mhurhangee/ep-ind-claims huggingface dataset:
An imaging device (100, 200, 1200) comprising: a sensing array (121, 220, 320, 1220, 1391) comprising a plurality of sensing elements; an imaging lens array (110, 210, 1394) comprising a plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210), each of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) having a non-circular cross-section perpendicular to an optical axis, and configured to transmit light received from an outside of the imaging device (100, 200, 1200); and a condensing lens array (123, 1393) comprising a plurality of condensing lenses disposed between the imaging lens array (110, 210, 1394) and the sensing array (121, 220, 320, 1220, 1391), and configured to transmit the light passing through the imaging lens array (110, 210, 1394) to the sensing elements, wherein a number of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) is less than a number of the plurality of condensing lenses, each of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) covers a non-integer number of sensing elements included in a sensing region of the sensing array (121, 220, 320, 1220, 1391). a sensing array (121, 220, 320, 1220, 1391) comprising a plurality of sensing elements; an imaging lens array (110, 210, 1394) comprising a plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210), each of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) having a non-circular cross-section perpendicular to an optical axis, and configured to transmit light received from an outside of the imaging device (100, 200, 1200); and a condensing lens array (123, 1393) comprising a plurality of condensing lenses disposed between the imaging lens array (110, 210, 1394) and the sensing array (121, 220, 320, 1220, 1391), and configured to transmit the light passing through the imaging lens array (110, 210, 1394) to the sensing elements, wherein a number of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) is less than a number of the plurality of condensing lenses, each of the plurality of imaging optical lenses (111, 211, 310, 410, 511-515, 610, 710, 910, 1110, 1210) covers a non-integer number of sensing elements included in a sensing region of the sensing array (121, 220, 320, 1220, 1391).
A method for processing a chemically amplified positive-acting photoresist composition, comprising: (a) applying on a substrate a chemically amplified positive-acting photoresist composition comprising: (i) one or more resins, (ii) a photoactive component, and (iii) one or more fluorinated materials that (a) comprise one or more photoacid-labile groups, and (b) are substantially non-mixable with the (i) one or more resins, wherein the components (i), (ii) and (iii) are distinct materials; and (b) immersion exposing the photoresist layer to radiation activating for the photoresist composition. (a) applying on a substrate a chemically amplified positive-acting photoresist composition comprising: (i) one or more resins, (ii) a photoactive component, and (iii) one or more fluorinated materials that (a) comprise one or more photoacid-labile groups, and (b) are substantially non-mixable with the (i) one or more resins, wherein the components (i), (ii) and (iii) are distinct materials; and (i) one or more resins, (ii) a photoactive component, and (iii) one or more fluorinated materials that (a) comprise one or more photoacid-labile groups, and (b) are substantially non-mixable with the (i) one or more resins, (b) immersion exposing the photoresist layer to radiation activating for the photoresist composition.
A cell registration method, comprising: when receiving a paging message of a Circuit Switched FallBack, CSFB, acquiring by a terminal device, System Information, S13, of a first cell, the SI3 comprising a first signal strength threshold required by the terminal device to reside in the first cell; characterized by registering by the terminal device, to the first cell when a current signal strength of the first cell is less than the first signal strength threshold and greater than a preset cell resident signal strength threshold of the terminal device; wherein the preset cell resident signal strength threshold of the terminal device is a minimum signal strength which has to be surpassed by the terminal device to be able to access and reside in a cell. when receiving a paging message of a Circuit Switched FallBack, CSFB, acquiring by a terminal device, System Information, S13, of a first cell, the SI3 comprising a first signal strength threshold required by the terminal device to reside in the first cell; characterized by registering by the terminal device, to the first cell when a current signal strength of the first cell is less than the first signal strength threshold and greater than a preset cell resident signal strength threshold of the terminal device; wherein the preset cell resident signal strength threshold of the terminal device is a minimum signal strength which has to be surpassed by the terminal device to be able to access and reside in a cell.
Thermostat device for controlling a heating system with - a first, second and third electrical terminal (11, 12, 13) for connecting with the heating system, - a control unit configured to generate a heating control command and output the heating control command either - as an analogue voltage at the third electrical terminal or - as a modulated digital voltage or a modulated digital current via the first and / or second electrical terminal (11, 12), - voltage measuring means and current measuring means which are, for reading digital signals stemming from the heating system, arranged to be able to measure a voltage and a current between the first and second terminals (11, 12), wherein the voltage measuring means are further configured to measure a voltage at the third electrical terminal, characterized in that for determining a wrong connection of wires (41, 42, 43) of a heating system with the electrical terminals (11, 12, 13) of the thermostat device, the control unit is configured to perform a miswiring determination mode, in which: - the voltage measuring means measure a voltage at the third electrical terminal, - the control unit compares the measured voltage with at least one reference value and - the control unit generates a miswiring determination signal in dependence of a result of the comparison. - a first, second and third electrical terminal (11, 12, 13) for connecting with the heating system, - a control unit configured to generate a heating control command and output the heating control command either - as an analogue voltage at the third electrical terminal or - as a modulated digital voltage or a modulated digital current via the first and / or second electrical terminal (11, 12), - as an analogue voltage at the third electrical terminal or - as a modulated digital voltage or a modulated digital current via the first and / or second electrical terminal (11, 12), - voltage measuring means and current measuring means which are, for reading digital signals stemming from the heating system, arranged to be able to measure a voltage and a current between the first and second terminals (11, 12), - the voltage measuring means measure a voltage at the third electrical terminal, - the control unit compares the measured voltage with at least one reference value and - the control unit generates a miswiring determination signal in dependence of a result of the comparison.
A gyrocompass device for determining a heading relative to surface of the Earth or other rotating planetary body, the device comprising: one or more gyroscopes, each fixed in a known orientation on a substrate that is parallel to a first plane, wherein the one or more gyroscopes provide a plurality of sense axes (X, Y) arranged such that the plurality of sense axes lie within the first plane and each sense axis is offset from the other sense axes by a known offset angle (α); and electronic circuitry configured to receive rotation rates from the plurality of sense axes of the one or more gyroscopes and determine the heading of the device relative to the surface of the Earth or other rotating planetary body based on the rotation rates received from the one or more gyroscopes, wherein the circuitry is configured to determine the heading of the device by fitting a sine or cosine function to the received rotation rates, characterized in that the one or more gyroscopes are MEMS gyroscopes (101 to 116; 121, 122) and in that the plurality of sense axes are at least three sense axes. one or more gyroscopes, each fixed in a known orientation on a substrate that is parallel to a first plane, wherein the one or more gyroscopes provide a plurality of sense axes (X, Y) arranged such that the plurality of sense axes lie within the first plane and each sense axis is offset from the other sense axes by a known offset angle (α); and electronic circuitry configured to receive rotation rates from the plurality of sense axes of the one or more gyroscopes and determine the heading of the device relative to the surface of the Earth or other rotating planetary body based on the rotation rates received from the one or more gyroscopes, wherein the circuitry is configured to determine the heading of the device by fitting a sine or cosine function to the received rotation rates, characterized in that the one or more gyroscopes are MEMS gyroscopes (101 to 116; 121, 122) and in that the plurality of sense axes are at least three sense axes.
A weather measurement system, comprising: an unmanned aerial vehicle having a surface; an array of accelerometers disposed across the surface, wherein the accelerometers are configured to measure raindrops impacting the surface; and a processing unit configured to receive measurement data from the array and to process the measurement data into preprocessed data; wherein the unmanned aerial vehicle comprises an internal measurement unit in communication with an embedded computer; and wherein the embedded computer is configured to fuse preprocessed data with information from the internal measurement unit and to determine real-time rain rate estimates in the locality of the unmanned aerial vehicle. an unmanned aerial vehicle having a surface; an array of accelerometers disposed across the surface, wherein the accelerometers are configured to measure raindrops impacting the surface; and a processing unit configured to receive measurement data from the array and to process the measurement data into preprocessed data; wherein the unmanned aerial vehicle comprises an internal measurement unit in communication with an embedded computer; and wherein the embedded computer is configured to fuse preprocessed data with information from the internal measurement unit and to determine real-time rain rate estimates in the locality of the unmanned aerial vehicle.
A system comprising a device for heating and curing a block-shaped artificial stone with microwave and the block-shaped artificial stone having a thickness of 0.9 to 1m, characterized in that the device comprises: a microwave curing cavity, within which an incompletely block-shaped cured artificial stone is placed, microwave being used to heat the block-shaped artificial stone to completely cure the block-shaped artificial stone, a microwave generator configured to generate a microwave having a frequency in a range from 905 MHz to 925 MHz; wherein the microwave curing cavity is a resonant cavity, and the microwave is distributed in a certain field distribution mode inside the resonant cavity; and wherein the artificial stone is one of the following stone materials: an artificial marble, an artificial quartzite stone and an artificial acryl stone. a microwave curing cavity, within which an incompletely block-shaped cured artificial stone is placed, microwave being used to heat the block-shaped artificial stone to completely cure the block-shaped artificial stone, a microwave generator configured to generate a microwave having a frequency in a range from 905 MHz to 925 MHz; wherein the microwave curing cavity is a resonant cavity, and the microwave is distributed in a certain field distribution mode inside the resonant cavity; and wherein the artificial stone is one of the following stone materials: an artificial marble, an artificial quartzite stone and an artificial acryl stone.
An uplink transmission method, wherein the method comprises: sending, by user equipment UE, a plurality of different preamble signals to a network device; receiving, by the UE, a feedback signal of the network device in response to the plurality of preamble signals, wherein the feedback signal in response to each preamble signal carries a timing advance TA; determining, by the UE, a valid TA from the plurality of received TAs, including: determining, if a maximum difference between every two of the N TAs, from the plurality of received TAs, is less than or equal to a preset first threshold, that the N TAs are all valid TAs, or removing M1 largest values and M2 smallest values of the N TA values to obtain an average value of remaining TA values, and determining, if a difference between a TA and the average value is less than a preset second threshold, that the TA value is a valid TA value, wherein M1>=0, M2>=0; determining, by the UE based on a feedback signal carrying the valid TA or a preamble signal corresponding to the valid TA, a parameter used for uplink transmission; and sending, by the UE, uplink data according to the parameter sending, by user equipment UE, a plurality of different preamble signals to a network device; receiving, by the UE, a feedback signal of the network device in response to the plurality of preamble signals, wherein the feedback signal in response to each preamble signal carries a timing advance TA; determining, by the UE, a valid TA from the plurality of received TAs, including: determining, if a maximum difference between every two of the N TAs, from the plurality of received TAs, is less than or equal to a preset first threshold, that the N TAs are all valid TAs, or removing M1 largest values and M2 smallest values of the N TA values to obtain an average value of remaining TA values, and determining, if a difference between a TA and the average value is less than a preset second threshold, that the TA value is a valid TA value, wherein M1>=0, M2>=0; determining, if a maximum difference between every two of the N TAs, from the plurality of received TAs, is less than or equal to a preset first threshold, that the N TAs are all valid TAs, or removing M1 largest values and M2 smallest values of the N TA values to obtain an average value of remaining TA values, and determining, if a difference between a TA and the average value is less than a preset second threshold, that the TA value is a valid TA value, wherein M1>=0, M2>=0; determining, by the UE based on a feedback signal carrying the valid TA or a preamble signal corresponding to the valid TA, a parameter used for uplink transmission; and sending, by the UE, uplink data according to the parameter
A collecting container for lubricants comprising a housing which has an inlet opening for receiving lubricant and a piston that is arranged movably in the housing, wherein the housing and the movable piston define a lubricant collecting chamber, characterized in that a cover having a venting opening is arranged on the housing, that a sealing arrangement is provided between the lower side of the cover and the piston's rear side facing towards the cover, the sealing arrangement sealing off a gap formed between the cover and the piston after the lubricant collecting chamber is completely filled, and that the sealing arrangement comprises a sealing surface and an elastomer seal, wherein the sealing surface is formed on the rear side of the piston or on the lower side of the cover and rests against the elastomer seal after the lubricant collecting chamber is completely filled.
Device (1.1) for capacitive measurement by a floating bridge, comprising: - a sensor module (2.1) comprising at least one measuring electrode and at least one guard electrode arranged close to a target connected to a general earth, - a guard to which said guard electrode is connected, and - at least one integrated circuit for capacitive measurement, comprising (i) a measuring input (+) and (ii) an excitation output for measuring capacitances between electrodes respectively connected to said measuring input (+) and to an excitation signal generated by said excitation output, (iii) an earth terminal and (iv) a measuring output, characterized in that: - it further comprises means for supplying said integrated circuit for capacitive measurement in floating mode, - said measuring input (+) of the integrated circuit is connected to said measuring electrode, - said guard is connected to said earth terminal of the integrated circuit, and - said excitation output of the integrated circuit is connected to said general earth. - a sensor module (2.1) comprising at least one measuring electrode and at least one guard electrode arranged close to a target connected to a general earth, - a guard to which said guard electrode is connected, and - at least one integrated circuit for capacitive measurement, comprising (i) a measuring input (+) and (ii) an excitation output for measuring capacitances between electrodes respectively connected to said measuring input (+) and to an excitation signal generated by said excitation output, (iii) an earth terminal and (iv) a measuring output, - it further comprises means for supplying said integrated circuit for capacitive measurement in floating mode, - said measuring input (+) of the integrated circuit is connected to said measuring electrode, - said guard is connected to said earth terminal of the integrated circuit, and - said excitation output of the integrated circuit is connected to said general earth.
A battery case structure of an electric vehicle that is of a saddle type and whose power source is a battery that is chargeable, the battery case structure comprising: a cover member that is placed below a central area of a main frame of the electric vehicle in a front-back direction and swings in a vehicle transverse direction; and a lower frame that is connected to the main frame and placed round a lower area of the cover member, wherein as the cover member swings, an attaching and detaching opening provided in an upper part of the cover member approaches or moves away from the main frame, the battery is detachably inserted into the cover member through the attaching and detaching opening that has moved away from the main frame, and when the attaching and detaching opening approaches the main frame, the battery inserted into the cover member is housed between the lower frame and the main frame while being supported above the lower frame, characterised in that the battery case structure further comprises a lower rubber mount that transfers a weight of the battery in a vertical direction to the lower frame between a lower end of the battery supported above the lower frame and the lower frame, and wherein the battery case structure further comprises a lateral rubber mount that is provided on a side of the lower frame and receives a load in a vehicle front-back direction from the battery, wherein on a side of the battery, a guide that guides the lateral rubber mount when the cover member swings is provided. a cover member that is placed below a central area of a main frame of the electric vehicle in a front-back direction and swings in a vehicle transverse direction; and a lower frame that is connected to the main frame and placed round a lower area of the cover member, wherein as the cover member swings, an attaching and detaching opening provided in an upper part of the cover member approaches or moves away from the main frame, the battery is detachably inserted into the cover member through the attaching and detaching opening that has moved away from the main frame, and when the attaching and detaching opening approaches the main frame, the battery inserted into the cover member is housed between the lower frame and the main frame while being supported above the lower frame, characterised in that the battery case structure further comprises a lower rubber mount that transfers a weight of the battery in a vertical direction to the lower frame between a lower end of the battery supported above the lower frame and the lower frame, and wherein the battery case structure further comprises a lateral rubber mount that is provided on a side of the lower frame and receives a load in a vehicle front-back direction from the battery, wherein on a side of the battery, a guide that guides the lateral rubber mount when the cover member swings is provided.
Bodywork of a motor vehicle comprising at least one set of body parts, which are designed as anchorages on the body of a safety-belt retractor, the body parts set having a retractor support, fixed to at least one deformable body part, which is attached to the body and deformed the shape of a solid organ at a predetermined force threshold, the support being fixed to an anchorage structure on the body of a seat back and at least one component of a body reinforcement between an reinforcing ring limiting a rear opening of the body box and a custode lining Cover forming a rear wheel passage, marked by the bodywork reinforcement forming the deformable body part by having at least one embrittlement zone (19a, 19b) which allows its deformation at the force threshold according to a substantially following directional tensile force The longitudinal extension of the bodywork; where the support is bolted to the superstructure reinforcement by a first bolt by a wing extending the support and a reinforcement at least partially forming, with a first embrittlement of the superstructure reinforcement a passage of the first bolt through it, with at least the passage over the first bolt at the threshold d being deformable The force acting on a traction force applied by the beam to the box reinforcement as a result of a movement of the anchorage structure.
A method for suppressing dimerization of -8-(3,4-dimethoxystyryl)-1,3-diethyl-7-methyl-3,7-dihydro-1H-purine-2,6-dione represented by formula or a pharmaceutically acceptable salt thereof in a solid formulation containing the compound of formula or the pharmaceutically acceptable salt thereof, which comprises having iron oxide exist in the solid formulation.
A dishwasher comprising a body having two side walls; a door providing access into the body; at least one rack whereon the items to be washed are placed, having a washing position wherein the rack is entirely inside the body and a loading/unloading position wherein the rack is partially taken outside the body by being pulled forwards, and an elevating means that enables the rack in the loading/unloading position to move in the vertical direction and that has at least one lifting arm enabling the rack to be supported by extending in the horizontal direction from the side walls, characterized by a locking lug that is disposed on the rack and that has a channel enabling the rack to be engaged with the elevating means by releasably locking onto the lifting arm when the rack is pulled out of the body by the user.