mhurhangee/ep-ind-claims huggingface dataset:
A razor apparatus comprising: a razor cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) having an aperture; a plurality of razor blades (110; 180; 200; 390; 450; 570; 860; 890; 1180; 1460, 1780, 3930, 3630) mounted longitudinally in the aperture and positioned in the aperture parallel to one another and at an angle relative to a longitudinal axis of the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) and thereby forming angled gaps; the plurality of razor blades (110; 180; 200; 390; 450; 570; 860; 890; 1180; 1460, 1780, 3930, 3630) and the aperture defining a blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel inlet and a channel outlet; the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel cross-sectional area; a scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) attached to the cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) and defining a scoop channel; the scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) has a rectangular shape and being formed by at least three walls of a rectangle; the scoop channel including an entry mouth having a mouth cross-sectional area; characterized in that the mouth cross-sectional area is at least 1.2 times that of the channel cross sectional area; and the scoop channel being configured to direct water flowing in through the mouth into the channel inlet, wherein the scoop channel includes at least one partition (1510, 1650, 1890, 1960, 3000) which divides the scoop channel into a plurality of scoop channels. the blade channel (210; 330; 440; 1020; 1190; 1270; 1400; 1460; 1600; 1780; 2040; 3350; 3620, 3650; 3720; 3830) having a channel cross-sectional area; a scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) attached to the cartridge (100; 150, 160; 280; 870; 1180; 2020; 3200; 3280; 3390; 3580; 3740) and defining a scoop channel; the scoop (290; 300; 310; 800; 1150, 1160, 1170; 1240, 1290, 1310; 1360; 1440; 1470; 1520; 1525; 1580; 1660; 1730; 1880; 1950; 3170; 3210; 3590; 3680; 3700,3780A, 3780B) has a rectangular shape and being formed by at least three walls of a rectangle; the scoop channel including an entry mouth having a mouth cross-sectional area; characterized in that the mouth cross-sectional area is at least 1.2 times that of the channel cross sectional area; and the scoop channel being configured to direct water flowing in through the mouth into the channel inlet, wherein the scoop channel includes at least one partition (1510, 1650, 1890, 1960, 3000) which divides the scoop channel into a plurality of scoop channels.
A tuneable buffer circuit for use in a clock tree, comprising: a voltage sensor for sensing a supply voltage; a set of at least two buffers (40,42) in parallel, each buffer having a grounding circuit for implementing a selectable grounding function; a bypass switch in parallel with the at least two buffers; a switching arrangement for switching between different modes of operation in dependence on the sensed supply voltage, wherein the modes comprise: a normal mode of one buffer connected into circuit; a first low voltage mode of the at least two buffers (40,42) connected into circuit in parallel without grounding function; a second low voltage mode of the at least two buffers (40,42) connected into circuit in parallel with grounding function; and a bypass mode of the buffers bypassed by the bypass switch. a voltage sensor for sensing a supply voltage; a set of at least two buffers (40,42) in parallel, each buffer having a grounding circuit for implementing a selectable grounding function; a bypass switch in parallel with the at least two buffers; a switching arrangement for switching between different modes of operation in dependence on the sensed supply voltage, wherein the modes comprise: a normal mode of one buffer connected into circuit; a first low voltage mode of the at least two buffers (40,42) connected into circuit in parallel without grounding function; a second low voltage mode of the at least two buffers (40,42) connected into circuit in parallel with grounding function; and a bypass mode of the buffers bypassed by the bypass switch. a normal mode of one buffer connected into circuit; a first low voltage mode of the at least two buffers (40,42) connected into circuit in parallel without grounding function; a second low voltage mode of the at least two buffers (40,42) connected into circuit in parallel with grounding function; and a bypass mode of the buffers bypassed by the bypass switch.
A polyorganosiloxane represented by the structural formula: wherein: R 1 to R 14 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 1 -C 20 alkoxyl, C 2 -C 20 alkenyl, C 3 -C 20 cycloalkyl, C 7 -C 22 aralkyl, and (meth)acryloxy, a is an integer of from 0 to 1000, b is an integer of from 0 to 1000, I is an integer of from 0 to 1000, m is an integer of from 1 to 1000, n is an integer of from 1 to 1500, A 1 and A 2 are each independently represented by the formula: (R 15) c (R 16) d (R 17) e R 18 wherein: R 15 is C 1 -C 20 alkylene, R 16 is C 6 -C 21 arylene, R 17 is C 1 -C 20 alkylene, R 18 is (meth)acryloxy, c is an integer of from 0 to 10, d is an integer of from 0 to 10, and e is an integer of from 0 to 10. R 1 to R 14 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 1 -C 20 alkoxyl, C 2 -C 20 alkenyl, C 3 -C 20 cycloalkyl, C 7 -C 22 aralkyl, and (meth)acryloxy, a is an integer of from 0 to 1000, b is an integer of from 0 to 1000, I is an integer of from 0 to 1000, m is an integer of from 1 to 1000, n is an integer of from 1 to 1500, A 1 and A 2 are each independently represented by the formula: (R 15) c (R 16) d (R 17) e R 18 wherein: R 15 is C 1 -C 20 alkylene, R 16 is C 6 -C 21 arylene, R 17 is C 1 -C 20 alkylene, R 18 is (meth)acryloxy, c is an integer of from 0 to 10, d is an integer of from 0 to 10, and e is an integer of from 0 to 10. R 15 is C 1 -C 20 alkylene, R 16 is C 6 -C 21 arylene, R 17 is C 1 -C 20 alkylene, R 18 is (meth)acryloxy, c is an integer of from 0 to 10, d is an integer of from 0 to 10, and e is an integer of from 0 to 10.
A computer-implemented method for identifying prominent landmarks in a geographic area, the method comprising: accessing, by the one or more computing devices, geographic imagery data comprising a plurality of images captured from one or more cameras, where the plurality of images have been captured from a plurality of perspectives at or near ground level; generating, by the one or more computing devices, a point cloud based at least in part on the geographic imagery data, the point cloud comprising a plurality of data points, each of the plurality of data points associated with a tracked feature in the geographic imagery data, wherein the point cloud is generated by the one or more computing devices using a structure-from-motion technique; identifying, by the one or more computing devices, a subset of data points in the point cloud, each data point in the subset located at least a threshold distance away from one or more camera perspectives associated with the geographic imagery data; and matching, by the one or more computing devices, one or more data points in the subset of data points with a landmark, wherein matching one or more data points in the subset of data points with the landmark comprises querying a database of landmarks; identifying the matched landmark as a prominent landmark in the geographical area. accessing, by the one or more computing devices, geographic imagery data comprising a plurality of images captured from one or more cameras, where the plurality of images have been captured from a plurality of perspectives at or near ground level; generating, by the one or more computing devices, a point cloud based at least in part on the geographic imagery data, the point cloud comprising a plurality of data points, each of the plurality of data points associated with a tracked feature in the geographic imagery data, wherein the point cloud is generated by the one or more computing devices using a structure-from-motion technique; identifying, by the one or more computing devices, a subset of data points in the point cloud, each data point in the subset located at least a threshold distance away from one or more camera perspectives associated with the geographic imagery data; and matching, by the one or more computing devices, one or more data points in the subset of data points with a landmark, wherein matching one or more data points in the subset of data points with the landmark comprises querying a database of landmarks; identifying the matched landmark as a prominent landmark in the geographical area.
A laser irradiation apparatus using a robot, comprising: a scanner for scanning an object to collect a raw data; a vision controlling unit for constituting a three-dimensional image of the object on the basis of the raw data, and setting a region of interest on the surface of the object in the three-dimensional image; a motion controlling unit for setting a guide path passing through the region of interest; and a robot arm, having an end-effector, for irradiating a laser on the surface of the object corresponding to the guide path, wherein the robot arm comprises: a first base part; a second base part being coupled to be rotatable on the first base part; a first link being coupled so that it can swing on the second base part; a second link being coupled so that it can swing on the first link; an auxiliary link having one end coupled to the second base part and the other end coupled to the second link; a laser unit, arranged on the first base part, for generating the laser; a first motor part, arranged on the first base part, for rotating the second base part; a second motor part, arranged on the second base part, for swinging the first link; and a third motor part, arranged on the second base part, for swinging the second link through the auxiliary link. a scanner for scanning an object to collect a raw data; a vision controlling unit for constituting a three-dimensional image of the object on the basis of the raw data, and setting a region of interest on the surface of the object in the three-dimensional image; a motion controlling unit for setting a guide path passing through the region of interest; and a robot arm, having an end-effector, for irradiating a laser on the surface of the object corresponding to the guide path, wherein the robot arm comprises: a first base part; a second base part being coupled to be rotatable on the first base part; a first link being coupled so that it can swing on the second base part; a second link being coupled so that it can swing on the first link; an auxiliary link having one end coupled to the second base part and the other end coupled to the second link; a laser unit, arranged on the first base part, for generating the laser; a first motor part, arranged on the first base part, for rotating the second base part; a second motor part, arranged on the second base part, for swinging the first link; and a third motor part, arranged on the second base part, for swinging the second link through the auxiliary link. a first base part; a second base part being coupled to be rotatable on the first base part; a first link being coupled so that it can swing on the second base part; a second link being coupled so that it can swing on the first link; an auxiliary link having one end coupled to the second base part and the other end coupled to the second link; a laser unit, arranged on the first base part, for generating the laser; a first motor part, arranged on the first base part, for rotating the second base part; a second motor part, arranged on the second base part, for swinging the first link; and a third motor part, arranged on the second base part, for swinging the second link through the auxiliary link.
A method of switching between execution modes in a processor, the method comprising: detecting a first call or return instruction which causes a change in flow to an instruction at a target address when the processor is operating in a first execution mode; analyzing both alignment bits of the target address, wherein the alignment bits are the two least significant bits of the target address and are indicative of alignment to a 32-bit boundary; and when the processor is operating in the first execution mode: determining to switch operation of the processor from the first execution mode to the second execution mode when at least one alignment bit has a non-zero value; and when the processor is operating in the second execution mode: determining to switch operation of the processor from the second execution mode to the first execution mode when both alignment bits have a zero value, wherein: in the first execution mode the alignment of instructions is restrained to 32-bit boundaries in a corresponding byte-addressable memory address space; and in the second execution mode the instructions are unaligned. detecting a first call or return instruction which causes a change in flow to an instruction at a target address when the processor is operating in a first execution mode; analyzing both alignment bits of the target address, wherein the alignment bits are the two least significant bits of the target address and are indicative of alignment to a 32-bit boundary; and when the processor is operating in the first execution mode: determining to switch operation of the processor from the first execution mode to the second execution mode when at least one alignment bit has a non-zero value; and determining to switch operation of the processor from the first execution mode to the second execution mode when at least one alignment bit has a non-zero value; and when the processor is operating in the second execution mode: determining to switch operation of the processor from the second execution mode to the first execution mode when both alignment bits have a zero value, wherein: in the first execution mode the alignment of instructions is restrained to 32-bit boundaries in a corresponding byte-addressable memory address space; and in the second execution mode the instructions are unaligned. determining to switch operation of the processor from the second execution mode to the first execution mode when both alignment bits have a zero value, wherein: in the first execution mode the alignment of instructions is restrained to 32-bit boundaries in a corresponding byte-addressable memory address space; and in the second execution mode the instructions are unaligned. in the first execution mode the alignment of instructions is restrained to 32-bit boundaries in a corresponding byte-addressable memory address space; and in the second execution mode the instructions are unaligned.
Method for water-free descaling a metallurgical product continuously processed through a hot rolling mill installation, comprising successively a reheating furnace or tunnel furnace, a roughing mill and a finishing mill, said method comprising a descaling step using a metal shot blasting device, characterised in that the metal shot blasting device is integrated inside the hot rolling mill and in that the metallurgical product is shot blasted at a temperature greater than 1000°C.
An otologic composition in aqueous solution comprising a mixture in aqueous solution comprising, or alternatively, consisting of an antibiotic, which is levofloxacin or a salt thereof or a hydrate thereof or a hemihydrate thereof and a corticosteroid, which is dexamethasone sodium phosphate selected from dexamethasone sodium phosphate ester or dexamethasone disodium phosphate ester dissolved in the aqueous solution, and optionally, one or more pharmaceutical grade additives and/or excipients; wherein said composition is devoid of surfactant and suspending substances; wherein said composition has a pH value comprised from 5.5 to 8.0; said composition being for use in a method for the treatment of otological bacterial infections.
Strength member ply for elastomeric articles, in particular for a carcass ply of pneumatic vehicle tyres, wherein within the ply the strength members are arranged substantially parallel to one another and are embedded in elastomeric material, wherein the strength member ply comprises at least one hybrid cord as a strength member which is constructed from at least one yarn of aramid and at least one yarn of rayon, wherein all yarns of the hybrid cord (20 are end-twisted with one another, characterized in that the yarn of aramid is a yarn of meta-aramid and that the yarn of meta-aramid has a breaking elongation of at least 20%.
Method for performing open-loop or closed-loop control of vehicle systems in which closed-loop control is carried out on driving state variables (v1, a1) of a vehicle, wherein a load-free rolling state of the vehicle can be set and an anticipated time period (Delta-t) of the load-free rolling state is determined, wherein a switched state of a secondary assembly is set as a function of the determined anticipated time period (Delta-t), and wherein the determined anticipated time period (Delta-t) of the load-free rolling state is compared with a predefined threshold value (Delta-ts) and as a function of the comparison it is decided whether the switched state of the secondary assembly is changed or not, characterized in that when it is detected that the anticipated time period (Delta-t) reaches or exceeds the threshold value (Delta-ts), the secondary assembly is uncoupled from its operative connection to a drive engine of the vehicle and/or a coupling is cancelled.
Method for analysis of GvHD or HvGD in a sample of a patient, wherein the patient is a recipient of an allogeneic transplant, characterized by the determination of the concentration of Semaphorin 5A in a sample of the patient by detecting the mRNA encoding Semaphorin 5A or by detecting the reaction of an antibody that is specific for Semaphorin 5A protein, wherein the concentration of Semaphorin 5A is normalized to a signal determined for a constitutively expressed constituent of the sample and wherein the determined concentration of Semaphorin 5A is compared to the concentration of Semaphorin 5A determined in a healthy human, wherein an elevated concentration of Semaphorin 5A in the sample of the patient is indicative of GvHD or HvGD.
A bottle for supplying a fluid to an animal in a cage, which bottle comprises walls, a bottom, a cap opposite the bottom, and an aperture in the cap, wherein: the bottle is constructed from a polymer; the walls are a thickness of about 0.254 mm to about 2.032 mm; and the bottle is in a bottle receptacle in a cage cover, which receptacle comprises a sidewall, the exterior of which sidewall is a distance less than or equal to about 12.7 mm from a wall of the base of a cage when the cage cover is attached to the base. the bottle is constructed from a polymer; the walls are a thickness of about 0.254 mm to about 2.032 mm; and the bottle is in a bottle receptacle in a cage cover, which receptacle comprises a sidewall, the exterior of which sidewall is a distance less than or equal to about 12.7 mm from a wall of the base of a cage when the cage cover is attached to the base.
An apparatus for shunting leakage current in an electrical power distribution system, the system utilizing a solid state switching device to perform power switching functions for an output load, including a shunt impedance component connected to an output of the solid state switching device and a shunt switching element configured to connect the shunt impedance component to ground when the solid state switching device is turned off, and disconnect the shunt impedance component from ground when the solid state switching device is turned on, characterized in that: the shunt impedance component is a potential thermal coefficient device, the PTC device being configured to have a nominal resistance value suitable for limiting the leakage current flowing to the output load to no more than 0.5 mAmps when the solid state switching device is turned off, and the PTC device is further configured to have a switching temperature suitable for causing the PTC device to trip when fault-induced voltage is applied to the output load while the shunt switching element is turned on. the shunt impedance component is a potential thermal coefficient device, the PTC device being configured to have a nominal resistance value suitable for limiting the leakage current flowing to the output load to no more than 0.5 mAmps when the solid state switching device is turned off, and the PTC device is further configured to have a switching temperature suitable for causing the PTC device to trip when fault-induced voltage is applied to the output load while the shunt switching element is turned on.
A fault tolerant interface, comprising: a sensor configured to provide a signal corresponding to an environmental parameter, wherein the sensor operates in one of a normal state, or an alarm or fault state, wherein the signal corresponds to one of the normal state, or the alarm state or the fault state, wherein a value associated with the signal is predetermined; and a safety control coupled to the sensor via a single wire, the safety control configured to transmit serial data to the sensor and receive serial data from the sensor via the single wire in the normal state, wherein the safety control is further configured to detect the alarm state or the fault state based on the signal prior to decoding the serial data; wherein the safety control is configured to determine a data bit associated with a time interval between changes in a voltage level detected on the single wire, the time interval constituting an interval between a rising edge and a falling edge of the voltage level. a sensor configured to provide a signal corresponding to an environmental parameter, wherein the sensor operates in one of a normal state, or an alarm or fault state, wherein the signal corresponds to one of the normal state, or the alarm state or the fault state, wherein a value associated with the signal is predetermined; and a safety control coupled to the sensor via a single wire, the safety control configured to transmit serial data to the sensor and receive serial data from the sensor via the single wire in the normal state, wherein the safety control is further configured to detect the alarm state or the fault state based on the signal prior to decoding the serial data; wherein the safety control is configured to determine a data bit associated with a time interval between changes in a voltage level detected on the single wire, the time interval constituting an interval between a rising edge and a falling edge of the voltage level.