mhurhangee/ep-ind-claims huggingface dataset:
A mean radiant temperature sensor system, comprising: a two degree-of-freedom motion system; a range finding sensor; a non-contacting temperature sensor; and a microprocessor; wherein the range finding sensor and the non-contacting temperature sensor are operably connected to the two degree-of-freedom motion system; wherein the non-contacting temperature sensor and range finding sensor are directed using the two degree-of-freedom motion system, wherein the microprocessor is adapted to direct the two degree-of-freedom motion system such that for a plurality of points in space, a temperature of each point in space and a corresponding range measurement for each point in space can be taken, the plurality of points in space comprising all or a fraction of the volume of an imaginary sphere surrounding the device, wherein the microprocessor is adapted to receive at least a temperature reading, to receive a range data point from the range finding sensor corresponding to each temperature reading, determine directional information corresponding to each temperature reading, calculate a mean radiant temperature as a weighted average of the received temperature data points, and output the mean radiant temperature. a two degree-of-freedom motion system; a range finding sensor; a non-contacting temperature sensor; and a microprocessor; wherein the range finding sensor and the non-contacting temperature sensor are operably connected to the two degree-of-freedom motion system; wherein the non-contacting temperature sensor and range finding sensor are directed using the two degree-of-freedom motion system, wherein the microprocessor is adapted to direct the two degree-of-freedom motion system such that for a plurality of points in space, a temperature of each point in space and a corresponding range measurement for each point in space can be taken, the plurality of points in space comprising all or a fraction of the volume of an imaginary sphere surrounding the device, wherein the microprocessor is adapted to receive at least a temperature reading, to receive a range data point from the range finding sensor corresponding to each temperature reading, determine directional information corresponding to each temperature reading, calculate a mean radiant temperature as a weighted average of the received temperature data points, and output the mean radiant temperature.
A computer-implemented method of controlling curve sawing of a block in a cutting direction with a division saw that includes at least a first circular saw blade mounted along a first shaft, wherein the cutting direction lies within a first vertical plane, the method comprising: - determining, by a processor of the computer, a plurality of radii of curvature of the block at corresponding locations along the block based on measurements of said curvature, characterized in that the method further comprises: - calculating, by the processor, a plurality of first inclination angles (β) for the first circular saw blade about a first axis based on the respective corresponding radii of curvature of the block, wherein the first axis extends through the first circular saw blade generally parallel to the cutting direction; and - transmitting by a transmitter of the computer, to a control unit configured to incline the first shaft, control signals comprising instructions for inclining the first circular saw blade to the first inclination angles (β) at the corresponding locations along the block to thereby enable the control unit to control the curve sawing of the block by the division saw. - determining, by a processor of the computer, a plurality of radii of curvature of the block at corresponding locations along the block based on measurements of said curvature, - calculating, by the processor, a plurality of first inclination angles (β) for the first circular saw blade about a first axis based on the respective corresponding radii of curvature of the block, wherein the first axis extends through the first circular saw blade generally parallel to the cutting direction; and - transmitting by a transmitter of the computer, to a control unit configured to incline the first shaft, control signals comprising instructions for inclining the first circular saw blade to the first inclination angles (β) at the corresponding locations along the block to thereby enable the control unit to control the curve sawing of the block by the division saw.
A method of localizing a plurality of wireless transmitters (104a-140f), the method comprising: establishing, by a localization device, a communication with one or more sensors distributed in a grid pattern in an indoor space; retrieving, by the localization device, Received Signal Strength Indicator values measured by the one or more sensors, along with location information of each of the one or more sensors, corresponding to the plurality of wireless transmitters (104a-104f) in the indoor space; generating, by the localization device, a plurality of clusters based on the retrieved Received Signal Strength Indicator values and the location information of each of the one or more sensors; generating, by the localization device, a binary image based on the generated clusters, wherein the binary image comprises one or more white regions, with contours indicating a boundary in which a maximum range of transmission of each of the plurality of wireless transmitters (104a-104f) is present in a region of the indoor space and one or more black regions; localizing, by the localization device, the position and proximity of the plurality of wireless transmitters (104a-104f) corresponding to each other, based on the contours of the one or more white regions present in the binary image; and communicating, by the localization device, information associated with the position and proximity of each of the plurality of wireless transmitters (104a-104f) to a network planning system, so as to automate reuse of frequencies used for transmissions by each of the plurality of wireless transmitters (104a-104f). establishing, by a localization device, a communication with one or more sensors distributed in a grid pattern in an indoor space; retrieving, by the localization device, Received Signal Strength Indicator values measured by the one or more sensors, along with location information of each of the one or more sensors, corresponding to the plurality of wireless transmitters (104a-104f) in the indoor space; generating, by the localization device, a plurality of clusters based on the retrieved Received Signal Strength Indicator values and the location information of each of the one or more sensors; generating, by the localization device, a binary image based on the generated clusters, wherein the binary image comprises one or more white regions, with contours indicating a boundary in which a maximum range of transmission of each of the plurality of wireless transmitters (104a-104f) is present in a region of the indoor space and one or more black regions; localizing, by the localization device, the position and proximity of the plurality of wireless transmitters (104a-104f) corresponding to each other, based on the contours of the one or more white regions present in the binary image; and communicating, by the localization device, information associated with the position and proximity of each of the plurality of wireless transmitters (104a-104f) to a network planning system, so as to automate reuse of frequencies used for transmissions by each of the plurality of wireless transmitters (104a-104f).
A monitoring guidewire for a medical procedure comprising: a core wire having a first length, wherein the core wire has a diameter of at most 0.018cm (0.007 inches); a pressure sensor disposed in a distal region of the core wire; and a hypotube surrounding the core wire and having a second length that is less than the first length, the hypotube comprising laser etching along at most a 40cm length of a distal portion of the hypotube, wherein the hypotube has an outer diameter between 0.033 and 0.036cm (0.013 and 0.014 inches); and wherein the core wire comprises at least one of: MP35N, L605, Elgiloy, or an alloy including nickel, cobalt, molybdenum and chromium; and wherein the hypotube comprises at least one of: polyemide; nitinol; stainless steel; nylon; polyurethane; PTFE. a core wire having a first length, wherein the core wire has a diameter of at most 0.018cm (0.007 inches); a pressure sensor disposed in a distal region of the core wire; and a hypotube surrounding the core wire and having a second length that is less than the first length, the hypotube comprising laser etching along at most a 40cm length of a distal portion of the hypotube, wherein the hypotube has an outer diameter between 0.033 and 0.036cm (0.013 and 0.014 inches); and wherein the core wire comprises at least one of: MP35N, L605, Elgiloy, or an alloy including nickel, cobalt, molybdenum and chromium; and wherein the hypotube comprises at least one of: polyemide; nitinol; stainless steel; nylon; polyurethane; PTFE.
A reactive hot-melt adhesive containing - from 30 to less than 70 wt.% at least one prepolymer comprising at least two isocyanate groups having a molecular weight of under 6,000 g/mol, prepared from polyether polyols and/or polyester polyols reacted with a molar excess of diisocyanates, wherein the prepolymer contains less than 1% monomeric diisocyanate, - from more than 30 to 70 wt.% a thermoplastic polyester having a number average molecular weight of under 6,000 g/mol and comprising fewer than 1.4 groups reactive with NCO, and - optionally up to 30 wt.% additives from the group of catalysts, resins, plasticizers, fillers, pigments, stabilizers, additional polymers or adhesion promoters. - from 30 to less than 70 wt.% at least one prepolymer comprising at least two isocyanate groups having a molecular weight of under 6,000 g/mol, prepared from polyether polyols and/or polyester polyols reacted with a molar excess of diisocyanates, wherein the prepolymer contains less than 1% monomeric diisocyanate, - from more than 30 to 70 wt.% a thermoplastic polyester having a number average molecular weight of under 6,000 g/mol and comprising fewer than 1.4 groups reactive with NCO, and - optionally up to 30 wt.% additives from the group of catalysts, resins, plasticizers, fillers, pigments, stabilizers, additional polymers or adhesion promoters.
Device for controlling an automatic gearbox, comprising an electronic control unit capable of detecting a request from a driver to perform a single gear downshift or a multiple gear downshift, the control unit being configured in order to receive a first Boolean signal associated with brake pedal pressure and a second Boolean signal associated with pressure on a spring-back actuator, and in order to deliver a third Boolean signal requesting a single downshift (Mono_R) and a fourth Boolean signal (Multi_R) requesting a multiple downshift, wherein the electronic control unit triggers a time delay (t) when the actuator is actuated, and maintains it for as long as this actuator is activated, and emits a positive multiple downshift signal if and only if the time delay successively reaches a first time limit (T 1) and a second time limit (T 2) strictly greater than the first time limit, and if the brake and the actuator remain activated continuously between the first time limit and the second time limit.
Valve assembly for a fluid injector, the valve assembly comprising a valve body and a valve needle, the valve body having a longitudinal axis and comprising a cavity with a valve seat, the cavity being limited by a wall of the valve body, the valve needle being received in the cavity, the cavity and the valve needle interacting to prevent an injection of fluid from the cavity to the outside of the injector in a closing position of the valve needle, in which closing position the valve needle is seated on the valve seat, and to enable the injection of fluid when the valve needle is spaced apart from the closing position, and - a first guiding element for axially guiding the valve needle, wherein the first guiding element is configured and arranged such that an axial displacement of the valve needle away from the closing position results in a widening of an outer shape of the first guiding element at least in a fixation section to press it against the wall of the valve body, by means of the first guiding element - being bottle shaped and being axially deformable at least in part, - being fixedly coupled to the valve needle in a bottle neck section of the first guiding element, and being coupled to the wall of the valve body in an axial end section of the first guiding element remote from the bottle neck section. - a first guiding element for axially guiding the valve needle, wherein the first guiding element is configured and arranged such that an axial displacement of the valve needle away from the closing position results in a widening of an outer shape of the first guiding element at least in a fixation section to press it against the wall of the valve body, by means of the first guiding element - being bottle shaped and being axially deformable at least in part, - being fixedly coupled to the valve needle in a bottle neck section of the first guiding element, and being coupled to the wall of the valve body in an axial end section of the first guiding element remote from the bottle neck section.
A heat source unit of a refrigeration system, the heat source unit comprising: a heat source circuit including a compressor and a heat-source heat exchanger connected to each other, wherein the heat source circuit includes four ports, characterized in: a first gas port which is provided at an end of a first gas line constantly communicating with a discharge side of the compressor, a second gas port which is provided at an end of a second gas line constantly communicating with a suction side of the compressor, a third gas port which is provided at an end of a third gas line selectively communicating with one of the first gas line and the second gas line, a liquid port which is provided at an end of a liquid line constantly communicating with a liquid inlet/outlet end of the heat-source heat exchanger, a first switching mechanism which switches a gas inlet/outlet end of the heat-source heat exchanger into communication with the discharge side of the compressor or communication with the suction side of the compressor, and a second switching mechanism which switches the third gas line into communication with the first gas line or communication with the second gas line. a first gas port which is provided at an end of a first gas line constantly communicating with a discharge side of the compressor, a second gas port which is provided at an end of a second gas line constantly communicating with a suction side of the compressor, a third gas port which is provided at an end of a third gas line selectively communicating with one of the first gas line and the second gas line, a liquid port which is provided at an end of a liquid line constantly communicating with a liquid inlet/outlet end of the heat-source heat exchanger, a first switching mechanism which switches a gas inlet/outlet end of the heat-source heat exchanger into communication with the discharge side of the compressor or communication with the suction side of the compressor, and a second switching mechanism which switches the third gas line into communication with the first gas line or communication with the second gas line.
A traffic monitoring method, comprising: acquiring (S201, S301, S401, S501) vehicle state information collected by a terminal device, wherein the terminal device is at least one of an unmanned vehicle and an unmanned aerial vehicle, and the vehicle state information comprises at least one of the following: a vehicle image collected by the unmanned vehicle and a vehicle image collected by the unmanned aerial vehicle; acquiring characteristic information of a target vehicle, wherein the target vehicle comprises a vehicle on road with a specific number plate and/or a specific appearance characteristic that need to be focused on, and the characteristic information of the target vehicle comprises at least one of the following: number plate information and appearance characteristic information; detecting characteristic information of a first vehicle on a road according to a first vehicle image collected by the unmanned vehicle and/or the unmanned aerial vehicle; determining the first vehicle as the target vehicle if the characteristic information of the first vehicle matches the characteristic information of the target vehicle, to identify a target vehicle on road event; acquiring map data from a map server; and determining a driving trajectory of the target vehicle according to a location at where the target vehicle appears and the map data. acquiring (S201, S301, S401, S501) vehicle state information collected by a terminal device, wherein the terminal device is at least one of an unmanned vehicle and an unmanned aerial vehicle, and the vehicle state information comprises at least one of the following: a vehicle image collected by the unmanned vehicle and a vehicle image collected by the unmanned aerial vehicle; acquiring characteristic information of a target vehicle, wherein the target vehicle comprises a vehicle on road with a specific number plate and/or a specific appearance characteristic that need to be focused on, and the characteristic information of the target vehicle comprises at least one of the following: number plate information and appearance characteristic information; detecting characteristic information of a first vehicle on a road according to a first vehicle image collected by the unmanned vehicle and/or the unmanned aerial vehicle; determining the first vehicle as the target vehicle if the characteristic information of the first vehicle matches the characteristic information of the target vehicle, to identify a target vehicle on road event; acquiring map data from a map server; and determining a driving trajectory of the target vehicle according to a location at where the target vehicle appears and the map data.
A method for guiding a probe inside a constrained space, wherein the probe is a hyper-redundant manipulator comprising a plurality of independently-orientable connected segments extendable between a proximal end and a distal end inside the constrained space, the method including the steps of: determining: an initial point (p 1) where the probe intersects a predetermined curve which defines a circle or part circle within said space; and an initial bend for the probe between an entry point on a surface of the constrained space and the initial point; and, repeatedly: determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position. determining: an initial point (p 1) where the probe intersects a predetermined curve which defines a circle or part circle within said space; and an initial bend for the probe between an entry point on a surface of the constrained space and the initial point; and, repeatedly: determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position. determining a new orientation of said segments which results in an advancement of the distal end to a new position which is on said curve, the new orientation being determined so as to minimise the weighted sum of: a) the deviation between the point (p 1) on the probe where the probe starts to follow said curve, and the initial point, and b) the deviation between a point (p 2) on the probe closer to the distal end than the point where the probe starts to follow said curve, and said curve; and adjusting the orientation of said segments to said new orientation and advancing the probe so that the distal end is located at the new position.
A lubricating composition comprising an oil of lubricating viscosity and 0.01 wt % to 10 wt % of an oxyalkylated aromatic polyol compound, wherein the oxyalkylated aromatic polyol compound is represented by the formula: wherein R 1 is -(CH 2 CHR 5 -O-) m R 6, R 2 is hydrogen, a hydrocarbyl group containing 1 to 24, or 1 to 12, carbon atoms, or -(C=O)R 4, -(CH 2 CHR 5 -O-) m R 6, n is 1 or 2, R 3 is a hydrocarbyl group containing 1 to 150 carbon atoms or 1 to 80, 10 to 40, or 30 to 100, or 40 to 96 carbon atoms or a hydrocarbyl group containing 6 to 36, 10 to 30 or 12 to 24 carbon atoms, or -(C=O)OR 4, or -(CH 2 CHR 5 -O-) m R 6, x is 0 to 2, R 4 is a hydrocarbyl group containing 1 to 24, or 1 to 12 carbon atoms, R 5 is hydrogen or a hydrocarbyl group containing 1 to 32, or 1 to 24, or 1 to 16, or 2 to 16, or 8 to 16, or 1 to 4, carbon atoms, or CH 2 OR 8, R 6 is hydrogen or a hydrocarbyl group containing 1 to 24, or 1 to 12 carbon atoms, or -(C=O)R 7, R 7 is a hydrocarbyl group containing 1 to 24, or 1 to 12, carbon atoms, R 8 is a hydrogen or a hydrocarbyl group containing 1 to 24, or 4 to 20, or 10 to 18 carbon atoms, and m = 1 to 20 or 5 to 18. R 1 is -(CH 2 CHR 5 -O-) m R 6, R 2 is hydrogen, a hydrocarbyl group containing 1 to 24, or 1 to 12, carbon atoms, or -(C=O)R 4, -(CH 2 CHR 5 -O-) m R 6, n is 1 or 2, R 3 is a hydrocarbyl group containing 1 to 150 carbon atoms or 1 to 80, 10 to 40, or 30 to 100, or 40 to 96 carbon atoms or a hydrocarbyl group containing 6 to 36, 10 to 30 or 12 to 24 carbon atoms, or -(C=O)OR 4, or -(CH 2 CHR 5 -O-) m R 6, x is 0 to 2, R 4 is a hydrocarbyl group containing 1 to 24, or 1 to 12 carbon atoms, R 5 is hydrogen or a hydrocarbyl group containing 1 to 32, or 1 to 24, or 1 to 16, or 2 to 16, or 8 to 16, or 1 to 4, carbon atoms, or CH 2 OR 8, R 6 is hydrogen or a hydrocarbyl group containing 1 to 24, or 1 to 12 carbon atoms, or -(C=O)R 7, R 7 is a hydrocarbyl group containing 1 to 24, or 1 to 12, carbon atoms, R 8 is a hydrogen or a hydrocarbyl group containing 1 to 24, or 4 to 20, or 10 to 18 carbon atoms, and m = 1 to 20 or 5 to 18.
A floating offshore wind turbine for electric power production, the wind turbine comprises a hull attached to a supporting column for a turbine of the wind turbine, the turbine is arranged to be put into rotation by wind force acting on rotor blades, the wind turbine is connected to a buoyancy device by means of a coupling device, the buoyancy device is arranged encircling at least a portion of the hull, and the buoyancy device is arranged to be able to support at least a portion of the mass of the wind turbine, characterized in that t the coupling device is a rotary coupling arranged for making possible heeling of the wind turbine relative to the buoyancy device which is floating at the sea surface, in such a way that the wind turbine is arranged to be able to rotate an angle from an essential vertical position towards a horizontal position, or the opposite, and the hull of the wind turbine is provided with an adjustable ballast means (9, 12) arranged to be able to balance the wind turbine about the rotary coupling in any position between said positions.