mhurhangee/patent-ind-claim-en huggingface dataset:
A rubber composition comprising a rubber component comprising an isoprene-based rubber, a butadiene rubber, and a styrene-butadiene rubber, and a filler comprising particulate carbon black and silica, wherein an average primary particle size of the particulate carbon black is 19 nm or less, wherein, when a content (part by mass) of the particulate carbon black based on 100 parts by mass of the rubber component is defined as A and a content (part by mass) of the silica based on 100 parts by mass of the rubber component is defined as B, A and B satisfy the inequality described below B/ A + B < 0 .50 wherein the average primary particle size of carbon black is calculated by measuring 400 or more primary particles observed in the field of view with a transmission electron microscope and calculating an arithmetic average of them. a rubber component comprising an isoprene-based rubber, a butadiene rubber, and a styrene-butadiene rubber, and a filler comprising particulate carbon black and silica, wherein an average primary particle size of the particulate carbon black is 19 nm or less, wherein, when a content (part by mass) of the particulate carbon black based on 100 parts by mass of the rubber component is defined as A and a content (part by mass) of the silica based on 100 parts by mass of the rubber component is defined as B, A and B satisfy the inequality described below B/ A + B < 0 .50 wherein the average primary particle size of carbon black is calculated by measuring 400 or more primary particles observed in the field of view with a transmission electron microscope and calculating an arithmetic average of them.
A light source, comprising: a socket connection capable of being connected to a source of electricity; a base connected to the socket connection; a heat conductive material affixed to the base, wherein the heat conductive material is substantially transparent or translucent; and an LED element comprising a positive electrical connection , a negative electrical connection and a plurality of LEDs completely embedded in and secured within the heat conductive material which is in a solid state; wherein the plurality of LEDs is in direct contact with the heat conductive material, the plurality of LEDs is connected to each other through connection lines to form an upside-down U shape configuration of LEDs, and each of the plurality of LEDs does not include the use of a heat sink structure, and does not mount to a mounting structure, characterized in that the light source further comprises an enclosure enclosing the heat conductive material , and in that the base has a portion which is embedded in the heat conductive material . a socket connection capable of being connected to a source of electricity; a base connected to the socket connection; a heat conductive material affixed to the base, wherein the heat conductive material is substantially transparent or translucent; and an LED element comprising a positive electrical connection , a negative electrical connection and a plurality of LEDs completely embedded in and secured within the heat conductive material which is in a solid state; wherein the plurality of LEDs is in direct contact with the heat conductive material, the plurality of LEDs is connected to each other through connection lines to form an upside-down U shape configuration of LEDs, and each of the plurality of LEDs does not include the use of a heat sink structure, and does not mount to a mounting structure, characterized in that the light source further comprises an enclosure enclosing the heat conductive material , and in that the base has a portion which is embedded in the heat conductive material .
Set of a tool cartridge and of a further tool cartridge for accommodating a processing tool, wherein the tool cartridge and the further tool cartridge respectively comprise a cartridge base body and a tool holder for detachably holding the processing tool, and the tool cartridge comprises at least one first coupling device configured such that it can be coupled in a form-fit and detachable manner to a second coupling device of a further tool cartridge , the second coupling device being complementary to the first coupling device characterized in that the first coupling device is formed hook-shaped and the second coupling device is configured as a hook receiver.
A magnetic field sensor for detecting motion of an object , comprising: a magnet configured to generate a magnetic field and having a first surface adjacent to the object and a second surface distal from the object , wherein the first surface has a centerline axis substantially parallel to and disposed on the first surface, wherein the centerline axis is substantially diagonal with respect to a motion axis , which is substantially parallel to and disposed on the first surface , wherein features of the object pass parallel to the motion axis when the object is in motion; and a semiconductor substrate disposed between the magnet and the object, the semiconductor substrate supporting a plurality of spaced magnetoresistance elements disposed along a single sensing element axis substantially parallel to the centerline axis of the magnet and configured to generate a respective plurality of magnetic field signals in response to the motion of the object with respect to the magnetic field, wherein a line substantially perpendicular to the first surface of the magnet intersects both the centerline axis and the sensing element axis , and wherein each of the plurality of magnetoresistance elements has a maximum response axis orthogonal to the centerline axis. a magnet configured to generate a magnetic field and having a first surface adjacent to the object and a second surface distal from the object , wherein the first surface has a centerline axis substantially parallel to and disposed on the first surface, wherein the centerline axis is substantially diagonal with respect to a motion axis , which is substantially parallel to and disposed on the first surface , wherein features of the object pass parallel to the motion axis when the object is in motion; and a semiconductor substrate disposed between the magnet and the object, the semiconductor substrate supporting a plurality of spaced magnetoresistance elements disposed along a single sensing element axis substantially parallel to the centerline axis of the magnet and configured to generate a respective plurality of magnetic field signals in response to the motion of the object with respect to the magnetic field, wherein a line substantially perpendicular to the first surface of the magnet intersects both the centerline axis and the sensing element axis , and wherein each of the plurality of magnetoresistance elements has a maximum response axis orthogonal to the centerline axis.
An aerosol generating device comprising: an accommodating portion configured to accommodate an aerosol generating article including a cut tobacco portion ; a heater configured to heat the aerosol generating article accommodated in the accommodating portion ; and an ejector that is detachably coupled to the accommodating portion , and includes: a cavity into which the aerosol generating article is insertable; and a through hole , wherein the through hole is formed in a bottom surface of the ejector and the bottom surface faces one end portion of the aerosol generating article when the aerosol generating article is inserted into the cavity , and wherein the through hole includes an expanding portion having a diameter that increases along a direction from one side of the bottom surface toward the other side of the bottom surface , characterized in that the ejector comprises at least one hole portion through which the cavity and the accommodating portion communicate and the cut tobacco portion can be exposed. an accommodating portion configured to accommodate an aerosol generating article including a cut tobacco portion ; a heater configured to heat the aerosol generating article accommodated in the accommodating portion ; and an ejector that is detachably coupled to the accommodating portion , and includes: a cavity into which the aerosol generating article is insertable; and a through hole , a cavity into which the aerosol generating article is insertable; and a through hole , wherein the through hole is formed in a bottom surface of the ejector and the bottom surface faces one end portion of the aerosol generating article when the aerosol generating article is inserted into the cavity , and wherein the through hole includes an expanding portion having a diameter that increases along a direction from one side of the bottom surface toward the other side of the bottom surface , characterized in that the ejector comprises at least one hole portion through which the cavity and the accommodating portion communicate and the cut tobacco portion can be exposed.
A composition comprising a mixture which comprises or, alternatively, consists of: (a) terpinen-4-ol in aqueous media, (b) PPG-26 buteth-26 (b2), PEG-40 hydrogenated castor oil (b3) and trideceth-9 (b4), and (c) a surfactant selected from: cocamidopropyl betaine, lauryl ether sulfate, lauryl ether sulfosuccinate, and mixtures thereof. (a) terpinen-4-ol in aqueous media, (b) PPG-26 buteth-26 (b2), PEG-40 hydrogenated castor oil (b3) and trideceth-9 (b4), and (c) a surfactant selected from: cocamidopropyl betaine, lauryl ether sulfate, lauryl ether sulfosuccinate, and mixtures thereof.
A dialysis circuit priming device comprising: two butterfly shaped needles each arranged with two wing parts ; two needle connecting parts each arranged with the two butterfly shaped needles respectively, each of the two needle connecting parts including a weak part ; and a flow path for connecting the two needle connecting parts , characterized in that each of the two needle connecting parts includes a cylindrical part and an outer surface having a flat plate part, and the two wing parts are configured to be held with one hand and bent in a direction substantially perpendicular with respect to the two wing parts , such that by holding one of the needle connecting parts with the other hand and performing relative rotation to tear the weak part the one of the needle connecting part is separated from one of the two butterfly shaped needles . two butterfly shaped needles each arranged with two wing parts ; two needle connecting parts each arranged with the two butterfly shaped needles respectively, each of the two needle connecting parts including a weak part ; and a flow path for connecting the two needle connecting parts , characterized in that each of the two needle connecting parts includes a cylindrical part and an outer surface having a flat plate part, and the two wing parts are configured to be held with one hand and bent in a direction substantially perpendicular with respect to the two wing parts , such that by holding one of the needle connecting parts with the other hand and performing relative rotation to tear the weak part the one of the needle connecting part is separated from one of the two butterfly shaped needles .
A computing device comprising: a processor ; and a storage device comprising instructions, which when executed by the processor, configure the processor to: receive data captured by at least one capture device , the data depicting a first object in an environment; track, using a tracker a real -world position and orientation of the first object in a tracking volume using the captured data and wherein the tracker is configured to track a real-world position of a second object in the environment; and compute and output feedback about performance of the tracker , where the feedback encourages a user to move the first object for improved tracking of the object by the tracker and wherein the feedback is computed by applying an offset or a non-linear mapping to pose parameters of the first object and the second object. a processor ; and a storage device comprising instructions, which when executed by the processor, configure the processor to: receive data captured by at least one capture device , the data depicting a first object in an environment; track, using a tracker a real -world position and orientation of the first object in a tracking volume using the captured data and wherein the tracker is configured to track a real-world position of a second object in the environment; and compute and output feedback about performance of the tracker , where the feedback encourages a user to move the first object for improved tracking of the object by the tracker and wherein the feedback is computed by applying an offset or a non-linear mapping to pose parameters of the first object and the second object. receive data captured by at least one capture device , the data depicting a first object in an environment; track, using a tracker a real -world position and orientation of the first object in a tracking volume using the captured data and wherein the tracker is configured to track a real-world position of a second object in the environment; and compute and output feedback about performance of the tracker , where the feedback encourages a user to move the first object for improved tracking of the object by the tracker and wherein the feedback is computed by applying an offset or a non-linear mapping to pose parameters of the first object and the second object.
Hydraulic damper comprising a damper piston fixed to a main rod , sliding in an inner tube , moving during compression in an axial direction called the front (AV), and a compensation chamber surrounding the inner tube , receiving the fluid displaced by the inlet of the main rod in the damper, the damper piston supporting towards the front an end stop rod comprising at its end a stop piston entering a stop tube having outlet bores fluid chamber , characterized in that the compensation chamber comprises a plug sliding axially around the inner tube with a braking system, forming a float moving according to the level of fluid in this compensation chamber , which acts according to its displacement on adjustable bores of the stop tube .
A process for preparing (±)-2-exo-(2-Methylbenzyloxy)-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane of the formula (I) any one of its individual enantiomers or any non-racemic mixture thereof comprising the steps of (a) reacting (±)-2-exo-hydroxy-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane of the formula (II) any one of its individual enantiomers or any non-racemic mixture thereof with elemental sodium to form a sodium salt of the formula (III) any one of its individual enantiomers or any non-racemic mixture thereof, and (b) reacting the sodium salt of the formula (III), any of its individual enantiomers or any non-racemic mixture thereof with a 2-Methylbenzyl compound of the formula (IV) wherein X is a leaving group, wherein the steps (a) and (b) are conducted in the presence of at least one substantially anhydrous inert organic solvent selected from hydrocarbons wherein the substantially anhydrous inert organic solvent has a boiling point of equal to or more than the melting point of sodium (97.7 °C), the substantially anhydrous inert organic solvent has a water content lower than 0.1% by weight based on the total weight of the substantially anhydrous inert organic solvent and the temperature used in step (a) is from 98 to 200°C. (a) reacting (±)-2-exo-hydroxy-1-methyl-4-isopropyl-7-oxabicyclo[2.2.1]heptane of the formula (II) any one of its individual enantiomers or any non-racemic mixture thereof with elemental sodium to form a sodium salt of the formula (III) any one of its individual enantiomers or any non-racemic mixture thereof, and (b) reacting the sodium salt of the formula (III), any of its individual enantiomers or any non-racemic mixture thereof with a 2-Methylbenzyl compound of the formula (IV) wherein X is a leaving group,
An electronic device comprising: a display ; a memory including information on a number of duty cycles included in one refresh period for emitting light by pixels of the display corresponding to each of a plurality of refresh rates of the display , wherein a duty cycle is a cycle of light emission comprising a light emitting period and a non-light emitting period; and a processor , wherein the processor is configured to control the electronic device to: perform an operation of the display with a first number of duty cycles based on the display operating at a first refresh rate; and perform an operation of the display with a second number of duty cycles based on the display operating at a second refresh rate, wherein the first number of duty cycles is less than the second number of duty cycles based on the first refresh rate being higher than the second refresh rate, wherein one refresh period further includes a first porch period based on an operation being performed at the first refresh rate, or includes a second porch period different from the first porch period based on an operation being performed at the second refresh rate, wherein a porch period is a non-light emitting period within the refresh period not within a duty cycle, and wherein a length of one duty cycle corresponding to the first refresh rate is the same as a length of one duty cycle corresponding to the second refresh rate. a display ; a memory including information on a number of duty cycles included in one refresh period for emitting light by pixels of the display corresponding to each of a plurality of refresh rates of the display , wherein a duty cycle is a cycle of light emission comprising a light emitting period and a non-light emitting period; and a processor , wherein the processor is configured to control the electronic device to: perform an operation of the display with a first number of duty cycles based on the display operating at a first refresh rate; and perform an operation of the display with a second number of duty cycles based on the display operating at a second refresh rate, perform an operation of the display with a first number of duty cycles based on the display operating at a first refresh rate; and perform an operation of the display with a second number of duty cycles based on the display operating at a second refresh rate, wherein the first number of duty cycles is less than the second number of duty cycles based on the first refresh rate being higher than the second refresh rate, wherein one refresh period further includes a first porch period based on an operation being performed at the first refresh rate, or includes a second porch period different from the first porch period based on an operation being performed at the second refresh rate, wherein a porch period is a non-light emitting period within the refresh period not within a duty cycle, and wherein a length of one duty cycle corresponding to the first refresh rate is the same as a length of one duty cycle corresponding to the second refresh rate.
A method implemented by a host computing device including at least one field-programmable gate array, FPGA, and an FPGA virtualization manager configured to virtualize the at least one FPGA , the method comprising: receiving a request from a virtual machine to load an FPGA program on the host device to program the at least one FPGA to provide hardware-implemented functionality; obtaining, in response to receiving the request, an FPGA program that is configured to program the at least one FPGA of the host computing device to provide the requested hardware-implemented functionality as a hardware-implementation of a respective program or of a respective device; determining whether the FPGA program is trusted to program the at least one FPGA by verifying a digital signature associated with the FPGA program based on at least one of a list of trusted host providers or a list of trusted program providers maintained by the host device to make trust determinations; responsive to a determination that the FPGA program is trusted, configuring virtual machines of other host devices to request an FPGA program to program the at least one FPGA of the host device to enable the virtual machines to migrate across different host devices based on the availability of the at least one FPGA to be programmed; further comprising loading the FPGA program to program the at least one FPGA to provide the functionality ; and generating a virtual device to expose the programmed at least one FPGA as the virtual device to provide the requested functionality to a plurality of virtual machines by relaying data between the virtual machines and at least one programmed FPGA . receiving a request from a virtual machine to load an FPGA program on the host device to program the at least one FPGA to provide hardware-implemented functionality; obtaining, in response to receiving the request, an FPGA program that is configured to program the at least one FPGA of the host computing device to provide the requested hardware-implemented functionality as a hardware-implementation of a respective program or of a respective device; determining whether the FPGA program is trusted to program the at least one FPGA by verifying a digital signature associated with the FPGA program based on at least one of a list of trusted host providers or a list of trusted program providers maintained by the host device to make trust determinations; responsive to a determination that the FPGA program is trusted, configuring virtual machines of other host devices to request an FPGA program to program the at least one FPGA of the host device to enable the virtual machines to migrate across different host devices based on the availability of the at least one FPGA to be programmed; further comprising loading the FPGA program to program the at least one FPGA to provide the functionality ; and generating a virtual device to expose the programmed at least one FPGA as the virtual device to provide the requested functionality to a plurality of virtual machines by relaying data between the virtual machines and at least one programmed FPGA .
A system for real time monitoring of catheter aspiration, comprising: a pressure sensor configured for placement in fluid communication with a lumen which at least partially includes an aspiration lumen (18, 1018, 504, 538, 1227, 1259, 81", 1406, 110, 330) of a catheter, the aspiration lumen (18, 1018, 504, 538, 1227, 1259, 81", 1406, 110, 330) configured to couple to a vacuum source (6, 522, 1212, 1262, 146 77", 1436) ; a measurement device coupled to the pressure sensor and configured for measuring deviations in fluid pressure; and a communication device coupled to the measurement device and configured to generate a continuous signal which is proportional to measured fluid pressure, the continuous signal provided by a non-visual source. a pressure sensor configured for placement in fluid communication with a lumen which at least partially includes an aspiration lumen (18, 1018, 504, 538, 1227, 1259, 81", 1406, 110, 330) of a catheter, the aspiration lumen (18, 1018, 504, 538, 1227, 1259, 81", 1406, 110, 330) configured to couple to a vacuum source (6, 522, 1212, 1262, 146 77", 1436) ; a measurement device coupled to the pressure sensor and configured for measuring deviations in fluid pressure; and a communication device coupled to the measurement device and configured to generate a continuous signal which is proportional to measured fluid pressure, the continuous signal provided by a non-visual source.