mhurhangee/patent-ind-claim-en huggingface dataset:
A method for encapsulating a bonded wire with low profile encapsulation , comprising: applying encapsulation material over the bonded wire that is connected to a die on a first end and to a circuit component on a second end ; and truncating a shape of said encapsulation to form a truncated shape; characterized in that truncating said shape includes allowing said encapsulation material to wick under a guide while simultaneously depositing said encapsulation material and moving said guide along a length of said wire , wherein the guide is to draw said encapsulation material under an underside of the guide by wicking said encapsulation material along the underside of the guide . applying encapsulation material over the bonded wire that is connected to a die on a first end and to a circuit component on a second end ; and truncating a shape of said encapsulation to form a truncated shape; characterized in that truncating said shape includes allowing said encapsulation material to wick under a guide while simultaneously depositing said encapsulation material and moving said guide along a length of said wire , wherein the guide is to draw said encapsulation material under an underside of the guide by wicking said encapsulation material along the underside of the guide .
A radio transmitting apparatus comprising: a determination section configured to determine a pattern of a constant amplitude and zero auto-correlation code sequence based on a predetermined relationship, and a position of a transmission band and a transmission bandwidth of a reference signal to be transmitted from the radio transmitting apparatus; and a transmission section configured to transmit the determined pattern of the constant amplitude and zero auto-correlation code sequence as the reference signal, wherein the predetermined relationship associates the position of the transmission band and a spectrum of the constant amplitude and zero auto-correlation code sequence, further comprising: a cyclic shift section configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, and wherein the cyclic shift section is further configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, using an amount of shift in accordance with the position of the transmission band of the reference signal, in addition to the amount of shift set in a time domain. a determination section configured to determine a pattern of a constant amplitude and zero auto-correlation code sequence based on a predetermined relationship, and a position of a transmission band and a transmission bandwidth of a reference signal to be transmitted from the radio transmitting apparatus; and a transmission section configured to transmit the determined pattern of the constant amplitude and zero auto-correlation code sequence as the reference signal, wherein the predetermined relationship associates the position of the transmission band and a spectrum of the constant amplitude and zero auto-correlation code sequence, further comprising: a cyclic shift section configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, and wherein the cyclic shift section is further configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, using an amount of shift in accordance with the position of the transmission band of the reference signal, in addition to the amount of shift set in a time domain. a cyclic shift section configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, and wherein the cyclic shift section is further configured to cyclically shift the determined pattern of the constant amplitude and zero auto-correlation code sequence, using an amount of shift in accordance with the position of the transmission band of the reference signal, in addition to the amount of shift set in a time domain.
Isochronous oscillator mechanism for horology developing substantially planarly, comprising a fixed support which bears a crosspiece carrying a plurality of N primary resonators each comprising at least one weight carried by a rotating flexible bearing fixed to said crosspiece , each said primary resonator having a centre of mass (CM) which is located, at rest, on the virtual pivot axis (APV) of the respective rotating flexible bearing thereof, and each said primary resonator being arranged to oscillate in a rotational motion about said virtual pivot axis (APV), where said N primary resonators are arranged in a rotational symmetry of order N about a main axis (AP) which is parallel to all said virtual pivot axes (APV) which are parallel to each other, and where the oscillating motions of any two of said primary resonators of said oscillator mechanism are phase shifted by the value of the central angle formed by the respective virtual pivot axes (APV) thereof with respect to said main axis (AP), and said flexible bearing comprising at least crossed strips, which are either crossed in the same plane, or whose projections onto a plane perpendicular to said main axis (AP) are crossed, and whose actual crossing or crossing in projection onto said plane perpendicular to said main axis (AP) defines said virtual pivot axis (APV) of said flexible bearing , characterized in that at least two said primary resonators are coupled to each other, at least intermittently, by an escape wheel.
An apparatus comprising: configuring means for configuring a user equipment with a flexible uplink-to-downlink, UL-to-DL, cross-link specific resource configuration suitable for determining one or more antenna panel wise cross-link interference measurements from a network entity, wherein the cross-link specific resource configuration comprises one or more channel state information interference measurement, CSI-IM, resources configured according to characteristics of two or more interfering UL signal types, wherein the two or more interfering UL signal types comprises two or more of: a phase tracking reference signal, PTRS, a demodulation reference signal, DMRS, and/or sounding reference signal, SRS; and receiving means for receiving , from the user equipment, reference signal received power, RSRP, and/or received signal strength indicator, RSSI, for the two or more interfering uplink signal types. configuring means for configuring a user equipment with a flexible uplink-to-downlink, UL-to-DL, cross-link specific resource configuration suitable for determining one or more antenna panel wise cross-link interference measurements from a network entity, wherein the cross-link specific resource configuration comprises one or more channel state information interference measurement, CSI-IM, resources configured according to characteristics of two or more interfering UL signal types, wherein the two or more interfering UL signal types comprises two or more of: a phase tracking reference signal, PTRS, a demodulation reference signal, DMRS, and/or sounding reference signal, SRS; and receiving means for receiving , from the user equipment, reference signal received power, RSRP, and/or received signal strength indicator, RSSI, for the two or more interfering uplink signal types.
A cytometer cartridge insert comprising: a micro-molded component ; and a plastic laminate component ; wherein the micro-molded component is embedded in the plastic laminate component; wherein the micro-molded component comprises: a sample via comprising a diameter ranging from approximately 20 microns to approximately 100 microns; a measurement channel with an integrated optical lens , the measurement channel coupled to the sample via by way of a lysing and sphering channel , the measurement channel comprising a diameter ranging from approximately 20 microns to approximately 200 microns, the integrated optical lens allowing detection of scatter angles of as large as 90 degrees; a cuvette coupled to the sample via by way of a sample channel , the cuvette comprising an optical mask; and the alignment device comprising a registration surface configured to couple with a registration surface of a manifold of a cytometer; the alignment device being configured to align the integrated optical lens with a light source and a light detector and configured to align the integrated optical lens with the measurement channel such that an illumination beam on the measurement channel walls generate light scatter having a same group of angles as the illumination beam such that the walls of the measurement channel do not produce random scatter noise. a micro-molded component ; and a plastic laminate component ; a sample via comprising a diameter ranging from approximately 20 microns to approximately 100 microns; a measurement channel with an integrated optical lens , the measurement channel coupled to the sample via by way of a lysing and sphering channel , the measurement channel comprising a diameter ranging from approximately 20 microns to approximately 200 microns, the integrated optical lens allowing detection of scatter angles of as large as 90 degrees; a cuvette coupled to the sample via by way of a sample channel , the cuvette comprising an optical mask;
A system for updating one or more states relating to a message in a vehicle, the system comprising: a first execution unit an atom unit ; a buffer; a state keeping unit ; and a peripheral unit , wherein the atom unit is configured to carry out the steps: a) receiving a first signal from the first execution unit , indicating the message and the states; b) saving the message and the states in the buffer; c) in response to correctly storing the message and the states, receiving a second signal from the first execution unit , requesting the initiation of sending the message; d) sending the message to the peripheral unit ; and e) sending a third signal to the state keeping unit to update the states in a state repository. a first execution unit an atom unit ; a buffer; a state keeping unit ; and a peripheral unit , a) receiving a first signal from the first execution unit , indicating the message and the states; b) saving the message and the states in the buffer; c) in response to correctly storing the message and the states, receiving a second signal from the first execution unit , requesting the initiation of sending the message; d) sending the message to the peripheral unit ; and e) sending a third signal to the state keeping unit to update the states in a state repository.
Method for controlling the torque of an electrical synchronous machine in which stator current setpoints capable of setting a torque desired value are generated, characterised in that the stator current setpoints are generated from a selectively determined estimation of a rotor magnetic flux, depending on the operating conditions of the machine, either as a function of the operating temperature of the rotor of the machine, or as a function of the measured values of stator current (I d , I q ), of the quadrature stator voltage (V q ) in a rotating reference frame linked to the rotor and of the rotation velocity of the rotating magnetic field (ω r ) of the machine, the stator current setpoints being generated from the estimated magnetic flux.
A plurality of element encoded particles, wherein said particles: (a) are polymer particles containing metal ions or atoms in the interior; and (b) have functional groups at the particle surface to which specific antibodies are attached, wherein (i) each particle contains a different plurality of elements or isotopes; (ii) a distinct MS signal is obtained from said plurality of elements or isotopes; (iii) the intensities of said signals are proportional to the amounts of said elements or isotopes; and (iv) the plurality of elements or isotopes comprises a first lanthanide chelate and a second lanthanide chelate different than the first lanthanide chelate. (a) are polymer particles containing metal ions or atoms in the interior; and (b) have functional groups at the particle surface to which specific antibodies are attached, wherein (i) each particle contains a different plurality of elements or isotopes; (ii) a distinct MS signal is obtained from said plurality of elements or isotopes; (iii) the intensities of said signals are proportional to the amounts of said elements or isotopes; and (iv) the plurality of elements or isotopes comprises a first lanthanide chelate and a second lanthanide chelate different than the first lanthanide chelate. (i) each particle contains a different plurality of elements or isotopes; (ii) a distinct MS signal is obtained from said plurality of elements or isotopes; (iii) the intensities of said signals are proportional to the amounts of said elements or isotopes; and (iv) the plurality of elements or isotopes comprises a first lanthanide chelate and a second lanthanide chelate different than the first lanthanide chelate.
The rear of a motorcycle with a cardan-shaft transmission comprising a rear frame , a fork , hinged to the frame around a hinge axis (X-X), the fork rotatably supporting the rotation pin of a rear wheel of the motorcycle around a rotation axis (Y-Y), the fork supporting a cardan-shaft transmission comprising at least a first transmission shaft , suitable to be connected to the power take-off (PTO) of an associable engine, at least one final shaft fitted with a pinion rotatably connected to said rear wheel , wherein between the first transmission shaft and the final shaft a first cardan joint is interposed, a floating arm which supports said pinion of the final shaft , the arm being floating around said rotation axis (Y-Y) of the rear wheel , wherein the floating arm comprises a cup portion placed coaxially to the rotation pin and having at least one inner end housing and supporting said pinion , and an outer appendix positioned cantilevered with respect to said cup portion , wherein the cup portion is rotatably released from the rotation pin of the rear wheel , wherein the outer appendix is mechanically connected to the rear frame by means of the interposition of a reaction rod hinged, at opposite axial ends , to the rear frame and to the outer appendix respectively, wherein the fork comprises a front cover panel , placed at least partially coaxially to the rotation pin on the opposite side to a centreline plane (M-M) of the associable rear wheel , characterised in that the outer appendix comprises a first section which projects in relation to the cup portion in an axial direction, parallel to said rotation axis (Y-Y) in order to come out axially from said cover panel , and a second section which comprises a portion axially recessed towards said centreline plane (M-M) of the associable rear wheel .
A system comprising: a memory including one or more write out buffers bound to one or more application interfaces; and a graphics pipeline apparatus comprising a write out fixed-function stage , implemented at least partly in electronic circuitry, to receive geometry data for one or more vertex-based objects, and generate , based on the geometry data, one or more bounding volumes as inputs to one or more graphics processing stages, determine whether a bounding volume state is changed from an enabled state to a disabled state or whether one of the one or more write out buffers are unbound from the one or more application interfaces, and in response to determining that the bounding volume state is changed from an enabled state to a disabled state or that one of the one or more write out buffers are unbound from the one or more application interfaces, write processed vertex data, including the bounding volumes, from the one or more graphics processing stages to the one or more write out buffers . a memory including one or more write out buffers bound to one or more application interfaces; and a graphics pipeline apparatus comprising a write out fixed-function stage , implemented at least partly in electronic circuitry, to receive geometry data for one or more vertex-based objects, and generate , based on the geometry data, one or more bounding volumes as inputs to one or more graphics processing stages, determine whether a bounding volume state is changed from an enabled state to a disabled state or whether one of the one or more write out buffers are unbound from the one or more application interfaces, and receive geometry data for one or more vertex-based objects, and generate , based on the geometry data, one or more bounding volumes as inputs to one or more graphics processing stages, determine whether a bounding volume state is changed from an enabled state to a disabled state or whether one of the one or more write out buffers are unbound from the one or more application interfaces, and in response to determining that the bounding volume state is changed from an enabled state to a disabled state or that one of the one or more write out buffers are unbound from the one or more application interfaces, write processed vertex data, including the bounding volumes, from the one or more graphics processing stages to the one or more write out buffers .
Method for selectively separating out free-flowing products that are conveyed in a conveying direction along a conveying path in a conveying track , wherein the conveyed products are checked in a monitoring portion of the conveying path by means of a monitoring device, and wherein in a separating-out portion arranged downstream along the conveying path , the product that does not meet a presettable monitoring criterion is separated out and carried away from the conveying track using a suction device in that the suction device is arranged on the conveying path and a suction flow flowing away from the conveying track is generated for a preset suction period in order to suction the product out of the conveying track , characterized in that a suction tube of the suction device is arranged with a suction opening at a face-side end of the conveying track , in order to suction off the product falling at the face-side end of the conveying track from the conveying track along a fall trajectory through the suction opening .
A switch comprising: a switch body , having a first switch body section and a second switch body section , a switch contact configured to be arranged in a slot in said first switch body section , a switch contact cover configured to cover said slot , and a sealing means configured to cover a circumference of said second switch body section , characterised in that said first switch body section has a larger cross-section than said second switch body section . a switch body , having a first switch body section and a second switch body section , a switch contact configured to be arranged in a slot in said first switch body section , a switch contact cover configured to cover said slot , and a sealing means configured to cover a circumference of said second switch body section , characterised in that said first switch body section has a larger cross-section than said second switch body section .
A peptide comprising a sequence according to SEQ ID No. 9, wherein said peptide has an overall length of between 10 and 16 amino acids.
A method for preparing raw material for casting iron or steel, wherein a charge containing raw materials for a casting is melted and cast into an object of desired shape, wherein the charge is assembled of plate-like charge elements (1a, 1b, 1c...) with known compositions and dimensions by placing them on top of each other, and of an alloying component entity with a known composition by means of which the composition of the charge is balanced to the desired precise composition, wherein the plate-like charge elements (1a, 1b, 1c...) are disc-like elements provided with a central hole, characterized in that the disc-like elements are stacked on top of each other around a vertical guiding element so that the vertical guiding element extends through the holes.
An aluminum alloy clad material comprising: a core material comprising an aluminum alloy; and a sacrificial anode material layer clad on one surface or both surfaces of the core material, wherein the core material comprises an aluminum alloy comprising more than 0 mass% and less than 0.2 mass% Si, 0.05 to 0.30 mass% Fe, 1.0 to 2.5 mass% Cu, 1.0 to 1.6 mass% Mn, 0.1 to 1.0 mass% Mg, and optionally one or more selected from a group consisting of 0.05 to 0.20 mass% Ti, 0.05 to 0.20 mass% Zr, 0.05 to 0.20 mass% Cr, 0.05 to 0.20 mass% V, and less than or equal to 0.05 mass% B, with a balance of Al and inevitable impurities; the sacrificial anode material layer comprises an aluminum alloy comprising 0.1 to 1.5 mass% Si, 0.1 to 2.0 mass% Mg, and optionally one or more selected from a group consisting of 0.05 to 1.00 mass% Fe, 0.05 to 1.00 mass% Ni, 0.05 to 1.00 mass% Cu, 0.05 to 1.50 mass% Mn, 0.05 to 1.00 mass% Zn, 0.05 to 0.20 mass% Ti, 0.05 to 0.30 mass% Zr, 0.05 to 0.30 mass% Cr, and 0.05 to 0.30 mass% V, with a balance of Al and inevitable impurities; in the core material, a number density of an Al-Mn-based intermetallic compound having an equivalent circle diameter of 0.1 μm or more is 1.0 × 10 5 particles /mm 2 or more, and a number density of Al 2 Cu having an equivalent circle diameter of 0.1 μm or more is 1.0 × 10 5 particles /mm 2 or less; and in the sacrificial anode material layer, a number density of a Mg-Si-based crystallized product having an equivalent circle diameter of 0.1 to 5.0 μm is 100 to 150,000 particles /mm 2 , and a number density of a Mg-Si-based crystallized product having an equivalent circle diameter of more than 5.0 μm and 10.0 μm or less is 5 particles /mm 2 or less.
A multifunctional end effector , comprising: a support structure configured to be carried by a robotic system; and at least two of a fluid stream cutting system , a milling spindle system and/or a scanning system , each mounted to the support structure, wherein said at least two of a fluid stream cutting system, a milling spindle system and/or scanning system are selectively orientable to a portion of a workpiece to perform work thereon; wherein the multifunctional end effector is moveable as a unit to a position adjacent another portion of the workpiece to orient a different one of said at least two of a fluid stream cutting system , a milling spindle system and/or scanning system to perform work on said other portion of the workpiece, characterized in that said at least two of a fluid stream cutting system , a milling spindle system and/or a scanning system are mounted to the support so a nozzle of the fluid stream cutting system, a spindle of the milling spindle system and/or a scanning device of the scanning system face in different directions. a support structure configured to be carried by a robotic system; and at least two of a fluid stream cutting system , a milling spindle system and/or a scanning system , each mounted to the support structure, wherein said at least two of a fluid stream cutting system, a milling spindle system and/or scanning system are selectively orientable to a portion of a workpiece to perform work thereon; wherein the multifunctional end effector is moveable as a unit to a position adjacent another portion of the workpiece to orient a different one of said at least two of a fluid stream cutting system , a milling spindle system and/or scanning system to perform work on said other portion of the workpiece, characterized in that said at least two of a fluid stream cutting system , a milling spindle system and/or a scanning system are mounted to the support so a nozzle of the fluid stream cutting system, a spindle of the milling spindle system and/or a scanning device of the scanning system face in different directions.