocellulosic particles, the zeolite and the formaldehydic adhesives are subjected to a shaping process, characterized in that adhesion promoters, which are different from the adhesive used to produce the matrix for the woodbase product, are added to the zeolite and/or the lignocellulosic particles before the mixing of the lignocellulosic particles and the formaldehydic adhesive for improved adhesion of the zeolite to the lignocellulosic particles. - the lignocellulosic particles are mixed together with a zeolite - a formaldehydic adhesive is added to the mixture of lignocellulosic particles and zeolite and mixed - after the mixing, the lignocellulosic particles, the zeolite and the formaldehydic adhesives are subjected to a shaping process, characterized in that adhesion promoters, which are different from the adhesive used to produce the matrix for the woodbase product, are added to the zeolite and/or the lignocellulosic particles before the mixing of the lignocellulosic particles and the formaldehydic adhesive for improved adhesion of the zeolite to the lignocellulosic particles.
A semiconductor device comprising: a semiconductor element; a support substrate having a surface on which the semiconductor element is mounted; and a covering member disposed to the support substrate via a bonding member, wherein a space is defined in the covering member such that the semiconductor element is located in the space; characterized in that the support substrate has a protruded portion protruding with a thickness of 5 μm to 15μm from said surface of the support substrate, the shape of the protruded portion being a circular ring having a gap, the covering member is disposed on and partially in contact with the protruded portion such that said gap forms to open an air vent leading from the space to outside at an interface between the support substrate and the covering member. a semiconductor element; a support substrate having a surface on which the semiconductor element is mounted; and a covering member disposed to the support substrate via a bonding member, wherein a space is defined in the covering member such that the semiconductor element is located in the space; characterized in that the support substrate has a protruded portion protruding with a thickness of 5 μm to 15μm from said surface of the support substrate, the shape of the protruded portion being a circular ring having a gap, the covering member is disposed on and partially in contact with the protruded portion such that said gap forms to open an air vent leading from the space to outside at an interface between the support substrate and the covering member. the support substrate has a protruded portion protruding with a thickness of 5 μm to 15μm from said surface of the support substrate, the shape of the protruded portion being a circular ring having a gap, the covering member is disposed on and partially in contact with the protruded portion such that said gap forms to open an air vent leading from the space to outside at an interface between the support substrate and the covering member.
A corner element (3,4) for a facade system, which corner element (3,4) is suitable for supporting end portions of a sill, wherein said corner element (3,4) comprises a channel having a bottom, a first and a second parallel sidewalls (7,8) and being open on at least two adjoining sides of said corner element (3, 4), said comer element (3, 4) comprising three plates (9, 10, 11) of which a first plate extends in a plane arranged under an angle in relation to a plane being perpendicular to a longitudinal axis of said channel and at a first end of said channel, which is an open end of said channel, a second plate extends parallel to said first sidewall, and a third plate extends perpendicular to said second sidewall and at the free end of said second sidewall, wherein said first plate is adjoined to said second and third plates (10, 11) characterised in that said second plate extends in extension of said first sidewall.
A metal complex comprising a titanium atom covalently bound to a single polydentate ligand and to no labile monodentate groups, the polydentate ligand having more than one atom capable of coordination directly to the metal atom and is selected from ligands designated L1 through L15 or selected from L18 through L45: wherein each R=H, wherein each R= p -Me, wherein each R= p -Cl, wherein each R= p -O-Me, wherein each R= p -O- t Bu, wherein each R= p -Me, wherein each R= m, p -Me, wherein each R represents a halide atom, substituted para- to the hydroxyl groups or ortho- and para- to the hydroxyl groups, wherein each R=H, wherein each R= p -Me, wherein each R= p -NO 2, wherein each R= p -O-Me, wherein each R= p -O- t Bu, wherein each R= o, p -di-Me, wherein each R= m, p -di-Me, wherein each R represents a halide atom, substituted para- to the hydroxyl groups, wherein each R represents two halide atoms, substituted ortho- and para- to the hydroxyl groups, wherein each R=H, and r being an integer between 0 and 3, wherein each R= p -Me, and r being an integer between 0 and 3, wherein each R= p -NO 2, and r being an integer between 0 and 3, wherein each R= p -O-Me, and r being an integer between 0 and 3, wherein each R= p -O- t Bu, and r being an integer between 0 and 3, wherein each R= o, p -di-Me, and r being an integer between 0 and 3, wherein each R= m, p -di-, and r being an integer between 0 and 3, wherein each R represents a halide atom, substituted para- to the hydroxyl groups, and r being an integer between 0 and 3, wherein each R represents two halide atoms, substituted ortho- and para- to the hydroxyl groups, and r being an integer between 0 and 3, wherein each R=H, wherein each R= p -Me, wherein each R= p -NO 2, wherein each R= p -O-Me, wherein each R= p -O- t Bu, wherein each R= o, p -di-Me, wherein each R= m, p -di-Me, wherein each R represents a halide atom, substituted para- to the hydroxyl groups, wherein each R represents two halide atoms, substituted ortho- and para- to the hydroxyl groups, wherein each R=H.
Fuel injection valve, comprising - a valve body with a central longitudinal axis comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit for actuating the valve needle, - a metal housing being partially arranged around the valve body and the electromagnetic actuator unit, characterised in that the metal housing is at least partially laminated, wherein a laminated part of the housing comprises a plurality of single metal layers which extend perpendicular to the radial direction with respect to the central longitudinal axis L or the housing is at least partially formed by a wrapped metal sheet and wherein the housing comprises - a mantle part extending around the valve body and surrounding the electromagnetic actuator unit, the mantle part being laminated, and - a washer part forming the base of the housing and extending radially from the valve body. - a valve body with a central longitudinal axis comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially moveable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, - an electro-magnetic actuator unit for actuating the valve needle, - a metal housing being partially arranged around the valve body and the electromagnetic actuator unit, - a mantle part extending around the valve body and surrounding the electromagnetic actuator unit, the mantle part being laminated, and - a washer part forming the base of the housing and extending radially from the valve body.
A device for active control of a force feedback for a steering member, comprising a calculator, a position sensor configured to provide the calculator with an effective position signal (Pm) of the steering member, and an actuator ensuring displacement of the steering member on command from the calculator, the calculator being configured to use the effective position signal and modulate a setpoint current (Ic) delivered to the actuator to ensure position-controlled displacement of the steering member, characterized in that the calculator is also configured to generate at least one saturation terminal (Bsat, Bsat+, Bsat-, Bsat-cor) according to a predetermined function of the value of the effective position signal of position/force law type (21, 23, 32), and to saturate the setpoint current by means of the at least one saturation terminal.