mhurhangee/ep-ind-claims huggingface dataset:
Light curtain for detection of objects in a monitoring region, comprising a transmitter/receiver arrangement of receivers, which emit transmitted light beams and receive received light beams, at a first edge of the monitoring region and a reflector arranged at the opposite, second edge of the monitoring region, characterised in that the transmitter/receiver arrangement is so constructed that the transmitters (2, 2', 2", 2a, 2a', 2b, 2b') and receivers (5, 5', 5", 5a, 5a', 5b, 5b') arranged in a housing are arranged in alternation in two rows offset relative to one another, and that at least two adjacent receivers (5, 5', 5", 5a, 5a', 5b, 5b') are present for each transmitter (2, 2', 2", 2a, 2a', 2b, 2b') so that when the monitoring region is free the transmitted light beams (3, 3', 3") of the respective transmitter (2, 2', 2", 2a, 2a', 2b, 2b') are guided by way of the reflector as received light beams to the adjacent receiver (5, 5', 5", 5a, 5a', 5b, 5b'), that the transmitters (2, 2', 2", 2a, 2a', 2b, 2b') are individually activated in succession and that for each activated transmitter (2, 2', 2", 2a, 2a', 2b, 2b') the difference of the received signals of the adjacent receivers (5, 5', 5", 5a, 5a', 5b, 5b') is evaluated, wherein an object counts as recognised in the monitoring region when the difference of the received signals departs from a target value.
A hinge arrangement (11, 11') adapted to be located at a front, a rear or a side end portion of a cover of a vehicle, said hinge arrangement (11, 11') being transitable between a normal state and a deployed state, said hinge arrangement (11, 11') comprising - a hinge portion adapted to be attached, directly or indirectly, to a body of said vehicle, - a hinge arm pivotally connected to said hinge portion, thereby providing a hinged connection for normal opening of said cover, - a bracket portion adapted to be attached, directly or indirectly, to said cover, and - a first deployment arm and a second deployment arm pivotally connecting said bracket portion with said hinge arm, a first part of said first deployment arm being pivotally connected to said bracket portion at a first pivotal connection, a second part of said first deployment arm being pivotally connected to said hinge arm at a second pivotal connection, a first part of said second deployment arm being pivotally connected to said bracket portion at a third pivotal connection, a second part of said second deployment arm being pivotally connected to said hinge arm at a fourth pivotal connection, at least one sliding element, e.g. a slot (31, 55, 57), adapted for sliding of one of said pivotal connections (P1, P2, P3, P4), being located in one of said first deployment arm, said second deployment arm, said bracket portion and said hinge arm at one of said first, second, third and fourth pivotal connections (P1, P2, P3, P4). - a hinge portion adapted to be attached, directly or indirectly, to a body of said vehicle, - a hinge arm pivotally connected to said hinge portion, thereby providing a hinged connection for normal opening of said cover, - a bracket portion adapted to be attached, directly or indirectly, to said cover, and - a first deployment arm and a second deployment arm pivotally connecting said bracket portion with said hinge arm,
A copolymer, wherein the copolymer comprises at least a first monomer unit represented by formula, a second monomer unit represented by formula, and a third monomer unit represented by formula: in which R 1, R 2, R 3, R 5, R 6, R 7, R 9, R 10, and R 11 are each independently selected from hydrogen or C1-C8 alkyl groups; R 4 is selected from hydrogen, substituted or unsubstituted C1-C8 alkyl groups; R 8 is selected from -COOM and sodium sulfonate phenyl, in which M is selected from H, and positive monovalent (+1) alkali metal ion; R 12 is selected from unsubstituted or substituted C1-C8 alkyl groups, and n is 0 or 1; wherein the first monomer unit comprises monomer units derived from A1 monomer: wherein the second monomer unit comprises monomer units derived from B1 monomer: wherein the third monomer unit comprises monomer units derived from C2 monomer: wherein based on the total moles of the first monomer unit, the second monomer unit, and the third monomer unit, the first monomer unit is present in an amount of from 60mol% to 80mol%; wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the second monomer unit is present in an amount of from 8mol% to 18mol%. wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the third monomer unit is present in an amount of from 12mol% to 24mol%. in which R 1, R 2, R 3, R 5, R 6, R 7, R 9, R 10, and R 11 are each independently selected from hydrogen or C1-C8 alkyl groups; R 4 is selected from hydrogen, substituted or unsubstituted C1-C8 alkyl groups; R 8 is selected from -COOM and sodium sulfonate phenyl, in which M is selected from H, and positive monovalent (+1) alkali metal ion; R 12 is selected from unsubstituted or substituted C1-C8 alkyl groups, and n is 0 or 1; wherein the first monomer unit comprises monomer units derived from A1 monomer: wherein the second monomer unit comprises monomer units derived from B1 monomer: wherein the third monomer unit comprises monomer units derived from C2 monomer: wherein based on the total moles of the first monomer unit, the second monomer unit, and the third monomer unit, the first monomer unit is present in an amount of from 60mol% to 80mol%; wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the second monomer unit is present in an amount of from 8mol% to 18mol%. wherein based on the total moles of the first monomer unit, the second monomer unit and the third monomer unit, the third monomer unit is present in an amount of from 12mol% to 24mol%.
A method, comprising: determining a quality metric for each of a plurality of data streams (461...464); determining a condensed quality metric based on the quality metric for each of the plurality of data streams (461...464), wherein the condensed quality metric comprises a reference quality metric and at least one differential quality metric, wherein the reference quality metric corresponds to a quality metric for one of the plurality of data streams, and wherein each of the at least one differential quality metric is indicative of a difference between quality metrics for two of the plurality of data streams; transmitting the condensed quality metric to a receiver; receiving a plurality of permuted data streams (451...454) over a plurality of channels; and inversely permuting the plurality of permuted data streams to obtain the plurality of data streams (461...464). determining a quality metric for each of a plurality of data streams (461...464); determining a condensed quality metric based on the quality metric for each of the plurality of data streams (461...464), wherein the condensed quality metric comprises a reference quality metric and at least one differential quality metric, wherein the reference quality metric corresponds to a quality metric for one of the plurality of data streams, and wherein each of the at least one differential quality metric is indicative of a difference between quality metrics for two of the plurality of data streams; transmitting the condensed quality metric to a receiver; receiving a plurality of permuted data streams (451...454) over a plurality of channels; and inversely permuting the plurality of permuted data streams to obtain the plurality of data streams (461...464).
A rotary engine comprising: a housing having a working cavity; a shaft having an eccentric portion; a rotor having a first axial face, and a second axial face opposite the first axial face, the rotor disposed on the eccentric portion and within the working cavity, and a cover integral with, or fixedly attached to, the housing, the engine characterized by: a first cam rigidly attached to the rotor; a plurality of cam followers rigidly attached to the cover, each cam follower engaged with the cam, wherein the cam guides the rotation of the rotor as the rotor rotates within the working cavity and orbits around the shaft. a housing having a working cavity; a shaft having an eccentric portion; a rotor having a first axial face, and a second axial face opposite the first axial face, the rotor disposed on the eccentric portion and within the working cavity, and a cover integral with, or fixedly attached to, the housing, the engine characterized by: a first cam rigidly attached to the rotor; a plurality of cam followers rigidly attached to the cover, each cam follower engaged with the cam, wherein the cam guides the rotation of the rotor as the rotor rotates within the working cavity and orbits around the shaft. a first cam rigidly attached to the rotor; a plurality of cam followers rigidly attached to the cover, each cam follower engaged with the cam, wherein the cam guides the rotation of the rotor as the rotor rotates within the working cavity and orbits around the shaft.
A method for forming a monocrystalline GeN layer on a substrate, the substrate comprising at least a Ge surface, wherein the method comprises: - while heating the substrate at a temperature between 650°C and 940°C, exposing the substrate to a nitrogen gas flow, thereby forming a monocrystalline GeN layer; - cooling down of the substrate to a temperature below 650°C after formation of said monocrystalline GeN layer; and - maintaining the nitrogen gas flow during cooling down of the substrate, to maintain said monocrystalline GeN layer; wherein said Ge surface has a orientation or has an off-cut between 0° and 15° and wherein the method comprises applying a plasma while exposing the substrate to the nitrogen gas flow. - while heating the substrate at a temperature between 650°C and 940°C, exposing the substrate to a nitrogen gas flow, thereby forming a monocrystalline GeN layer; - cooling down of the substrate to a temperature below 650°C after formation of said monocrystalline GeN layer; and - maintaining the nitrogen gas flow during cooling down of the substrate, to maintain said monocrystalline GeN layer;
A liquid crystal composition that has a positive dielectric anisotropy and contains at least one compound selected from the group of compounds represented by formula as a first component and at least one compound selected from the group of compounds represented by formula as a second component: wherein, R 1 is alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons; R 2 is alkyl having 1 to 4 carbons; R 3 is hydrogen or alkyl having 1 to 12 carbons; X 1, X 2, X 3 and X 4 are independently hydrogen or fluorine; and Y 1 is fluorine, chlorine, trifluoromethyl or trifluoromethoxy.
Cooled goods holder for a refrigeration appliance, in particular domestic refrigeration appliance, having a shelf which has strips at least on two opposing sides and a rail extending along a first edge, characterised in that the rail is embodied as a wire bracket, the ends of which are anchored in a form-fit manner into the strips, wherein the strips grip the shelf, comprise a metallic hollow profile and a plastic element at least partially filling the hollow profile, and the ends of the wire bracket are anchored in the plastic element, wherein an elastically deflectable latching projection is formed on the plastic element and engages in a latching cut-out of the hollow profile.
A continuously variable transmission comprising a variator comprising an input disk coupled to an input shaft, an output disk providing a rotary variator output, the input and output disks (2, 3) being mounted for rotation about a common axis, at least one roller arranged between the two disks to transfer drive from one disk to the other at a continuously variable variator drive ratio, the roller being mounted in a carrier in a manner which permits it to spin about its own axis and to tilt relative to the disks (2, 3) to vary the variator drive ratio, and a hydraulic actuator arranged to apply to the carrier a reaction force determined by a hydraulic pressure difference acting on the actuator, the reaction force opposing a traction force applied to the roller by the action of the disks (2, 3); power-recirculation gearing which receives as inputs the rotation of the input shaft and the rotary variator output, and which produces an output speed which is a function of both its inputs; a low/high switching mechanism which comprises a low clutch and a high clutch and which serves to switch between (a) a low regime in which the low clutch is engaged and the output of the power-recirculation gearing 6 is transmitted to an output shaft, and (b) a high regime in which the high clutch is engaged and rotation of the variator output is transmitted to the output shaft, and wherein the direction of the reaction force of the hydraulic actuator is reversed during switching between low regime and high regime, the transmission being characterised in that it further comprises: an engagement control which starts to engage the disengaged clutch when the transmission reaches a condition at which regime change is to be initiated; and a reaction force switching control which starts the reversal of the reaction force direction while the disengaged clutch is being engaged. an engagement control which starts to engage the disengaged clutch when the transmission reaches a condition at which regime change is to be initiated; and a reaction force switching control which starts the reversal of the reaction force direction while the disengaged clutch is being engaged.
Grinding device comprising a support element and a preferably flexible grinding means held thereon, said grinding means consisting of a carrier, which bears against a closed surface of the support element, and a grinding layer, wherein the grinding means, the surface of the carrier of which facing towards the support element is structured, is held against the support element by frictional engagement across the entire surface in the grinding position, and wherein the support element is designed as a support plate, characterized in that the coefficient of friction of the support element /grinding means pairing is between 0.2 and 0.5.
An aqueous solution of pirfenidone for use in the treatment of interstitial lung disease in a subject, wherein the treatment comprises nebulized administration from a nebulizer by inhalation to the subject, the aqueous solution comprising: water; pirfenidone at a concentration from 4.0 mg/mL to 16.0 mg /mL; a citrate buffer formulated with sodium citrate; sodium chloride at a concentration between 100mM and 200 mM; and a taste masking agent that is sodium saccharin, present at a concentration between 0.1 mM and 0.9 mM; wherein the concentration of sodium saccharin is between 0.1 mM and 0.4 mM at pirfenidone concentrations of 4.0 mg/ml and wherein the concentration of sodium saccharin is between 0.5 mM and 0.9 mM at pirfenidone concentrations of 16.0 mg/ml; wherein the osmolality of the aqueous solution is from about 250 mOsmol/kg to about 500 mOsmol/kg, wherein the pH of the solution is about 4.0 to about 7.0. water; pirfenidone at a concentration from 4.0 mg/mL to 16.0 mg /mL; a citrate buffer formulated with sodium citrate; sodium chloride at a concentration between 100mM and 200 mM; and a taste masking agent that is sodium saccharin, present at a concentration between 0.1 mM and 0.9 mM; wherein the concentration of sodium saccharin is between 0.1 mM and 0.4 mM at pirfenidone concentrations of 4.0 mg/ml and wherein the concentration of sodium saccharin is between 0.5 mM and 0.9 mM at pirfenidone concentrations of 16.0 mg/ml; wherein the osmolality of the aqueous solution is from about 250 mOsmol/kg to about 500 mOsmol/kg, wherein the pH of the solution is about 4.0 to about 7.0.
A processor comprising: decode circuitry to decode an instruction specifying locations of first, second, and third floating-point operands and an opcode calling for accumulating a FP product of the first and second FP operands with previous contents of the third FP operand; execution circuitry (1311, 1411) is characterized in that to execute the decoded instruction to, in a first cycle, generate the FP product having a Fuzzy-Jbit format comprising a sign bit, a 9-bit exponent, and a 25-bit mantissa having two bits to allow two possible positions for a bit, Jbit; and the execution circuitry, in a second cycle, to accumulate the FP product with the third FP operand, while concurrently, based on Jbit positions of the FP product and the third FP operand, to determine an exponent adjustment and a mantissa shift control of a result of the accumulation, wherein performing the exponent adjustment concurrently with the accumulation reduces an impact of the exponent adjustment on a critical timing path, and enhances an ability to perform the accumulation in one cycle. decode circuitry to decode an instruction specifying locations of first, second, and third floating-point operands and an opcode calling for accumulating a FP product of the first and second FP operands with previous contents of the third FP operand; execution circuitry (1311, 1411) is characterized in that to execute the decoded instruction to, in a first cycle, generate the FP product having a Fuzzy-Jbit format comprising a sign bit, a 9-bit exponent, and a 25-bit mantissa having two bits to allow two possible positions for a bit, Jbit; and the execution circuitry, in a second cycle, to accumulate the FP product with the third FP operand, while concurrently, based on Jbit positions of the FP product and the third FP operand, to determine an exponent adjustment and a mantissa shift control of a result of the accumulation, wherein performing the exponent adjustment concurrently with the accumulation reduces an impact of the exponent adjustment on a critical timing path, and enhances an ability to perform the accumulation in one cycle.
A telecommunications network including a plurality of access points and a network core, wherein a plurality of telecommunications devices are registered with the network and communicate with the network core via the access points, characterised in that an authentication procedure between one of the devices and the network core generates a master cipher key which is used to derive cryptographically separate keys for a plurality of ciphered links between the device and the network core.
Infrared sudation device comprising a support element extending along a longitudinal axis intended to receive a user in lying position and a cover element (2a, 2b) of semi-cylindrical shape mounted on said support element so as to delimit an internal volume extending in the longitudinal direction of said support element between said support element and the internal surface of said cover element, said internal surface of said cover element being covered at least in part with a heating layer (3a, 3b) able to emit far-infrared radiation in at least one portion of said internal volume, said device being characterised in that it comprises a photocatalyst housing, permeable to the infrared radiation emitted, supporting a photocatalyst and being arranged in proximity to the internal face of said heating layer (3a, 3b) so as to allow said photocatalyst to be activated using the energy supplied by said infrared radiation emitted.
An optical tracking system (300, 400) comprising: one or more markers on which a pattern is formed; one or more capturing units (330, 430, 440) configured to include one or more capturing elements (332, 334, 432, 442) that obtain a pattern image of the pattern; and a processor (350, 450) configured to track locations and postures of the one or more markers based on information that is extracted from at least a part of the pattern included in the pattern image, wherein the pattern includes a plurality of rows of binary-coded sequences (513, 514, 515, 910, 920); the binary-coded sequence of each of the plurality of rows (910, 920) includes aperiodic sequences (911, 921) that are repeatedly arranged; the aperiodic sequences included in the binary-coded sequence of one row of the plurality of rows are different from the aperiodic sequences included in the binary-coded sequence of another row of the plurality of rows; and each of the aperiodic sequences (911, 921) includes a plurality of sub-sequences that are arranged in a predetermined order, wherein the plurality of rows of binary-coded sequences (513, 514, 515, 910, 920) include a first binary-coded sequence and a second binary-coded sequence that are adjacent in a column direction, and wherein a number of bits of each sub-sequence included in the first binary-coded sequence is different from a number of bits of each sub-sequence included in the second binary-coded sequence. one or more markers on which a pattern is formed; one or more capturing units (330, 430, 440) configured to include one or more capturing elements (332, 334, 432, 442) that obtain a pattern image of the pattern; and a processor (350, 450) configured to track locations and postures of the one or more markers based on information that is extracted from at least a part of the pattern included in the pattern image, wherein the pattern includes a plurality of rows of binary-coded sequences (513, 514, 515, 910, 920); the binary-coded sequence of each of the plurality of rows (910, 920) includes aperiodic sequences (911, 921) that are repeatedly arranged; the aperiodic sequences included in the binary-coded sequence of one row of the plurality of rows are different from the aperiodic sequences included in the binary-coded sequence of another row of the plurality of rows; and each of the aperiodic sequences (911, 921) includes a plurality of sub-sequences that are arranged in a predetermined order, wherein the plurality of rows of binary-coded sequences (513, 514, 515, 910, 920) include a first binary-coded sequence and a second binary-coded sequence that are adjacent in a column direction, and wherein a number of bits of each sub-sequence included in the first binary-coded sequence is different from a number of bits of each sub-sequence included in the second binary-coded sequence.
Electrostatic precipitator, in particular for an exhaust line of an emission control system, comprising a flow channel with a channel wall and a channel interior, through which a particle-containing exhaust gas flows in a direction of flow, an electrode, extending substantially in the direction of flow in the channel interior, for forming an electrical field between the electrode and the channel wall, and an electrode feed, for feeding at least the electrode, the electrode feed being at least partially enclosed by an insulator, also comprising a particle repelling means, which prevents particles of the exhaust gas from being deposited on the electrode, the particle repelling means comprising at least one upstream electrode unit, which is arranged upstream of the electrode in the direction of flow of the exhaust gas, in order to form an.electrical field upstream of the electrode in the direction of flow when a voltage is applied to the corresponding portion of the channel wall, and the upstream electrode unit having an upstream electrode, which has the same polarity as the electrode, characterized in that at least one of the electrodes (6, 10) is formed at least partially as a bundle-like arrangement of wires, which are arranged as fixed at one end and free at their other end and, when a voltage is applied, align themselves along the resultant field lines.