mhurhangee/ep-ind-claims huggingface dataset:
A facade element for closing an opening in an outer wall of a building with a frame made up of a number of wing frame elements and a filler element held in the frame, wherein the filler element is formed, at least partially, of a transparent material, with a locking device which is at least partially arranged in at least one of the frame elements, and with an actuating mechanism which has an actuating element by which at least one part of the locking device can be adjusted or pivoted relative to the at least one wing frame element, characterised in that, in the filler element area, at least the actuating element is arranged on the surface of the filler element, or so that it at least partially penetrates the surface of the filler element.
Contact strip (10, 10A, 10B) for a rail vehicle pantograph, comprising: - a first and a second carbon strip (11, 12) extending parallel to a longitudinal extension direction and on either side of a longitudinal extension plane (P x) comprising said longitudinal extension direction, - a metal insert extending along the longitudinal extension direction in the longitudinal extension plane (P x) and arranged between the first carbon strip and the second carbon strip, and - an electricity collector support to which are assembled the first and second carbon strips (11, 12) and the metal insert, the contact strip (10, 10A, 10B) being characterised in that the electricity collector support and/or the metal insert comprise elastic interlocking means (18, 15, 39) engaging with the metal insert and/or the electricity collector support, so as to ensure the assembly of the metal insert to the electricity collector support and the passage of the electric current between the metal insert and the electricity collector support. - a first and a second carbon strip (11, 12) extending parallel to a longitudinal extension direction and on either side of a longitudinal extension plane (P x) comprising said longitudinal extension direction, - a metal insert extending along the longitudinal extension direction in the longitudinal extension plane (P x) and arranged between the first carbon strip and the second carbon strip, and - an electricity collector support to which are assembled the first and second carbon strips (11, 12) and the metal insert,
An absorption-type heat pump apparatus comprising: an evaporator that is configured to evaporate a refrigerant; an absorber that is configured to absorb, by an absorption liquid, the refrigerant evaporated by the evaporator; a regenerator that is configured to concentrate the absorption liquid diluted by the refrigerant; and a pipe interconnecting the evaporator and the regenerator, the pipe being provided with a valve, the absorption-type heat pump apparatus being characterized in that the regenerator includes a storage section that is configured to store the absorption liquid therein, a heat exchanger, an application unit that is configured to apply, to a surface of the heat exchanger, the absorption liquid stored in the storage section, and a peeling unit that is configured to peel off, from the surface of the heat exchanger, the absorption liquid applied to and solidified on the surface of the heat exchanger. an evaporator that is configured to evaporate a refrigerant; an absorber that is configured to absorb, by an absorption liquid, the refrigerant evaporated by the evaporator; a regenerator that is configured to concentrate the absorption liquid diluted by the refrigerant; and a pipe interconnecting the evaporator and the regenerator, the pipe being provided with a valve, the absorption-type heat pump apparatus being characterized in that the regenerator includes a storage section that is configured to store the absorption liquid therein, a heat exchanger, an application unit that is configured to apply, to a surface of the heat exchanger, the absorption liquid stored in the storage section, and a peeling unit that is configured to peel off, from the surface of the heat exchanger, the absorption liquid applied to and solidified on the surface of the heat exchanger.
Method for operating a communication device for a motor vehicle, in which operating data of at least one operating component of the motor vehicle is provided by means of an interface device of the motor vehicle and transmitted to a mobile apparatus disposed in an interior of the motor vehicle, and the operating data is displayed on a display device of the mobile apparatus, and by means of the interface device, it is examined if the motor vehicle is operated in an autonomous drive mode, characterized in that if the motor vehicle is operated in the autonomous drive mode, the mobile apparatus is operated in a first operating mode, wherein the operating data is displayed on the display device only in the first operating mode while a first area of the display device is predetermined by means of the mobile apparatus and the operating data is displayed on the first, predetermined area wherein the operating data presented on the display device describes the autonomous drive mode of the motor vehicle and on a second area of the display device different from the first area, data is displayed, which is provided by an operating system of the mobile apparatus.
A method for forward cancelling time-domain aliasing in a coded signal received in a bitstream at a decoder, comprising: receiving in the bitstream at the decoder, from a coder, additional information related to correction of the time-domain aliasing in the coded signal, the additional information being representative of a forward aliasing cancellation, FAC, correction signal; and in the decoder, cancelling the time-domain aliasing in the coded signal in response to the additional information; characterized in that cancelling the time-domain aliasing comprises a FAC correction re-computation including (a) decoding the FAC correction signal received in the bitstream and (b) adding to the decoded FAC correction signal (i) a synthesis signal from an Algebraic Code Excited Linear Prediction, ACELP, frame in a first half of a FAC window applied to the synthesis signal at the end of the ACELP frame and (ii) a zero-input response of a synthesis filter in a second half of the FAC window applied to the zero-input response at the beginning of a Transform Coded eXcitation, TCX, frame following the ACELP frame, when the FAC correction is for a transition from the ACELP frame to the TCX frame. receiving in the bitstream at the decoder, from a coder, additional information related to correction of the time-domain aliasing in the coded signal, the additional information being representative of a forward aliasing cancellation, FAC, correction signal; and in the decoder, cancelling the time-domain aliasing in the coded signal in response to the additional information; characterized in that cancelling the time-domain aliasing comprises a FAC correction re-computation including (a) decoding the FAC correction signal received in the bitstream and (b) adding to the decoded FAC correction signal (i) a synthesis signal from an Algebraic Code Excited Linear Prediction, ACELP, frame in a first half of a FAC window applied to the synthesis signal at the end of the ACELP frame and (ii) a zero-input response of a synthesis filter in a second half of the FAC window applied to the zero-input response at the beginning of a Transform Coded eXcitation, TCX, frame following the ACELP frame, when the FAC correction is for a transition from the ACELP frame to the TCX frame.
Device for treating strand-shaped textile products in the form of a rotating product strand which is set in rotation at least during part of its treatment, with a treatment container, a transport device (5, 9, 22) setting the product strand in rotation, a plaiting device, and a product store for temporary storage of the plaited product strand, which is arranged downstream of the transport device in the product strand transport direction and from which the product strand can be continuously extracted and supplied back to the transport device, wherein the product store has a deposit region for the product strand fed in from the transport device, and at least the deposit region is delimited laterally in annular fashion by store walls (46, 47, 48), of which at least one is configured to be adjustable by changing the cross-section of the product store at least in the deposit region, and the adjustable store wall is adjustable both transversely to the transport direction of the product strand fed into the deposit region of the product store, and also in or against the transport direction in respective predefined orientation relative to the opposite store wall, wherein the adjustable store wall is movable on a predefined movement track about a stationary rotation axis and is coupled to guide means determining its orientation and having graduated guidance.
An apparatus for a User Equipment, UE, the apparatus comprising: an input configured to receive an information element from a Radio Resource Control, RRC, reconfiguration message from an evolved Node B, eNB directed to the UE during a device-to-device, D2D, communication session with another UE, the information element indicating whether or not the UE is to send a measurement report; a processing section configured to determine based on the indication whether or not the UE is to send the measurement report; and an output configured to control transmission by the UE; wherein the processing section is arranged to suppress participation in measurement reporting when it is determined that a measurement report is not to be sent; wherein the input is further configured to receive a mobility management decision of the eNB for the UE via the D2D communication from the another UE when the participation in measurement reporting is suppressed; and wherein the processing section is further configured to implement the mobility management decision. an input configured to receive an information element from a Radio Resource Control, RRC, reconfiguration message from an evolved Node B, eNB directed to the UE during a device-to-device, D2D, communication session with another UE, the information element indicating whether or not the UE is to send a measurement report; a processing section configured to determine based on the indication whether or not the UE is to send the measurement report; and an output configured to control transmission by the UE; wherein the processing section is arranged to suppress participation in measurement reporting when it is determined that a measurement report is not to be sent; wherein the input is further configured to receive a mobility management decision of the eNB for the UE via the D2D communication from the another UE when the participation in measurement reporting is suppressed; and wherein the processing section is further configured to implement the mobility management decision.
A feeder, for conveying an embossed carrier tape, having a component storage section with protruding shape and flange sections extending outwards from both sides of the component storage section, comprising: a feeder main body; a feeding device provided on the feeder main body and configured to feed the embossed carrier tape to a component pick-up position; a tape guide provided on the feeder main body and having a tape separating device configured to separate a cover tape covering the component storage section; a tape conveyance path, being provided between the feeder main body and the tape guide with extending along a tape feeding direction of the embossed carrier tape, and having a recessed groove through which the component storage section of the embossed carrier tape can be inserted and passed, and a pressing device disposed in the recessed groove of the tape conveyance path and configured to press the embossed carrier tape in a direction in which the embossed carrier tape is brought into abutment with the tape guide, wherein the pressing device is positioned on both sides of the component storage section in a width direction in the recessed groove and configured to press the flange sections without pressing the component storage section. a feeder main body; a feeding device provided on the feeder main body and configured to feed the embossed carrier tape to a component pick-up position; a tape guide provided on the feeder main body and having a tape separating device configured to separate a cover tape covering the component storage section; a tape conveyance path, being provided between the feeder main body and the tape guide with extending along a tape feeding direction of the embossed carrier tape, and having a recessed groove through which the component storage section of the embossed carrier tape can be inserted and passed, and a pressing device disposed in the recessed groove of the tape conveyance path and configured to press the embossed carrier tape in a direction in which the embossed carrier tape is brought into abutment with the tape guide, wherein the pressing device is positioned on both sides of the component storage section in a width direction in the recessed groove and configured to press the flange sections without pressing the component storage section.
A molding method, comprising: providing a molding device, wherein the molding device includes a first mold and a second mold corresponding to the first mold; moving the first mold towards the second mold to form a first mold cavity; supplying a gas to the first mold cavity to increase a pressure inside the first mold cavity to a first pressure; injecting a material into the first mold cavity, wherein the pressure inside the first mold cavity further increases from the first pressure to a second pressure after the injection of the polymer material into the first mold cavity; and characterized in that, after the injection of the material into the first mold cavity, moving the first mold away from the second mold to discharge at least a portion of the gas out of the molding device and form a second mold cavity, wherein a first volume of the first mold cavity is substantially less than a second volume of the second mold cavity. providing a molding device, wherein the molding device includes a first mold and a second mold corresponding to the first mold; moving the first mold towards the second mold to form a first mold cavity; supplying a gas to the first mold cavity to increase a pressure inside the first mold cavity to a first pressure; injecting a material into the first mold cavity, wherein the pressure inside the first mold cavity further increases from the first pressure to a second pressure after the injection of the polymer material into the first mold cavity; and characterized in that, after the injection of the material into the first mold cavity, moving the first mold away from the second mold to discharge at least a portion of the gas out of the molding device and form a second mold cavity,
A coated transparent pane for a multiple pane insulating glazing unit, the coated transparent pane having opposed first and second major surfaces, the second major surface being for exposure to a between pane space of the glazing unit, and bearing a low-emissivity coating, wherein, the low-emissivity coating comprises, in sequence from the second major surface, a first transparent dielectric film region, a first infrared-reflection film region, a second transparent dielectric film region, a second infrared-reflection film region, a third transparent dielectric film region, a third infrared-reflection film region, and a fourth transparent dielectric film region, the coating having a first reflection-region ratio that is defined as the thickness of the first infrared-reflection film region divided by the thickness of the second infrared-reflection film region, the coating having a second reflection-region ratio defined as the thickness of the second infrared-reflection film region divided by the thickness of the third infrared-reflection film region, both the first and second reflection-region ratios being less than 0.83, and at least one of the first and second reflection-region ratios being less than 0.80, and wherein a thickness of less than 1.90 x 10 -8 m of the first transparent dielectric film has a refractive index of 1.7 or greater.
A vectoring controller for configuring a vectoring processor that jointly processes Discrete Multi-Tone DMT communication signals (u 1..u N; y 1..y N) to be transmitted over, respectively received from, a plurality of N subscriber lines (L 1..L N) according to a vectoring matrix ( P k; Q k), and adapted, for given ones (k) of a plurality of tones: - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k) out of the plurality of N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of M k supporting lines (B k) out of the plurality of N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines, wherein the plurality of tones includes tones whose NxN channel matrix ( H k) comprising far-end coupling coefficients between the plurality of N subscriber lines has been characterized as being ill-conditioned, and wherein the vectoring controller is further adapted to determine the first and second sets of lines such that a (N-M k)xN reduced channel matrix ( H Ak) comprising far-end coupling coefficients from the plurality of N subscriber lines into the first set of N-M k targeted lines, respectively a Nx(N-M k) reduced channel matrix ( H Ak) comprising far-end coupling coefficients from the first set of N-M k targeted lines into the plurality of N subscriber lines, is well-conditioned. - to enable the given tone for direct data communication over a first set of N-Mk targeted lines (A k) out of the plurality of N subscriber lines, and to disable the given tone for direct data communication over a second disjoint set of M k supporting lines (B k) out of the plurality of N subscriber lines, M k denoting a non-null positive integer, - to configure the vectoring matrix to use an available transmit power, respectively an available receive power, at the given tone over the second set of M k supporting lines for enhancement of data signal gains at the given tone over the first set of N-M k targeted lines,
An apparatus, comprising: a plurality of legs; a chassis mounted on the plurality of legs; and a light assembly, the light assembly comprising a first surface at the first end of the light assembly and a second surface at the second end of the light assembly, the light assembly comprising: a light source disposed at a first end of the light assembly, a first convex lens disposed at a second end of the light assembly, a second convex lens disposed inside the light assembly between the first convex lens and the light source, characterised in that the light assembly comprises: a first seal at the first end of the light assembly, and a second seal at the second end of the light assembly, and a controller, in that the light source comprises a light emitting diode array, wherein the light emitting diode array comprises a plurality of groups (54, 65, 58L, 58R) having a plurality of light emitting diodes, and in that the apparatus comprises one or more sensors operatively coupled to the controller for generating an inoperable light emitting diode signal input into the controller, wherein the controller is operative to determine a control action for operation of the light emitting diodes by generating a light emitting diode output signal, the controller being operable to determine whether the light source is to function following a failure of a light emitting diode of the light emitting diode array based on a location of the failed light emitting diode relative to the light emitting diode array. a plurality of legs; a chassis mounted on the plurality of legs; and a light assembly, the light assembly comprising a first surface at the first end of the light assembly and a second surface at the second end of the light assembly, the light assembly comprising: a light source disposed at a first end of the light assembly, a first convex lens disposed at a second end of the light assembly, a second convex lens disposed inside the light assembly between the first convex lens and the light source, a light source disposed at a first end of the light assembly, a first convex lens disposed at a second end of the light assembly, a second convex lens disposed inside the light assembly between the first convex lens and the light source, characterised in that the light assembly comprises: a first seal at the first end of the light assembly, and a second seal at the second end of the light assembly, and a controller, a first seal at the first end of the light assembly, and a second seal at the second end of the light assembly, and a controller,
A cellulosic pulp structure defined by a matrix of cellulose fibers and having a fluid retention agent distributed through the structure, said cellulosic pulp structure being adapted to acquire and retain fluid; wherein the cellulose fibers are treated with an inorganic peroxide and a destabilizing acid adapted to react with the inorganic peroxide in the presence of an aqueous fluid to produce hydrogen peroxide; wherein the structure has one or more of a peroxide content from 1% to 10% by weight of the cellulose fibers, and an acid content from 0.45% to 3% by weight of the cellulose fibers; wherein the inorganic peroxide is calcium peroxide; wherein the destabilizing acid is citric acid.
Annular combustion chamber for a gas turbine, having an outer shell which has at least one inlet opening for a burner and an outlet that opens into a turbine space, wherein ducts are provided in the outer shell in the region of the outlet, which ducts are closable and are oriented substantially parallel to the axis of symmetry of the annular combustion chamber, and through these compressor outlet air can be guided into the annular combustion chamber, characterized in that an adjustment device, comprising ring segments which form a ring that is oriented coaxially with the annular combustion chamber and may be moved axially with respect to the annular combustion chamber, is provided on the exterior of the outer shell for closing and opening the ducts.
An apparatus for assembling or disassembling a crane, in particular a tower slewing crane, having a coupling unit for coupling the apparatus with a tower part, characterized in that the coupling unit comprises a hook and a counterweight integrated on the hook for setting a gravity center of the crane.
A curable composition comprising (a) a (meth)acrylic acid-based polymer containing at least one alkenyl group in a molecule, which can be hydrosilylated, and having a number average molecular weight of 500 to 1,000,000, (b) an organohydrogenpolysiloxane, and (c) a silicone powder. (a) a (meth)acrylic acid-based polymer containing at least one alkenyl group in a molecule, which can be hydrosilylated, and having a number average molecular weight of 500 to 1,000,000, (b) an organohydrogenpolysiloxane, and (c) a silicone powder.
A curable inkjet ink composition comprising a dye monomer, a carrier monomer and an initiator wherein the dye monomer has a chromophore moiety that is covalently bonded to at least one polymerizable functional group and the dye monomer is present at 1.0 wt % or more based on total weight of the ink composition; and the carrier monomer has at least one polymerizable functional group and is present at 50 wt % or more based on total weight of the ink composition. the dye monomer has a chromophore moiety that is covalently bonded to at least one polymerizable functional group and the dye monomer is present at 1.0 wt % or more based on total weight of the ink composition; and the carrier monomer has at least one polymerizable functional group and is present at 50 wt % or more based on total weight of the ink composition.