mhurhangee/ep-ind-claims huggingface dataset:
Motor vehicle lighting device comprising a plurality of light modules arranged side by side, each light module comprising at least one semiconductor light source, which emits light in a main emission direction, and at least one reflective surface, which is functionally associated with at least one semiconductor light source and is oriented obliquely with respect to the main emission direction of the at least one light source such that a majority of the light emitted by the at least one semiconductor light source strikes the at least one reflective surface and such that the light reflected on the at least one reflective surface has a main emergence direction that extends at an angle of between 60° and 90° with respect to the main emission direction of the light emitted by the at least one semiconductor light source, each of the light modules producing a partial light distribution, all the partial light distributions being below a straight, horizontal light/dark cut-off and an overall light distribution of the lighting device resulting from superimposing the various partial light distributions, characterised in that the light modules of the lighting device are arranged side by side along an axis, the light modules being arranged and/or designed symmetrically with respect to a plane of symmetry extending perpendicularly to the axis, and in that the lighting device has an uneven number of light modules that is greater than one, the light modules of the lighting device being arranged side by side along an axis, and a central light module producing a partial light distribution, the dimensions of which are limited in relation to the overall light distribution and which has the highest maximum intensity of all the partial light distributions.
A method comprising: receiving, via network interface circuitry of one or more computing devices, a request from a mobile access point that is installed on a vehicle; determining, by processing circuitry of the one or more computing devices, characteristics of a captive portal to present in response to the request based on: a current location of the vehicle and mobile access point, a predetermined route of the vehicle, and characteristics of a user device on behalf of which the request was sent; and providing, by the processing circuitry via the network interface circuitry, the captive portal with the determined characteristics in response to the request. receiving, via network interface circuitry of one or more computing devices, a request from a mobile access point that is installed on a vehicle; determining, by processing circuitry of the one or more computing devices, characteristics of a captive portal to present in response to the request based on: a current location of the vehicle and mobile access point, a predetermined route of the vehicle, and characteristics of a user device on behalf of which the request was sent; and providing, by the processing circuitry via the network interface circuitry, the captive portal with the determined characteristics in response to the request.
A communications device capable of switching between a dual polarized mode of operation and a single polarized mode of operation comprising: a first antenna element polarized in a first direction; a second antenna element polarized in a second direction, said first and second directions being different by at least 45 degrees; a third antenna element polarized in the first direction, a first signal processing module coupled to said first antenna element; and an antenna switching module configured to couple said second and third antenna elements to a second signal processing module, said antenna switching module selectively passing signals between one of said second antenna element and said third antenna element and said second processing module at any given time as a function of channel quality estimates; wherein said first and second signal processing modules are configured to: i) recover data from first and second received signals having the same frequency but different polarizations and ii) generate first and second signals having the same frequency to be transmitted with different polarizations. a first antenna element polarized in a first direction; a second antenna element polarized in a second direction, said first and second directions being different by at least 45 degrees; a third antenna element polarized in the first direction, a first signal processing module coupled to said first antenna element; and an antenna switching module configured to couple said second and third antenna elements to a second signal processing module, said antenna switching module selectively passing signals between one of said second antenna element and said third antenna element and said second processing module at any given time as a function of channel quality estimates; wherein said first and second signal processing modules are configured to: i) recover data from first and second received signals having the same frequency but different polarizations and ii) generate first and second signals having the same frequency to be transmitted with different polarizations. i) recover data from first and second received signals having the same frequency but different polarizations and ii) generate first and second signals having the same frequency to be transmitted with different polarizations.
A method comprising: configuring multiple component carriers "CCs" with carrier aggregation for a user equipment "UE" to communicate with multiple serving cells in a mobile communication network; determining channel condition of the multiple serving cells over the corresponding multiple CCs; determining maximum output power for each CC based at least in part on the corresponding channel condition of each CC; and transmitting power headroom report "PHR" for each CC to a serving base station, wherein the PHR is calculated based on the determined maximum output power, characterized in that the maximum output power for each CC is selected as a first limit for a first serving cell having a first channel condition, and wherein the maximum output power is selected as a second limit for a second serving cell having a second channel condition, and wherein the first limit is higher than the second limit, and the first channel condition is better than the second channel condition. configuring multiple component carriers "CCs" with carrier aggregation for a user equipment "UE" to communicate with multiple serving cells in a mobile communication network; determining channel condition of the multiple serving cells over the corresponding multiple CCs; determining maximum output power for each CC based at least in part on the corresponding channel condition of each CC; and transmitting power headroom report "PHR" for each CC to a serving base station, wherein the PHR is calculated based on the determined maximum output power, characterized in that the maximum output power for each CC is selected as a first limit for a first serving cell having a first channel condition, and wherein the maximum output power is selected as a second limit for a second serving cell having a second channel condition, and wherein the first limit is higher than the second limit, and the first channel condition is better than the second channel condition.
At least an inhibitor of indoleamine-2,3-dioxygenase and an inhibitor of the PD-L1/PD-1 pathway for use in a method of treating cancer in a subject, in particular wherein the cancer is a chemotherapy or radio-resistant cancer, wherein the inhibitor of IDO is a compound of the following formula: or a pharmaceutically acceptable salt thereof, wherein: R 1 is NH 2 or CH 3, R 2 is Cl, Br, F, CF 3, CH 3, or CN, R 3 is H or F, R 4 is H or CH 3, and n is 1 or 2, wherein the inhibitor of the PD-L1/PD-1 pathway is selected from the group consisting of BMS-936559, MPDL3280A, BMS-936558, MK-3475, CT-011, and MEDI4736, and wherein the inhibitor or a pharmaceutically acceptable salt thereof is administered in an amount effective to treat cancer. wherein the inhibitor of IDO is a compound of the following formula: or a pharmaceutically acceptable salt thereof, wherein: R 1 is NH 2 or CH 3, R 2 is Cl, Br, F, CF 3, CH 3, or CN, R 3 is H or F, R 4 is H or CH 3, and n is 1 or 2, R 1 is NH 2 or CH 3, R 2 is Cl, Br, F, CF 3, CH 3, or CN, R 3 is H or F, R 4 is H or CH 3, and n is 1 or 2, wherein the inhibitor of the PD-L1/PD-1 pathway is selected from the group consisting of BMS-936559, MPDL3280A, BMS-936558, MK-3475, CT-011, and MEDI4736, and wherein the inhibitor or a pharmaceutically acceptable salt thereof is administered in an amount effective to treat cancer.
A waterborne coating composition comprising: (a) an aqueous emulsion polymer, said emulsion polymer comprising, as copolymerized units from 0.1% to 10% Phosphorous-acid monomer, based on the dry weight of said emulsion polymer; said emulsion polymer in an amount of from 8% to 30% by weight on a dry basis; (b) an aqueous dispersion of cement, said aqueous dispersion having a cement solids content of from 50% to 80% by weight, said cement selected from the group consisting of aluminous cement, sulfoaluminous cement, and mixtures thereof, said cement in an amount of from 10% to 30% by weight on a dry basis; and (c) solid inert filler in an amount of from 40% to 82% by weight on a dry basis; wherein said emulsion polymer/said cement ratio is from 0.66 to 1.5 on a dry/dry basis; and wherein the water/said cement ratio is from 0.6 to 2.0 on a dry cement basis. (a) an aqueous emulsion polymer, said emulsion polymer comprising, as copolymerized units from 0.1% to 10% Phosphorous-acid monomer, based on the dry weight of said emulsion polymer; said emulsion polymer in an amount of from 8% to 30% by weight on a dry basis; (b) an aqueous dispersion of cement, said aqueous dispersion having a cement solids content of from 50% to 80% by weight, said cement selected from the group consisting of aluminous cement, sulfoaluminous cement, and mixtures thereof, said cement in an amount of from 10% to 30% by weight on a dry basis; and (c) solid inert filler in an amount of from 40% to 82% by weight on a dry basis; wherein said emulsion polymer/said cement ratio is from 0.66 to 1.5 on a dry/dry basis; and wherein the water/said cement ratio is from 0.6 to 2.0 on a dry cement basis.
Method for producing a ceramic heat shield element, wherein initially a basic composite material (419, 421) is press-moulded or cast and the press-moulded or cast basic composite material (419, 421) is then sintered, characterised in that in order to set the thermal expansion coefficients of different material regions, when the basic composite material has been press-moulded or cast and prior to sintering, post-treating takes place of at least one material region which, after sintering, is to have a thermal expansion coefficient that has been altered relative to the rest of the basic composite material.
A method for precipitating calcium carbonate and xylan, comprising: - adding hardwood pulp, in which the specific surface area of the fibres has been increased, to a solution of calcium hydroxide in water, - allowing xylan to dissolve from the fibres in the solution of calcium hydroxide in water, and - bringing the aqueous solution of calcium hydroxide then in contact with carbon dioxide, for precipitating calcium carbonate and xylan. - adding hardwood pulp, in which the specific surface area of the fibres has been increased, to a solution of calcium hydroxide in water, - allowing xylan to dissolve from the fibres in the solution of calcium hydroxide in water, and - bringing the aqueous solution of calcium hydroxide then in contact with carbon dioxide, for precipitating calcium carbonate and xylan.
A lighting attachment comprising a casing having an outer wall and an inner wall disposed on an outer periphery and an inner periphery of an annular flange respectively, with the annular flange defining a base of the casing, and the inner wall having an inner surface configured for receiving a cylindrical hand-held magnifying lens or loupe; a flexible PCB disposed between the inner wall and the outer wall of the casing, and having a length which extends substantially around a periphery of the inner wall of the casing and a width which substantially equals to the height of the inner wall; a plurality of LEDs (31, 32, 33) mounted along a first longitudinal edge of the flexible PCB distal to the base of the casing and electrically connected to the flexible PCB; one or more rechargeable battery mounted on and electrically connected to the flexible PCB; a charging contact element and a control means both exposed on the outer wall of the casing and electrically connected to the flexible PCB; an outer casing provided to cover the casing; characterized in that: the inner wall of the casing has a lower height than the outer wall of the casing; and the lighting attachment also comprises a light guide securely mounted on a top end of the casing which is opposite to the base of the casing to diffuse light emitted from the LEDs (31, 32, 33); the light guide is annular in shape with its outer periphery abutting against an inner periphery of a top end of the outer wall of the casing and its inner periphery aligning with a top end of the inner wall of the casing. the inner wall of the casing has a lower height than the outer wall of the casing; and the lighting attachment also comprises a light guide securely mounted on a top end of the casing which is opposite to the base of the casing to diffuse light emitted from the LEDs (31, 32, 33); the light guide is annular in shape with its outer periphery abutting against an inner periphery of a top end of the outer wall of the casing and its inner periphery aligning with a top end of the inner wall of the casing.
An apparatus comprising: a closed loop guard ring (108, 510, 512) formed on an integrated circuit (100, 500) and magnetically coupled by a coupling factor to a first inductor (204, 504) formed on the integrated circuit; and the closed loop guard ring configured to reduce magnetic field coupling from the first inductor to a second inductor (208, 508) formed on the integrated circuit; characterized by further comprising a tunable capacitor (206, 518, 520) forming a portion of the closed loop guard ring. a closed loop guard ring (108, 510, 512) formed on an integrated circuit (100, 500) and magnetically coupled by a coupling factor to a first inductor (204, 504) formed on the integrated circuit; and the closed loop guard ring configured to reduce magnetic field coupling from the first inductor to a second inductor (208, 508) formed on the integrated circuit; characterized by further comprising a tunable capacitor (206, 518, 520) forming a portion of the closed loop guard ring.
A method of using an intrinsically safe field maintenance tool to diagnose a HART process communication loop that communicates according to the HART communication protocol, the method comprising: attempting to communicate with a HART device on the loop in a normal communication mode; observing whether a normal response is received, namely a response received from the HART device in response to the attempted normal communication; receiving an error in the normal response from the HART device or not receiving a normal response from the HART device; and characterised by: attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses. attempting to communicate with a HART device on the loop in a normal communication mode; observing whether a normal response is received, namely a response received from the HART device in response to the attempted normal communication; receiving an error in the normal response from the HART device or not receiving a normal response from the HART device; and characterised by: attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses. attempting to communicate with the HART device in an enhanced communication mode where a signal with a stronger voltage level relative to the normal communication mode is generated; observing whether an enhanced response is received, namely a response received from the HART device in response to the attempted enhanced communication; and generating diagnostic information based upon the number of observed normal responses, observed enhanced responses, and observed non-responses.
A method performed by a mobile station, the method comprising the steps of: receiving, by the mobile station, a command from an origination base station to the mobile station to instruct the mobile station when to tune to an alternate frequency; determining, by the mobile station, a time period during which the mobile station is to be tuned from an origination frequency to the alternate frequency based on the command; tuning, by the mobile station, from the origination frequency to the alternate frequency during the determined time period; storing, by the mobile station, data received on the alternate frequency while the mobile station is tuned to the alternate frequency; and searching, by the mobile station, while the mobile station is retuned to the origination frequency, for pilot signal offsets based on the stored data received on the alternate frequency. receiving, by the mobile station, a command from an origination base station to the mobile station to instruct the mobile station when to tune to an alternate frequency; determining, by the mobile station, a time period during which the mobile station is to be tuned from an origination frequency to the alternate frequency based on the command; tuning, by the mobile station, from the origination frequency to the alternate frequency during the determined time period; storing, by the mobile station, data received on the alternate frequency while the mobile station is tuned to the alternate frequency; and searching, by the mobile station, while the mobile station is retuned to the origination frequency, for pilot signal offsets based on the stored data received on the alternate frequency.
A door lock device for a vehicle, the door lock device comprising a latch that engages with a striker on a vehicle body side, that is pivotable in a door-closing direction, and that is pivotingly urged in a door-opening direction, a ratchet that is pivotable between an engagement position at which the ratchet engages with the latch engaged with the striker and an engagement release position at which engagement with the latch is released and that is pivotingly urged toward a side on which the ratchet engages with the latch, a lock release member that is operable between an operating position at which the ratchet is operated toward the engagement release position and a standby position at which pivoting of the ratchet toward the engagement position is allowed and that is urged toward the standby position, an actuator, and a drive member that is operatively connected to the actuator and that, when the actuator is operated, engages with the lock release member to thus drive the lock release member from the standby position to the operating position, the door lock device being capable of releasing a locked state of a door by operation of the actuator and also being capable of releasing the locked state of the door by a manual operation, and the door lock device comprising an engagement release mechanism that releases engagement of the drive member and the lock release member in response to a manual operation for releasing the locked state of the door being carried out while the drive member is engaged with the lock release member characterized in that the engagement release mechanism is adapted for releasing the engagement of the drive member with the lock release member both in response to manual operation using a mechanical key and in response to manual operation of an inner handle of the door for releasing the locked state of the door to be carried out in a state in which the drive member is engaged with the lock release member.
A contactless power transmission circuit for transmitting a power via a magnetic field from a power transmitting coil (Lt) to a power receiving coil (Lr), comprising a driving circuit for supplying an alternating voltage to the power transmitting coil (Lt), and a rectifier circuit for rectifying a voltage generated in the power receiving coil (Lr) with a magnetic field generated by the power transmitting coil (Lt), characterized in that the contactless power transmission circuit further comprises: a transmission current detecting circuit for detecting a transmission current flowing through the power transmitting coil (Lt), an output voltage detecting circuit for detecting an output voltage of the rectifier circuit, and a control circuit for controlling a period of the alternating voltage output from the driving circuit, wherein the control circuit is set to calculate a first control command value and a second control command value which are control command values for the period of the alternating voltage, and use a smaller one of either of the first control command value and the second control command value as a control command value for the period of the alternating voltage, the first control command value is a control command value based on a difference between a detected value (Vo) of the output voltage detected by the output voltage detecting circuit and a target value (Vtgt) of the output voltage, and the second control command value is a control command value calculated based on a difference between a detected value (It) of the transmission current detected by the transmission current detecting circuit and a target value (Imax) of the transmission current. a transmission current detecting circuit for detecting a transmission current flowing through the power transmitting coil (Lt), an output voltage detecting circuit for detecting an output voltage of the rectifier circuit, and a control circuit for controlling a period of the alternating voltage output from the driving circuit, wherein the control circuit is set to calculate a first control command value and a second control command value which are control command values for the period of the alternating voltage, and use a smaller one of either of the first control command value and the second control command value as a control command value for the period of the alternating voltage, the first control command value is a control command value based on a difference between a detected value (Vo) of the output voltage detected by the output voltage detecting circuit and a target value (Vtgt) of the output voltage, and the second control command value is a control command value calculated based on a difference between a detected value (It) of the transmission current detected by the transmission current detecting circuit and a target value (Imax) of the transmission current.