mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula I wherein R 1 is -C alkyl, -NH 2, -NHC NH 2, NHC C alkyl, -NHC alkyl, -NHC H,-NHC NHC alkyl, or -N(C alkyl) 2; Q is CHR 2, NC CH 3, NCH 2 C NH 2, NH, or O; R 2 is H, -OH, or -NH 2; R 3 is -H, -OH, -CN, -NH 2, -CONH 2, -CO 2 H, -CO 2 C alkyl, -CH 2 OH, -CH 2 NH 2, -CH 2 CN, -NHC alkyl, or -CONHC alkyl; R 4 is -Cl, -C alkyl, -F, -CN, -C NH 2,, or -H; wherein said -C alkyl is optionally substituted with up to six fluorine atoms; R 5 is -C alkyl, wherein said -C alkyl is optionally substituted with -CN, -OH, -OCH 3, - OCF 3, or up to six fluorine atoms; R 6 is -H, -F, -Cl, -OCD 3, -CN, -C alkyl, or -OC alkyl, wherein said -C alkyl and said OC alkyl are optionally substituted with up to three fluorine atoms; A 1 is -C alkyl, -(CH 2) m C cycloalkyl, wherein said -(CH 2) m C cycloalkyl is optionally substituted with two fluorine atoms, -CF 3, -CH 2 CF 3, or -OH, and wherein said - C alkyl is optionally substituted with -SCF 3, -OCH 2 CF 3, cyclopropyl, and up to six fluorine atoms; m is 0 or 1; A 2 is H; or A 1 and A 2 are taken together with their attached nitrogen to form R a is -OCHF 2, -CH 2 CF 3, -CF 3, or F; R b is H or F; and pharmaceutically acceptable salts thereof. R 1 is -C alkyl, -NH 2, -NHC NH 2, NHC C alkyl, -NHC alkyl, -NHC H,-NHC NHC alkyl, or -N(C alkyl) 2; Q is CHR 2, NC CH 3, NCH 2 C NH 2, NH, or O; R 2 is H, -OH, or -NH 2; R 3 is -H, -OH, -CN, -NH 2, -CONH 2, -CO 2 H, -CO 2 C alkyl, -CH 2 OH, -CH 2 NH 2, -CH 2 CN, -NHC alkyl, or -CONHC alkyl; R 4 is -Cl, -C alkyl, -F, -CN, -C NH 2,, or -H; wherein said -C alkyl is optionally substituted with up to six fluorine atoms; R 5 is -C alkyl, wherein said -C alkyl is optionally substituted with -CN, -OH, -OCH 3, - OCF 3, or up to six fluorine atoms; R 6 is -H, -F, -Cl, -OCD 3, -CN, -C alkyl, or -OC alkyl, wherein said -C alkyl and said OC alkyl are optionally substituted with up to three fluorine atoms; A 1 is -C alkyl, -(CH 2) m C cycloalkyl, wherein said -(CH 2) m C cycloalkyl is optionally substituted with two fluorine atoms, -CF 3, -CH 2 CF 3, or -OH, and wherein said - C alkyl is optionally substituted with -SCF 3, -OCH 2 CF 3, cyclopropyl, and up to six fluorine atoms; m is 0 or 1; A 2 is H; or A 1 and A 2 are taken together with their attached nitrogen to form R a is -OCHF 2, -CH 2 CF 3, -CF 3, or F; R b is H or F;
A silicon photomultiplier array comprising: a plurality of microcells each configured to provide a pulse output in response to an incident radiation, each microcell including circuitry configured to enable and disable the pulse output; a row counter connected to a predefined row among the plurality of microcells, and configured to count a latch signal output of each microcell of the predefined row; a pixel controller connected to the row counter, the pixel controller configured to provide a signal to a control logic circuit of each of the plurality of microcells; and the row counter configured to provide a dark count high indication signal to the pixel controller; each of the plurality of microcells including a cell disable switch and a self-test circuit; and wherein the pulse output is disabled when the cell disable switch is in a first state. a plurality of microcells each configured to provide a pulse output in response to an incident radiation, each microcell including circuitry configured to enable and disable the pulse output; a row counter connected to a predefined row among the plurality of microcells, and configured to count a latch signal output of each microcell of the predefined row; a pixel controller connected to the row counter, the pixel controller configured to provide a signal to a control logic circuit of each of the plurality of microcells; and the row counter configured to provide a dark count high indication signal to the pixel controller; each of the plurality of microcells including a cell disable switch and a self-test circuit; and wherein the pulse output is disabled when the cell disable switch is in a first state.
A computer-implemented method comprising: receiving streaming data from one or more sensors; applying an aggregation operation to the streaming data to generate aggregated streaming data; applying a uniformity operation to the aggregated streaming data to generate a uniform signal; storing the uniform signal in a batched columnar representation in a memory; accessing, from the batched columnar representation stored in the memory, a columnar array including a plurality of field values; storing a portion of the plurality of the field values in a circular buffer in accordance with a data window, the data window associated with a digital signal processing, DSP, operation; and applying the DSP operation to the portion of the plurality of the field values stored in the circular buffer to generate a DSP output; wherein the streaming data includes a first functional payload (310, 312) associated with a first time interval and a second functional payload (310, 312) associated with a second time interval, and wherein the computer-implemented method further comprises: evaluating the first functional payload (310, 312) at a first time point to generate a first materialized value; and evaluating the second functional payload (310, 312) at a second time point to generate a second materialized value, wherein the uniform signal includes the first materialized value and the second materialized value. receiving streaming data from one or more sensors; applying an aggregation operation to the streaming data to generate aggregated streaming data; applying a uniformity operation to the aggregated streaming data to generate a uniform signal; storing the uniform signal in a batched columnar representation in a memory; accessing, from the batched columnar representation stored in the memory, a columnar array including a plurality of field values; storing a portion of the plurality of the field values in a circular buffer in accordance with a data window, the data window associated with a digital signal processing, DSP, operation; and applying the DSP operation to the portion of the plurality of the field values stored in the circular buffer to generate a DSP output; wherein the streaming data includes a first functional payload (310, 312) associated with a first time interval and a second functional payload (310, 312) associated with a second time interval, and wherein the computer-implemented method further comprises: evaluating the first functional payload (310, 312) at a first time point to generate a first materialized value; and evaluating the second functional payload (310, 312) at a second time point to generate a second materialized value, wherein the uniform signal includes the first materialized value and the second materialized value. evaluating the first functional payload (310, 312) at a first time point to generate a first materialized value; and evaluating the second functional payload (310, 312) at a second time point to generate a second materialized value, wherein the uniform signal includes the first materialized value and the second materialized value.
An automated luminaire comprising: a luminaire head comprising: a light engine module comprising a light source module configured to emit a light beam and an effects module configured to receive the light beam and to produce a modified light beam, the light engine module configured to move along an optical axis of the luminaire head; and a lens module optically coupled to the light engine module and configured to receive the modified light beam and to project the modified light beam, the lens module configured to move along the optical axis; a control system configured to move the light engine module and the lens module along the optical axis to position a center of mass of the luminaire head coincident with an axis of rotation of the luminaire head; and wherein the light engine module and the lens module are configured for independent motion along the optical axis. a luminaire head comprising: a light engine module comprising a light source module configured to emit a light beam and an effects module configured to receive the light beam and to produce a modified light beam, the light engine module configured to move along an optical axis of the luminaire head; and a lens module optically coupled to the light engine module and configured to receive the modified light beam and to project the modified light beam, the lens module configured to move along the optical axis; a light engine module comprising a light source module configured to emit a light beam and an effects module configured to receive the light beam and to produce a modified light beam, the light engine module configured to move along an optical axis of the luminaire head; and a lens module optically coupled to the light engine module and configured to receive the modified light beam and to project the modified light beam, the lens module configured to move along the optical axis; a control system configured to move the light engine module and the lens module along the optical axis to position a center of mass of the luminaire head coincident with an axis of rotation of the luminaire head; and wherein the light engine module and the lens module are configured for independent motion along the optical axis.
A method for resource exclusion, the method being applied to a terminal device and comprising: obtaining a first candidate resource set by performing a first resource exclusion operation on a first resource set in a resource selection window, the first resource set comprising available resources in a resource pool used by the terminal device in the resource selection window, and the first resource exclusion operation being an operation of performing resource exclusion according to a non-sensing slot in a resource sensing window, the non-sensing slot representing a slot in which the terminal device performs no sensing; and determining a second resource set on condition that a first percentage is smaller than X%, the first percentage being a percentage of number of resources in the first candidate resource set and number M total of resources in the first resource set, characterised in that: determining the second resource set comprises: obtaining a second candidate resource set by performing a second resource exclusion operation on the first resource set in the resource selection window, wherein the second resource exclusion operation is an operation of performing resource exclusion according to a physical sidelink control channel, PSCCH, sensed in the resource sensing window. obtaining a first candidate resource set by performing a first resource exclusion operation on a first resource set in a resource selection window, the first resource set comprising available resources in a resource pool used by the terminal device in the resource selection window, and the first resource exclusion operation being an operation of performing resource exclusion according to a non-sensing slot in a resource sensing window, the non-sensing slot representing a slot in which the terminal device performs no sensing; and determining a second resource set on condition that a first percentage is smaller than X%, the first percentage being a percentage of number of resources in the first candidate resource set and number M total of resources in the first resource set, characterised in that: determining the second resource set comprises: obtaining a second candidate resource set by performing a second resource exclusion operation on the first resource set in the resource selection window, wherein the second resource exclusion operation is an operation of performing resource exclusion according to a physical sidelink control channel, PSCCH, sensed in the resource sensing window.
A support body for supporting a body fluid collection sheet with a body fluid collection body (32, 33) for collecting a body fluid, and an adhesive sheet for bringing the body fluid collection body into contact with the skin for collecting a body fluid, the support body comprising: a first sheet separated from the body fluid collection sheet and having an adhesive surface for adhering the body fluid collection sheet; and a second sheet to be overlaid on the adhesive surface, wherein the support body configured to support the body fluid collection sheet when the body fluid collection sheet is separated from the skin, wherein the adhesive force of the adhesive surface of the first sheet is stronger than the adhesive force of the adhesive sheet. a first sheet separated from the body fluid collection sheet and having an adhesive surface for adhering the body fluid collection sheet; and a second sheet to be overlaid on the adhesive surface, wherein the support body configured to support the body fluid collection sheet when the body fluid collection sheet is separated from the skin, wherein the adhesive force of the adhesive surface of the first sheet is stronger than the adhesive force of the adhesive sheet.
A method comprising: receiving data comprising one or more attributes pertaining to a network status of one or more notification recipients, determining one or more rules for specifying routing of notification messages to the one or more notification recipients based on the one or more attributes storing of one or more tags in association with the one or more notification recipients based on the one or more rules; and monitoring the data comprising the one or more attributes pertaining to a relevant status of the one or more notification recipients and updating tags accordingly to changes in the one or more attributes. receiving data comprising one or more attributes pertaining to a network status of one or more notification recipients, determining one or more rules for specifying routing of notification messages to the one or more notification recipients based on the one or more attributes storing of one or more tags in association with the one or more notification recipients based on the one or more rules; and monitoring the data comprising the one or more attributes pertaining to a relevant status of the one or more notification recipients and updating tags accordingly to changes in the one or more attributes.
A vehicle comprising a ladder frame, a side guard (3, 3A, 3B, 3C) and battery pack unit (1, 1A, 1B, 1C) disposed in said vehicle, the vehicle battery pack unit (1, 1A, 1B, 1C) comprising: a battery pack (800, 800C) including a housing (500, 500C) and a power storage module accommodated in the housing (500, 500C); a bracket (4, 4A, 4C) attached to the ladder frame and supporting the power storage module between the ladder frame and the side guard (3, 3A, 3B, 3C); and a shock absorbing member (900, 900B, 900C) disposed beside the power storage module, characterized in that the shock absorbing member (900, 900B, 900C) is attached to a side surface of the housing (500, 500C), wherein the side guard is disposed at a lower portion of a side surface of the vehicle and fixed to the ladder frame and the shock absorbing member is connected to the side guard. a battery pack (800, 800C) including a housing (500, 500C) and a power storage module accommodated in the housing (500, 500C); a bracket (4, 4A, 4C) attached to the ladder frame and supporting the power storage module between the ladder frame and the side guard (3, 3A, 3B, 3C); and a shock absorbing member (900, 900B, 900C) disposed beside the power storage module, characterized in that the shock absorbing member (900, 900B, 900C) is attached to a side surface of the housing (500, 500C), wherein the side guard is disposed at a lower portion of a side surface of the vehicle and fixed to the ladder frame and the shock absorbing member is connected to the side guard.
An actuator system for moving a moveable surface, the system comprising: a power drive unit to provide a command to move the moveable surface; a main drive shaft operably connected at a first end to the power drive unit, the second end of the main drive shaft being arranged to connect, in use, to the moveable surface, the main drive shaft transmitting the command from the power drive unit to the moveable surface in the form of rotation of the main drive shaft; a plurality of actuators (2', 3', 4', n') along the main driveshaft between the first end and the second end of the main drive shaft, via which the command is transmitted to the moveable surface; the actuator system further comprising a secondary drive shaft having a first end connectable to the power drive unit via a failure control device and a second end connected to the second end of the main drive shaft via a gear arrangement; the failure control device comprising means for identifying a failure between the first end and the second end of the main drive shaft and, in response thereto, means for causing the secondary drive shaft to be connected to the power drive unit such that the command is transmitted to the moveable surface via the secondary drive shaft as rotation of the secondary drive shaft. a power drive unit to provide a command to move the moveable surface; a main drive shaft operably connected at a first end to the power drive unit, the second end of the main drive shaft being arranged to connect, in use, to the moveable surface, the main drive shaft transmitting the command from the power drive unit to the moveable surface in the form of rotation of the main drive shaft; a plurality of actuators (2', 3', 4', n') along the main driveshaft between the first end and the second end of the main drive shaft, via which the command is transmitted to the moveable surface; the actuator system further comprising a secondary drive shaft having a first end connectable to the power drive unit via a failure control device and a second end connected to the second end of the main drive shaft via a gear arrangement; the failure control device comprising means for identifying a failure between the first end and the second end of the main drive shaft and, in response thereto, means for causing the secondary drive shaft to be connected to the power drive unit such that the command is transmitted to the moveable surface via the secondary drive shaft as rotation of the secondary drive shaft.
A cavity resonator, wherein the cavity resonator comprises a cover, a resonant column, and a cavity; the cover is mounted at an opening of a top portion of the cavity, the resonant column is disposed at a bottom portion of the cavity, and a top portion of the resonant column faces towards the cover; and a material of at least one of the cover, the resonant column, and the cavity is a plastic metal material that does not bounce back and restore after deformation, and such that a resonant frequency is adjusted through deformation of the plastic metal material, wherein the material of the cover is the plastic metal material, and characterized in that the cover is disposed with a groove, and the cover comprises a pull-tab. the cover is mounted at an opening of a top portion of the cavity, the resonant column is disposed at a bottom portion of the cavity, and a top portion of the resonant column faces towards the cover; and a material of at least one of the cover, the resonant column, and the cavity is a plastic metal material that does not bounce back and restore after deformation, and such that a resonant frequency is adjusted through deformation of the plastic metal material, wherein the material of the cover is the plastic metal material, and characterized in that the cover is disposed with a groove, and the cover comprises a pull-tab.
A dishwasher, comprising a heat exchanger for recovering thermal energy, - wherein the heat exchanger comprises at least a first fluid duct and a second fluid duct and said fluid ducts (18, 19) are shaped in a spiral manner, - wherein the first fluid duct and the second fluid duct are separated from each other by means of at least one partition wall such that thermal energy is transferred from a fluid within the first fluid duct to a fluid within the adjacent second fluid duct over the at least one partition wall, characterized in that the at least one partition wall is shaped in a spiral manner. - wherein the heat exchanger comprises at least a first fluid duct and a second fluid duct and said fluid ducts (18, 19) are shaped in a spiral manner, - wherein the first fluid duct and the second fluid duct are separated from each other by means of at least one partition wall such that thermal energy is transferred from a fluid within the first fluid duct to a fluid within the adjacent second fluid duct over the at least one partition wall,
Method for obtaining sulfurous nitrogen fertilizer, characterized in that calcium nitrate is converted in a mixing apparatus with sulfuric acid and ammonia at approximate boiling temperature by forming a gypsum containing suspension of anhydrous gypsum anhydrite, and that the fertilizer is obtained by granulating the resulting gypsum containing suspension.
Lighting device able to be immersed in the water of a swimming pool, comprising: - a support on which a lens is fastened, said support and said lens delimiting a hollow chamber in which light-emitting diodes are arranged, - a heat-conducting plate including a front face on which the light-emitting diodes are laid out and a back face, characterized in that: - the plate is arranged on the lens so that the light-emitting diodes are situated in the hollow chamber and all or part of its back face is situated on the outside of said chamber so as to be in contact with the water of the swimming pool, - the light-emitting diodes are laid out on the plate so as to emit a luminous flux in a direction opposite to that of the lens, - a reflecting means (18,18',18") is laid out in the hollow chamber, facing the light-emitting diodes, so as to rediffuse, in the direction of the lens, the luminous flux emitted by said diodes. - a support on which a lens is fastened, said support and said lens delimiting a hollow chamber in which light-emitting diodes are arranged, - a heat-conducting plate including a front face on which the light-emitting diodes are laid out and a back face, - the plate is arranged on the lens so that the light-emitting diodes are situated in the hollow chamber and all or part of its back face is situated on the outside of said chamber so as to be in contact with the water of the swimming pool, - the light-emitting diodes are laid out on the plate so as to emit a luminous flux in a direction opposite to that of the lens, - a reflecting means (18,18',18") is laid out in the hollow chamber, facing the light-emitting diodes, so as to rediffuse, in the direction of the lens, the luminous flux emitted by said diodes.
A rotor blade of a wind turbine, having a rotor blade length, a rotor blade depth extending over the rotor blade length, a rotor blade thickness (Th) extending over the rotor blade length, and a thickness of a trailing edge of the rotor blade extending over the rotor blade length, wherein, in a region of the rotor blade length, the rotor blade simultaneously has a splitter plate that has a predetermined length and a Gurney flap that has a predetermined height, wherein a ratio of the height of the Gurney flap to the length of the splitter plate at a particular position in the direction of the rotor blade length is selected in such a manner that a threshold value that decreases with a decreasing relative profile thickness, which is defined as a ratio of the rotor blade thickness (Th) to the rotor blade depth, is not reached. wherein, in a region of the rotor blade length, the rotor blade simultaneously has a splitter plate that has a predetermined length and a Gurney flap that has a predetermined height, wherein a ratio of the height of the Gurney flap to the length of the splitter plate at a particular position in the direction of the rotor blade length is selected in such a manner that a threshold value that decreases with a decreasing relative profile thickness, which is defined as a ratio of the rotor blade thickness (Th) to the rotor blade depth, is not reached.