mhurhangee/ep-ind-claims huggingface dataset:
A method of decoupling a cylinder from a jaw in a demolition tool, the jaw having spaced apart first and second lugs (12, 14), the first lug having a first bore and the second lug having a second bore, the method comprising the steps of: unlocking a lock mechanism from a first end of a pin from a first lug wherein the pin has a groove adjacent the first end, the groove extending into the pin orthogonal to the longitudinal axis of the pin, wherein the lock mechanism comprises a housing rigidly fastened to the first end, the housing having holes for bolts engaged to bolt holes in the first end and wherein the removal of the bolts permits unlocking of the lock mechanism; rotating the first and second lugs (12, 14) in a first direction from a first lug position to a second lug position wherein the pin slides through the first and second lugs (12, 14) and the first end moves from the first lug to the second lug to uncouple the cylinder from the jaw; engaging a radially biased locking element attached to the second lug into the groove to retain the pin at the second lug, the lock mechanism and the locking element permitting rotation of the pin; and moving the cylinder from between the spaced apart first and second lugs (12, 14). unlocking a lock mechanism from a first end of a pin from a first lug wherein the pin has a groove adjacent the first end, the groove extending into the pin orthogonal to the longitudinal axis of the pin, wherein the lock mechanism comprises a housing rigidly fastened to the first end, the housing having holes for bolts engaged to bolt holes in the first end and wherein the removal of the bolts permits unlocking of the lock mechanism; rotating the first and second lugs (12, 14) in a first direction from a first lug position to a second lug position wherein the pin slides through the first and second lugs (12, 14) and the first end moves from the first lug to the second lug to uncouple the cylinder from the jaw; engaging a radially biased locking element attached to the second lug into the groove to retain the pin at the second lug, the lock mechanism and the locking element permitting rotation of the pin; and moving the cylinder from between the spaced apart first and second lugs (12, 14).
A method for readjusting a two-sided air gap (LSA, LSI) of a disc brake of a vehicle between brake pads (4, 5) and a brake disc, having a brake calliper designed as a sliding calliper, an adjusting device for compensating for a change in the air gap (LSA, LSI) due to wear and at least one reset device for resetting the brake calliper to an initial position, with the following method steps: S1 the identification of a need for readjustment by determining an air gap distribution between an inner air gap and an outer air gap; S2 the determination of a braking force required for resetting; and S3 the readjustment of the two-sided air gap (LSA, LSI) by introducing the braking force thus determined into the disk brake when the vehicle is at a standstill, characterised in that when determining the air gap distribution a wear value in a predetermined time period (t 1 - t 0) on completion of braking below a threshold value (F S) as a total air gap is determined. S1 the identification of a need for readjustment by determining an air gap distribution between an inner air gap and an outer air gap; S2 the determination of a braking force required for resetting; and S3 the readjustment of the two-sided air gap (LSA, LSI) by introducing the braking force thus determined into the disk brake when the vehicle is at a standstill,
Variable valve train for an internal combustion engine, comprising: a camshaft with a cam; a rocker arm for activating at least one gas exchange valve of the internal combustion engine; a swivelling lever element, in particular a swivelling lever gate, which has a support surface and a cam follower, wherein the support surface is operatively connected, in particular in contact, with the rocker arm, and the cam follower follows a cam contour of the cam; and characterized by a first lever arm, which pivotably mounts the swivelling lever element, and which is connected with a drivable swivelling shaft for swivelling around a longitudinal axis of the swivelling shaft. a camshaft with a cam; a rocker arm for activating at least one gas exchange valve of the internal combustion engine; a swivelling lever element, in particular a swivelling lever gate, which has a support surface and a cam follower, wherein the support surface is operatively connected, in particular in contact, with the rocker arm, and the cam follower follows a cam contour of the cam; and characterized by a first lever arm, which pivotably mounts the swivelling lever element, and which is connected with a drivable swivelling shaft for swivelling around a longitudinal axis of the swivelling shaft.
A diverter switch comprising an operating member and an electric circuit with a main branch and a resistance branch, wherein said main branch comprises a main contact having a movable contact part and a main vacuum switch and said resistance branch comprises a resistance contact having a movable contact part, a resistance vacuum switch and a resistance, said operating member being arranged, during operation, first to operate the main contact and then the resistance contact, characterized in that the operating member is arranged, during operation, always to rotate at least the movable contact part of the main contact in one and the same direction of rotation, in that the operating member comprises an operating shaft, first movement transfer means for transmitting rotary motion of the operating shaft to a rotary shaft of the main contact and second movement transfer means for transmitting rotary motion of the operating shaft to a rotary shaft of the resistance contact and in that the operating member comprises a drive member in driving connection with the operating shaft via movement transfer means (40, 50) arranged to transform an alternating rotary motion of the drive member into a unidirectional rotary motion of the operating shaft.
A roof window set comprising: - a roof window with a window frame, and optionally with a casement mounted in said window frame, and - air outlet, wherein said window frame is composed of a frame top member, a frame bottom member and frame side members being elements of the window frame, wherein said window frame is to be mounted in a window opening, characterised in that the air outlet constitutes a separate module to be mounted in the window opening on the exernal surface of one of said elements (11, 12 or 13) of the window frame and in that the length of the air outlet is equal to the length of said one element (11, 12, or 13) of the window frame. - a roof window with a window frame, and optionally with a casement mounted in said window frame, and - air outlet,
A radiator comprising an elongate panel (10; 110; 111) for mounting on a wall, the panel (10; 110; 111) having a longitudinal axis, an elongate upper edge, a substantially parallel elongate lower edge, a first surface for facing away from the wall and an opposed second surface for facing said wall, at least one longitudinally extending conduit connected adjacent to the second surface and for carrying heating fluid, a ported connector (13; 70; 100) connected to said conduit and for connection to a conduit of an adjacent panel so as to provide fluid communication between the two conduits, characterised in that the radiator further comprises a retaining clip interconnecting the connector (13; 70; 100) and one of the panels (10; 110; 111) so as to retain the connector (13; 70; 100) against movement out of the conduit.
A calibration source for a gamma-ray spectrometer, the calibration source comprising: a scintillator body having a cavity in which a radioactive material is received, the radioactive material comprising a radioactive isotope having a decay transition associated with emission of a positron and a gamma-ray having a known energy; a photodetector optically coupled to the scintillator body and arranged to detect scintillation photons associated with positrons emitted from the radioactive material within the cavity of the scintillator body interacting with the scintillator body and to output corresponding detection signals; and a gating circuit arranged to receive the detection signals from the photodetector and to generate a corresponding gating signal and to output the gating signal for receipt by a data acquisition circuit of a gamma-ray spectrometer to indicate that gamma-ray detection in the gamma-ray spectrometer occurring within a time window defined by the gating signal is associated with a decay transition in the radioactive isotope, wherein the cavity extends inwardly from a surface of the scintillator body and the cavity is filled so as to contain the radioactive material. a scintillator body having a cavity in which a radioactive material is received, the radioactive material comprising a radioactive isotope having a decay transition associated with emission of a positron and a gamma-ray having a known energy; a photodetector optically coupled to the scintillator body and arranged to detect scintillation photons associated with positrons emitted from the radioactive material within the cavity of the scintillator body interacting with the scintillator body and to output corresponding detection signals; and a gating circuit arranged to receive the detection signals from the photodetector and to generate a corresponding gating signal and to output the gating signal for receipt by a data acquisition circuit of a gamma-ray spectrometer to indicate that gamma-ray detection in the gamma-ray spectrometer occurring within a time window defined by the gating signal is associated with a decay transition in the radioactive isotope, wherein the cavity extends inwardly from a surface of the scintillator body and the cavity is filled so as to contain the radioactive material.
Hydraulically damping mount (10, 100) for supporting a motor vehicle assembly, in particular for supporting a motor vehicle engine on a motor vehicle body, with a suspension spring which supports a mounting core and encloses a working chamber, and a compensation chamber which is separated from the working chamber by a separation wall and bounded by a balancing diaphragm, wherein the balancing chamber and the working chamber are filled with a fluid and interconnected by a damping channel incorporated in the separation wall, wherein the separation wall has a diaphragm which is accommodated in a vibratory manner, and wherein the diaphragm is associated with a foam element (32, 46), supporting the diaphragm at a deflection, characterised in that the foam element (32, 46) supports the diaphragm such that the foam element (32, 46) gets compressed by an oscillation of the diaphragm.
A method by a wireless device for selecting beam-reference signals for channel-state information reference-signal transmission, the method comprising: receiving, from a network node via a plurality of beams, a plurality of beam-reference signals, BRS, each beam-reference signal being associated with one of a plurality of beam groups, and using a sequence that allows identification of its respective beam, wherein each beam-reference signal uses a different sequence to other beam-reference signals within the same beam group; performing, by the wireless device, measurements on the plurality of beam-reference signals; based on the performed measurements, selecting a preferred beam-reference signal from the plurality of beam-reference signals; identifying a subset of the plurality of beam-reference signals that are in the same beam group as the preferred beam-reference signal; and transmitting, to the network node, information identifying the subset of the plurality of beam-reference signals. receiving, from a network node via a plurality of beams, a plurality of beam-reference signals, BRS, each beam-reference signal being associated with one of a plurality of beam groups, and using a sequence that allows identification of its respective beam, wherein each beam-reference signal uses a different sequence to other beam-reference signals within the same beam group; performing, by the wireless device, measurements on the plurality of beam-reference signals; based on the performed measurements, selecting a preferred beam-reference signal from the plurality of beam-reference signals; identifying a subset of the plurality of beam-reference signals that are in the same beam group as the preferred beam-reference signal; and transmitting, to the network node, information identifying the subset of the plurality of beam-reference signals.
An assembly for a turbomachine comprising a first mobile wheel extending around an axis and an adjacent bladed turbine stator, said bladed turbine stator being coaxial with said axis and axially offset from said first mobile wheel, said assembly comprising a plurality of sealing elements (10, 11), each sealing element (10, 11) being secured to said first mobile wheel and projecting radially from said first mobile wheel, said bladed turbine stator comprising an inner platform intended to delimit a gas flow channel in the turbomachine and a root extending radially below the inner platform, said root bearing at a radially inner end at least one abradable element (36, 37, 48, 49) configured to cooperate with the sealing elements (10, 11), characterised in that the sealing elements (10, 11) are placed in an enclosure formed by said at least one abradable element (36, 37, 48, 49), said enclosure being open inwards and delimited axially by an upstream abradable edge and a downstream abradable edge, said enclosure being radially delimited by an outer abradable edge, and in that at least one of the sealing elements (10, 11) comprises a first lip (27, 28) configured to cooperate with the upstream abradable edge or the downstream abradable edge, and a second lip separate from the first lip (27, 28) and configured to cooperate with the outer abradable edge.
A thermoplastic composition comprising: from 5 wt% to 70 wt% poly(methyl methacrylate) (PMMA); from 15 wt% to 50 wt% of a first poly(carbonate-siloxane) copolymer having a siloxane content of from 35 wt% to 45 wt%; and from 10 wt% to 45 wt% of a second poly(carbonate-siloxane) copolymer, wherein the second poly(carbonate-siloxane) copolymer has a siloxane content of from 15 wt% to 25 wt% or from 4 wt% to 8 wt%. from 5 wt% to 70 wt% poly(methyl methacrylate) (PMMA); from 15 wt% to 50 wt% of a first poly(carbonate-siloxane) copolymer having a siloxane content of from 35 wt% to 45 wt%; and from 10 wt% to 45 wt% of a second poly(carbonate-siloxane) copolymer, wherein the second poly(carbonate-siloxane) copolymer has a siloxane content of from 15 wt% to 25 wt% or from 4 wt% to 8 wt%.
Chamfering cutter for trimming the rough edges of a workpiece by chamfering, wherein the cutter comprises a disposable chamfering blade, comprising: a mounting hole through which the disposable chamfering blade can be locked to a cutter body; and a conical cutter head provided at an end of the disposable chamfering blade, wherein the conical cutter head has a conical periphery circumferentially provided with a plurality of chip removing grooves, and each of the chip removing grooves has a side face formed as a cutting edge such that the disposable chamfering blade is formed with a plurality of said cutting edges, characterised in that in a front view, the disposable chamfering blade is substantially parallelogram-shaped, in that in a side view, the conical cutter head extends beyond an upper surface of the disposable chamfering blade, and in that in said side view, the conical cutter head does not extend beyond a lower surface of the disposable chamfering blade.
A resin-coated metal pigment comprising a metal pigment, a phosphate ester layer, and a resin coating layer that coats said metal pigment with said phosphate ester layer interposed therebetween, wherein said phosphate ester layer is made of a phosphate ester containing phosphate mono- and/or di-esters having a radical polymerizable double bond, or a homopolymer or a copolymer of phosphate mono- and/or di-esters, said resin coating layer is made of a homopolymer or a copolymer obtained by polymerizing a monomer and/or an oligomer having at least one polymerizable double bond, and a phosphorus content per unit surface area of said resin-coated metal pigment is within a range from 0.05 to 1.3 mg/m 2.
A polynucleotide, comprising, from 5' to 3', a human ornithine transcarbamylase (hOTC) enhancer, a liver-specific promoter and a transgene, wherein the hOTC enhancer is operably linked to the liver-specific promoter and the liver-specific promoter is operably linked to the transgene, and wherein the liver-specific promoter is a human alpha 1-antitrypsin (hAAT) promoter.
A decoding apparatus for performing iterative decoding on a codeword, the decoding apparatus comprising: processing circuitry comprising a plurality of processing units, with each processing unit being configured to process one column of a parity-check matrix at a time; and control circuitry configured to control the iterative decoding of the codeword, the iterative decoding being based on the parity-check matrix, the matrix being sub-divided into two or more partitions, wherein the control circuitry is configured to operate in a first mode of operation to process a codeword having a first length, and to operate in a second mode of operation to process a codeword having a second length, with the first length being shorter than the second length, wherein the control circuitry is configured to multiplex the utilization of the plurality of processing units across the two or more partitions of the matrix at least in the second mode of operation, such that, at least in the second mode of operation, in each time slot of a plurality of time slots required for completing an iteration of the iterative decoding, a given processing unit is applied on a different partition of the two or more partitions, wherein the control circuitry is configured to utilize at least a portion of the plurality of processing units both in the first mode of operation and in the second mode of operation to perform the iterative decoding. processing circuitry comprising a plurality of processing units, with each processing unit being configured to process one column of a parity-check matrix at a time; and control circuitry configured to control the iterative decoding of the codeword, the iterative decoding being based on the parity-check matrix, the matrix being sub-divided into two or more partitions, wherein the control circuitry is configured to operate in a first mode of operation to process a codeword having a first length, and to operate in a second mode of operation to process a codeword having a second length, with the first length being shorter than the second length, wherein the control circuitry is configured to multiplex the utilization of the plurality of processing units across the two or more partitions of the matrix at least in the second mode of operation, such that, at least in the second mode of operation, in each time slot of a plurality of time slots required for completing an iteration of the iterative decoding, a given processing unit is applied on a different partition of the two or more partitions, wherein the control circuitry is configured to utilize at least a portion of the plurality of processing units both in the first mode of operation and in the second mode of operation to perform the iterative decoding.
A waveguide heterostructure (0, 0', 0") for a semiconductor laser, comprising: an active part, comprising an active region layer (3, 3') depending on the type of semiconductor used, which is sandwiched between an electrode layer and a substrate, and a passive part, comprising at least an intercladding layer and a passive part top cladding surrounding a passive core layer, the passive part being inserted into the sandwich between the substrate and the electrode layer in the direction of the growth axis on top of or below the active part, wherein the intercladding layer, the passive part top cladding and the passive core layer are semiconductors and the refractive indices (n, n) of the active region layer and of the passive core layer are greater than the refractive indices (n, n) of the intercladding layer and of the passive part top cladding, characterized by the active part and the passive part together forming a coupled waveguide by coupling between a primary waveguide, whose core is the active region layer (3, 3'), and a secondary waveguide, whose core is the passive core layer, said coupling changing what would otherwise be respective uncoupled fundamental modes of the primary and secondary waveguides into an antisymmetric mode (-) and a symmetric mode (+), the antisymmetric mode (-) having a lower group velocity dispersion than that of the fundamental mode of the primary waveguide as well as having a larger overlap (Γ AR) with the active region layer (3, 3') than that of the symmetric mode (+), so that the antisymmetric mode (-) is selected for lasing. an active part, comprising an active region layer (3, 3') depending on the type of semiconductor used, which is sandwiched between an electrode layer and a substrate, and a passive part, comprising at least an intercladding layer and a passive part top cladding surrounding a passive core layer, the passive part being inserted into the sandwich between the substrate and the electrode layer in the direction of the growth axis on top of or below the active part, wherein the intercladding layer, the passive part top cladding and the passive core layer are semiconductors and the refractive indices (n, n) of the active region layer and of the passive core layer are greater than the refractive indices (n, n) of the intercladding layer and of the passive part top cladding, characterized by the active part and the passive part together forming a coupled waveguide by coupling between a primary waveguide, whose core is the active region layer (3, 3'), and a secondary waveguide, whose core is the passive core layer, said coupling changing what would otherwise be respective uncoupled fundamental modes of the primary and secondary waveguides into an antisymmetric mode (-) and a symmetric mode (+), the antisymmetric mode (-) having a lower group velocity dispersion than that of the fundamental mode of the primary waveguide as well as having a larger overlap (Γ AR) with the active region layer (3, 3') than that of the symmetric mode (+), so that the antisymmetric mode (-) is selected for lasing.