mhurhangee/ep-ind-claims huggingface dataset:
A method of planning motion of a robot from a start location to an end location, said start and end locations (12,14) being within the range of motion of said robot, the method comprising: a) defining at least two locations (12,14,16,18,20,22) in terms of a spatial coordinate system, said at least two locations (12,14,16,18,20,22) including said start and end locations; b) storing said at least two locations (12,14,16,18,20,22) in a computer memory; c) defining a set of rules for governing movement of said robot between said at least two locations (12,14,16,18,20,22); d) storing said set of rules in the computer memory; e) finding possible routes (24,40) by applying said set of rules through said at least two locations (12,14,16,18,20,22), from said start location to said end location; and, f) determining from said possible routes (24,40) an optimized route (24,40) which meets a predetermined criteria characterised in that g) names are assigned to said at least two locations (12,14,16,18,20,22) and that said rules for governing movement of said robot are syntactic rules and in that h) the set of rules comprise pairs of named points, where said robot is permitted to move from the first point in each pair directly to the second point of that pair, and from the second point in each pair directly to the first point of that pair. a) defining at least two locations (12,14,16,18,20,22) in terms of a spatial coordinate system, said at least two locations (12,14,16,18,20,22) including said start and end locations; b) storing said at least two locations (12,14,16,18,20,22) in a computer memory; c) defining a set of rules for governing movement of said robot between said at least two locations (12,14,16,18,20,22); d) storing said set of rules in the computer memory; e) finding possible routes (24,40) by applying said set of rules through said at least two locations (12,14,16,18,20,22), from said start location to said end location; and, f) determining from said possible routes (24,40) an optimized route (24,40) which meets a predetermined criteria characterised in that g) names are assigned to said at least two locations (12,14,16,18,20,22) and that said rules for governing movement of said robot are syntactic rules and in that h) the set of rules comprise pairs of named points, where said robot is permitted to move from the first point in each pair directly to the second point of that pair, and from the second point in each pair directly to the first point of that pair.
A diamond inlaid eyeglass temple structure, comprising an eyeglass temple body and a diamond, wherein, the diamond has a crown part, a girdle part, and a pavilion part, characterized in that the eyeglass temple body has an elastic body, which has an inwardly-bending elastic tendency, the two ends of the elastic body are connected at the outer side with a first gripping part and a second gripping part in a cantilevered manner respectively, the first gripping part and second gripping part have a first slot and a second slot on their opposite end surfaces respectively, the first slot and second slot grip the diamond at the girdle part in symmetry, with the crown part of the diamond exposed at the outer side of the first gripping part and second gripping part, the diamond is gripped firmly under the elastic force of the elastic body, and the diamond has a culet, which props against the elastic body.
Circuitry for a terminal device for use in a wireless telecommunication system comprising one or more base stations which support a power boost operating mode in which a base station's available transmission power is concentrated to provide enhanced transmission powers in a subset of its available transmission resources, wherein the circuitry comprises a controller unit and a transceiver unit configured to function so the terminal device is configured to: receive an indication of the extent to which one or more base stations support the power boost operating mode in the wireless telecommunication system; and control acquisition of a base station of the wireless telecommunication system in a manner that takes account of the indicated extent to which one or more base stations support the power boost mode by delaying acquisition of the base station for a period of time based on the indication of the extent to which one or more base stations support the power boost operating mode and entering a reduced activity mode during a period of time for which acquisition of the base station is delayed. receive an indication of the extent to which one or more base stations support the power boost operating mode in the wireless telecommunication system; and control acquisition of a base station of the wireless telecommunication system in a manner that takes account of the indicated extent to which one or more base stations support the power boost mode by delaying acquisition of the base station for a period of time based on the indication of the extent to which one or more base stations support the power boost operating mode and entering a reduced activity mode during a period of time for which acquisition of the base station is delayed.
A tandem OLED device having two spaced electrodes (30, 90), comprising: a first and second light-emitting units (75, 85) that produce different emission spectra disposed between the electrodes (30, 90), and an intermediate connector disposed between the light-emitting units (75, 85), wherein the first light-emitting unit is configured to produce light having multiple peaks at wavelengths longer than 500 nm, and wherein a light emission intensity at wavelengths shorter than 480 nm is less than 10% of a maximum emission intensity, and no more than 50% at 490 nm, characterized in that the second light-emitting unit comprises a blue light-emitting layer for blue emission, a spacer layer and one other light emitting layer, which produces either green, yellow or red emission, wherein the spacer layer is disposed between the blue light-emitting layer and the one other light-emitting layer and is provided to increase blue emission while reducing emission from the one other light emitting layer such that the second light-emitting unit gives substantially blue emission. a first and second light-emitting units (75, 85) that produce different emission spectra disposed between the electrodes (30, 90), and an intermediate connector disposed between the light-emitting units (75, 85),
Pipe section having a plastic valve seat with a cylindrical recess which, in particular, does not have an undercut and into which a metallic threaded sleeve having an internal thread is injected, the inner diameter of which corresponds to the inner diameter of the cylindrical recess, wherein a shut-off valve is inserted in the valve seat which comprises a head piece which is centrally penetrated by a rotatably mounted spindle, via which a ceramic control disc for controlling the fluid flow is rotatable vis-à-vis a fixed valve seat disc, wherein the head piece has a sleeve-shaped part, characterised in that in the sleeve-shaped part at least one through window is arranged, which is arranged above the inlet and the outlet of the valve seat and which can be flown through by a fluid in an open valve position and that a threaded piece having an external thread is moulded on the sleeve-shaped part, via which the shut-off valve is screwed into the internal thread of the threaded sleeve, which threaded piece forms a shoulder with respect to the sleeve-shaped part above the at least one through window, in a manner that between the inner diameter of the internal thread of the threaded sleeve of the valve seat and the sleeve-shaped part having at least one through window, a circumferential radial gap for the passage of fluid is formed.
Roof system for a vehicle having a roof liner which can be attached in the region of a roof opening and has an edge which is provided peripherally with a shaped-out formation (1.1) which is drawn away from the passenger compartment and, adjoining said shaped-out formation, with an edge rim (1.2), for example a flange, and having a cartridge which has a support, in particular a support lug, at least in sections, on which support the edge rim of the roof liner lies, characterized in that the support forms a slot with the cartridge, which slot receives the edge rim (1.2) of the roof liner at least in sections, and in that the roof liner has one or more recesses in the edge rim, which one or more recesses receives/receive in each case one projection which is provided on the cartridge and/or the support.
A method for configuring a radio frequency, RF, transmit assembly for a magnetic resonance imaging system for acquiring magnetic resonance imaging data from a subject within an imaging zone using an RF pulse sequence, the RF transmit assembly comprising an RF amplifier and a transmit coil, wherein the RF transmit assembly is configurable with a set of configuration parameters, the method comprising: - providing operating conditions of the RF transmit assembly, the operating conditions being indicative of at least: a property of the RF pulse sequence and a measurable parameter that influences the RF pulse sequence property when operating the RF transmit assembly using the RF pulse sequence, wherein the measurable parameter comprises at least one of ambient temperature, temperature of a cooling water of the RF transmit assembly, junction temperatures of components of the RF amplifier, coil load of the transmit coil, power supply voltage of a power supply of the RF transmit assembly, the operating conditions being further indicative of a subject weight, subject height, imaging position, anatomy to be scanned; - using a predefined machine learning model for determining, for the operating conditions, at least part of the set of configuration parameters and associated values; - configuring the RF transmit assembly in accordance with the determined configuration parameters and associated values. - providing operating conditions of the RF transmit assembly, the operating conditions being indicative of at least: a property of the RF pulse sequence and a measurable parameter that influences the RF pulse sequence property when operating the RF transmit assembly using the RF pulse sequence, wherein the measurable parameter comprises at least one of ambient temperature, temperature of a cooling water of the RF transmit assembly, junction temperatures of components of the RF amplifier, coil load of the transmit coil, power supply voltage of a power supply of the RF transmit assembly, the operating conditions being further indicative of a subject weight, subject height, imaging position, anatomy to be scanned; - using a predefined machine learning model for determining, for the operating conditions, at least part of the set of configuration parameters and associated values; - configuring the RF transmit assembly in accordance with the determined configuration parameters and associated values.
An optical selector arrangement, comprising: a first set of optical ports, having a first number of optical ports, the first number being greater than or equal to 2; a second set of optical ports, having a second number of optical ports; the second set of optical ports being for communicating with the first set of optical ports, a selector interface for the optical selector arrangement, the selector interface comprising the second set of optical ports, a part of the optical selector arrangement functioning as a selector, the selector being arranged to selectively optically couple the first set of optical ports to a different subset of ports of the second set of optical ports of the selector interface, characterised by the second number being greater than the first number; the selector being rotatable relative to the selector interface to facilitate the selection by optically aligning the first set of optical ports to the second set of optical ports of the selector interface; and the selector being configured to be continuously relatively rotatable over multiple rotations, to selectively optically couple the first set of optical ports to said different subset of ports of the second set of optical ports of the selector interface. a first set of optical ports, having a first number of optical ports, the first number being greater than or equal to 2; a second set of optical ports, having a second number of optical ports; the second set of optical ports being for communicating with the first set of optical ports, a selector interface for the optical selector arrangement, the selector interface comprising the second set of optical ports, a part of the optical selector arrangement functioning as a selector, the selector being arranged to selectively optically couple the first set of optical ports to a different subset of ports of the second set of optical ports of the selector interface, characterised by the second number being greater than the first number; the selector being rotatable relative to the selector interface to facilitate the selection by optically aligning the first set of optical ports to the second set of optical ports of the selector interface; and the selector being configured to be continuously relatively rotatable over multiple rotations, to selectively optically couple the first set of optical ports to said different subset of ports of the second set of optical ports of the selector interface.
A fibre optic cable assembly, including: at least one fibre optic connector (45a,45b) arranged for insertion into a receiving socket, said connector (45a,45b) having a leading end and a trailing end with respect to the direction of insertion of the connector into the receiving socket; at least one latching lever (55a,55b) for releasably locking the fibre optic connector (45a,45b) to the receiving socket, said latching lever (55a,55b) having a leading end (63a,63b) and a trailing end (65a,65b) with respect to the direction of insertion of the connector into the receiving socket, wherein the latching lever (55a,55b) is cantilevered towards its trailing end (65a,65b), the arrangement being such that the trailing end (65a,65b) of the latching lever is fixed and the leading end (63a,63b) of the latching lever is moveable with respect to trailing end (65a,65b) of the latching lever; and a manually operable control arranged for sliding movement to actuate the latching lever (55a,55b), wherein the control is slidable in a direction substantially opposite to the insertion direction to move the latching lever (55a,55b) to a non-locking position.
An organopolysiloxane of average compositional formula below which contains a sulfide group-containing organic group a b c (R 1) d SiO (4-2a-b-c-d)/2 wherein A is a sulfide group-containing divalent organic group, B is a monovalent hydrocarbon group of 5 to 10 carbon atoms, C is a hydrolysable group and/or a hydroxyl group, R 1 is a monovalent hydrocarbon group of 1 to 4 carbon atoms, and subscripts a, b, c and d satisfy the conditions 0 < 2a < 1,0 < b < 1,0 < c < 3, 0 ≤ d < 2 and 0 < 2a+b+c+d < 4, characterized in that the organopolysiloxane has a sulfide equivalent weight from 500 to 800 g/mol.
A neurostimulation system comprising: memory that stores data for first and second input waveforms; a playback system that provides first and second output waveforms, based on the first and second input waveforms in the memory, respectively, to form composite patterns of stimulation or waveforms, the first output waveform being different than the second output waveform, the second output waveform being periodically superimposed on the first output waveform to produce periodic bursting stimulation, the second output waveform having a frequency that is greater than the frequency of the first output waveform; a stimulation electrode; and a controller in communication with the stimulation electrode, the controller being configured to control application of the composite patterns of stimulation or waveforms to a target site in a body of a subject suffering from a medical condition. memory that stores data for first and second input waveforms; a playback system that provides first and second output waveforms, based on the first and second input waveforms in the memory, respectively, to form composite patterns of stimulation or waveforms, the first output waveform being different than the second output waveform, the second output waveform being periodically superimposed on the first output waveform to produce periodic bursting stimulation, the second output waveform having a frequency that is greater than the frequency of the first output waveform; a stimulation electrode; and a controller in communication with the stimulation electrode, the controller being configured to control application of the composite patterns of stimulation or waveforms to a target site in a body of a subject suffering from a medical condition.
A composition comprising a lubricant and polyvinylchloride wherein the lubricant is a lubricant for polyvinyl chloride comprising a core and a shell, wherein said core is obtainable by polymerization of a core composition, wherein said core composition comprises 5-60 weight percent of a first core (meth)acrylate monomer and 40-95 weight percent of a second core (meth)acrylate monomer, wherein said first core (meth)acrylate monomer is esterified to a straight or branched alkyl comprising not more than 4 carbon atoms, wherein said second core (meth)acrylate monomer is esterified to a straight or branched alkyl comprising at least 5 and not more than 24 carbon atoms; wherein said shell comprises one or more layers obtainable by polymerization of a shell composition, wherein said shell composition comprises a crosslinking agent; wherein said shell has a glass transition temperature from 60°C to 120°C, wherein said glass transition temperature is determined by thermomechanical analysis; wherein the ratio of the mass of said core to the mass of said shell is from 30/70 to 90/10. wherein said core is obtainable by polymerization of a core composition, wherein said core composition comprises 5-60 weight percent of a first core (meth)acrylate monomer and 40-95 weight percent of a second core (meth)acrylate monomer, wherein said first core (meth)acrylate monomer is esterified to a straight or branched alkyl comprising not more than 4 carbon atoms, wherein said second core (meth)acrylate monomer is esterified to a straight or branched alkyl comprising at least 5 and not more than 24 carbon atoms; wherein said shell comprises one or more layers obtainable by polymerization of a shell composition, wherein said shell composition comprises a crosslinking agent; wherein said shell has a glass transition temperature from 60°C to 120°C, wherein said glass transition temperature is determined by thermomechanical analysis; wherein the ratio of the mass of said core to the mass of said shell is from 30/70 to 90/10.
An electrowetting on dielectric (EWOD) device comprising: a first substrate; a second substrate spaced from the first substrate to define a gap therebetween; a reference electrode disposed on the first substrate; a plurality of array elements, each array element including an array element electrode (38, 38A, 38B), the array element electrodes being disposed on the second substrate; and control electronics configured to control a supply of time varying voltages to the array element electrodes (38, 38A, 38B) and the reference electrode, thereby generating an actuation voltage as a potential difference between voltages at the array element electrodes and the reference electrode, at least part of the control electronics being disposed on the second substrate; characterized in that the reference electrode includes a first electrical connection and a second electrical connection, and the control electronics further is configured to supply an electrical current flow between the first electrical connection and the second electrical connection to generate resistance heat for controlling temperature of the EWOD device. a first substrate; a second substrate spaced from the first substrate to define a gap therebetween; a reference electrode disposed on the first substrate; a plurality of array elements, each array element including an array element electrode (38, 38A, 38B), the array element electrodes being disposed on the second substrate; and control electronics configured to control a supply of time varying voltages to the array element electrodes (38, 38A, 38B) and the reference electrode, thereby generating an actuation voltage as a potential difference between voltages at the array element electrodes and the reference electrode, at least part of the control electronics being disposed on the second substrate; characterized in that the reference electrode includes a first electrical connection and a second electrical connection, and the control electronics further is configured to supply an electrical current flow between the first electrical connection and the second electrical connection to generate resistance heat for controlling temperature of the EWOD device.
A DC-DC converter, the DC-DC converter comprising first and second input terminals (51,52) and first and second output terminals (53, 54), a buck-boost converter operable in a boost mode and in a buck mode and comprising a rectifying device and further comprising a first switch electrically coupled to the first input terminal and arranged for electrically coupling the first input terminal to the first output terminal via the rectifying device, and yet further comprising an inductor electrically coupled between the second output terminal and arranged for coupling the second input terminal to the second output terminal, and a node between the first switch and the rectifying device, and a capacitor electrically coupled between the first and second output terminals (53, 54), a second switch electrically coupled to the second input terminal and arranged for coupling the second input terminal to the second output terminal, and a switching device (58, 88) between the first output terminal and the second input terminal, wherein the second switch and the switching device (58,88) are arranged so as to be able to disable the boost mode when the second switch is open.