mhurhangee/ep-ind-claims huggingface dataset:
A method of making a plurality of composite parts, the method comprising: covering a mold tool for a composite part with a parting film, the parting film comprising a polymer sheet and a pressure sensitive adhesive coating the polymer sheet, the parting film being positioned so that the polymer sheet is between the mold tool and the pressure sensitive adhesive; laying up at least one layer of pre-preg on the parting film covering the mold tool to form a layed-up composite part, the pre-preg comprising an adhesive, wherein the pressure sensitive adhesive adheres to the at least one layer of pre-preg while laying up occurs; and removing the layed-up composite part from the parting film, the pressure sensitive adhesive releasing the composite part during the removing thereof, wherein the laying up and the removing the layed-up composite part are repeated a plurality of times to form the plurality of composite parts without removing the parting film from the mold tool. covering a mold tool for a composite part with a parting film, the parting film comprising a polymer sheet and a pressure sensitive adhesive coating the polymer sheet, the parting film being positioned so that the polymer sheet is between the mold tool and the pressure sensitive adhesive; laying up at least one layer of pre-preg on the parting film covering the mold tool to form a layed-up composite part, the pre-preg comprising an adhesive, wherein the pressure sensitive adhesive adheres to the at least one layer of pre-preg while laying up occurs; and removing the layed-up composite part from the parting film, the pressure sensitive adhesive releasing the composite part during the removing thereof, wherein the laying up and the removing the layed-up composite part are repeated a plurality of times to form the plurality of composite parts without removing the parting film from the mold tool.
A system for manipulating tissue, comprising: an intracavity device configured to be advanced through an access site into a body cavity of a patient; an external magnetic positioning device configured to magnetically couple to the intracavity device through a body cavity wall, the external magnetic positioning device comprising a force sensor configured to measure force data; a controller comprising a processor and memory, the controller configured to receive the force data to control a position of the external magnetic positioning device; and a display coupled to the controller, wherein the controller is configured to generate a graphical user interface on the display configured to receive a control signal from an operator to control movement of the external magnetic positioning device and thereby control movement of the intracavity device within the body cavity. an intracavity device configured to be advanced through an access site into a body cavity of a patient; an external magnetic positioning device configured to magnetically couple to the intracavity device through a body cavity wall, the external magnetic positioning device comprising a force sensor configured to measure force data; a controller comprising a processor and memory, the controller configured to receive the force data to control a position of the external magnetic positioning device; and a display coupled to the controller, wherein the controller is configured to generate a graphical user interface on the display configured to receive a control signal from an operator to control movement of the external magnetic positioning device and thereby control movement of the intracavity device within the body cavity.
A fishing rod comprising: a rod body extending in a front-and-back direction along a central axis; a fitting having a mounting part, the mounting part being mounted on an outer peripheral surface of the rod body at a first position determined in a circumferential direction around the central axis; and a fiber-reinforced resin layer surrounding the rod body so as to cover the mounting part, wherein the fiber-reinforced resin layer has: a first portion covering the rod body along an entire length thereof in a circumferential direction around the central axis; and a second portion extending in an axial direction backward from an axially back end of the first portion and extending in the circumferential direction from the first position less than 180° clockwise and also less than 180° anti-clockwise. a rod body extending in a front-and-back direction along a central axis; a fitting having a mounting part, the mounting part being mounted on an outer peripheral surface of the rod body at a first position determined in a circumferential direction around the central axis; and a fiber-reinforced resin layer surrounding the rod body so as to cover the mounting part, wherein the fiber-reinforced resin layer has: a first portion covering the rod body along an entire length thereof in a circumferential direction around the central axis; and a second portion extending in an axial direction backward from an axially back end of the first portion and extending in the circumferential direction from the first position less than 180° clockwise and also less than 180° anti-clockwise. a first portion covering the rod body along an entire length thereof in a circumferential direction around the central axis; and a second portion extending in an axial direction backward from an axially back end of the first portion and extending in the circumferential direction from the first position less than 180° clockwise and also less than 180° anti-clockwise.
Electronic interface for reading a capacitive sensor that includes one input capacitor or several input capacitors whose capacitance depends from a value that must be measured, the interface including at least one driver (32, 32a-k) generating an electric excitation voltage that varies between a first voltage level (V low) and a second voltage level (V high) connected to one electrode of the input capacitor, characterized by a charge-sense amplifier connected to another electrode of the input capacitor and arranged to output a signal ( V CSA, 358) proportional to the charge transferred to the input of the charge-sense amplifier, sampling means (501, 502, 503, 504) operationally arranged to hold four samples ( V sh 1, V sh 2, V sh 3, V sh 4) of the output of the charge-sense amplifier, a timing circuit determining the instants of said four samples and the excitation voltage generated by said driver (32, 32a-k) such that two of said four samples ( V sh 2, V sh 3) are generated when the electric excitation voltage is at said first voltage level ( V low), while the two other samples ( V sh 1, V sh 4) are generated when the electric excitation voltage is at said second voltage level ( V high).
A valve for restricting flow through an opening of a control valve in a vehicle engine, the valve having a body comprising a tubular shell having a central axis that extends between the open ends (68, 70) of the shell, the shell comprising a base and a blocking element having an interior surface exposed to an internal space of the shell and an exterior surface exposed to an exterior space surrounding the shell, the blocking element being connected to the base by a deflectable connector such that the blocking element can be deflected towards the central axis in response to fluid pressure acting on the exterior surface, and away from the central axis in response to fluid pressure acting on the interior surface so as to selectively block the opening when the valve is in use, the connector comprising a pair of spring arms (88, 90) that extend away from the blocking element in a circumferential direction and, wherein the spring arms (88, 90) diverge moving away from the blocking element towards opposite ends of the tubular shell.
A process for preparation of the compound of formula, which comprises: Step 1) reacting -(-)-Ethyl 4-cyano-3-hydroxy butyrate of formula with tertiarybutyldimethylsilyl chloride in presence of solvent selected from the group consisting of dichloromethane, dichloroethane and chloroform and imidazole at a temperature in the range of 20 °C to 35 °C for the period of 18 hours to 22 hours to obtain -(-)-Ethyl 4-cyano-3-(tertiarybutyldimethylsilyloxy) butyrate of formula; Step 2) hydrolysing the -(-)-Ethyl 4-cyano-3-(tert-butyldimethylsilyloxy) butyrate of formula in presence of solvent selected from the group consisting of methanol, dichloromethane, dichloroethane and chloroform and a base selected from the group consisting of potassium carbonate, sodium bicarbonate, sodium hydride and sodium hydroxide at a temperature in the range of 8 °C to 18 °C for the period of 2 hours to 4 hours to obtain -4-cyano-3-(tert-butyldimethylsilyloxy) butyric acid of formula; Step 3) esterifying -4-cyano-3-(tert-butyldimethylsilyloxy) butyric acid of formula by using catalyst selected from the group consisting of 4-dimethylaminopyridine, tert-butyl ethyl fumarate and dicyclohexylcarbodiimide and di-tert-butyl dicarbonate in presence of solvent selected from the group consisting of t-butanol, dichloromethane, dichloroethane and chloroform and a base selected from the group consisting of potassium carbonate, sodium bicarbonate, sodium hydride and sodium hydroxide at a temperature in the range of 20 °C to 35 °C for the period of 2 hours to 5 hours to obtain -tertiary butyl 4-cyano-3-(tert-butyldimethylsilyloxy) butyrate of formula. Step 1) reacting -(-)-Ethyl 4-cyano-3-hydroxy butyrate of formula with tertiarybutyldimethylsilyl chloride in presence of solvent selected from the group consisting of dichloromethane, dichloroethane and chloroform and imidazole at a temperature in the range of 20 °C to 35 °C for the period of 18 hours to 22 hours to obtain -(-)-Ethyl 4-cyano-3-(tertiarybutyldimethylsilyloxy) butyrate of formula; Step 2) hydrolysing the -(-)-Ethyl 4-cyano-3-(tert-butyldimethylsilyloxy) butyrate of formula in presence of solvent selected from the group consisting of methanol, dichloromethane, dichloroethane and chloroform and a base selected from the group consisting of potassium carbonate, sodium bicarbonate, sodium hydride and sodium hydroxide at a temperature in the range of 8 °C to 18 °C for the period of 2 hours to 4 hours to obtain -4-cyano-3-(tert-butyldimethylsilyloxy) butyric acid of formula; Step 3) esterifying -4-cyano-3-(tert-butyldimethylsilyloxy) butyric acid of formula by using catalyst selected from the group consisting of 4-dimethylaminopyridine, tert-butyl ethyl fumarate and dicyclohexylcarbodiimide and di-tert-butyl dicarbonate in presence of solvent selected from the group consisting of t-butanol, dichloromethane, dichloroethane and chloroform and a base selected from the group consisting of potassium carbonate, sodium bicarbonate, sodium hydride and sodium hydroxide at a temperature in the range of 20 °C to 35 °C for the period of 2 hours to 5 hours to obtain -tertiary butyl 4-cyano-3-(tert-butyldimethylsilyloxy) butyrate of formula.
A bed sheet at least 228.6 cm (90 Inch) wide comprising: a first fabric; and a second fabric; wherein the first and second fabrics are discrete and made of performance fabric; wherein the first and second fabrics are joined to form the bed sheet; characterized in that the first and second fabrics are circular knitted at a gauge of at least 17 gauges. a first fabric; and a second fabric; wherein the first and second fabrics are discrete and made of performance fabric; wherein the first and second fabrics are joined to form the bed sheet; characterized in that the first and second fabrics are circular knitted at a gauge of at least 17 gauges.
A method of processing exceptions in an exception-driven computing-based system, the method comprising: executing, using a processor of the system, a main program which causes the system to operate first in an initialisation mode, the processor detecting that initialisation of the system is complete and then, in response to the processor detecting that initialisation of the system is complete, operating thereafter in an exception-driven mode (402, 412); detecting, using the processor, that an exception has occurred (404, 414); in response to detecting that the exception has occurred, executing, using the processor, one of one or more sets of exception handling instructions using a main register set (406, 416); and wherein when the system is operating in the initialisation mode the set of exception handling instructions that are executed invoke a first exception handler that causes the processor to save the main register set prior to processing the exception and restore the main register set after processing the exception, and when the system is operating in the exception-driven mode the set of exception handling instructions that are executed invoke a second exception handler that does not cause the processor to save and restore the main register set. executing, using a processor of the system, a main program which causes the system to operate first in an initialisation mode, the processor detecting that initialisation of the system is complete and then, in response to the processor detecting that initialisation of the system is complete, operating thereafter in an exception-driven mode (402, 412); detecting, using the processor, that an exception has occurred (404, 414); in response to detecting that the exception has occurred, executing, using the processor, one of one or more sets of exception handling instructions using a main register set (406, 416); and wherein when the system is operating in the initialisation mode the set of exception handling instructions that are executed invoke a first exception handler that causes the processor to save the main register set prior to processing the exception and restore the main register set after processing the exception, and when the system is operating in the exception-driven mode the set of exception handling instructions that are executed invoke a second exception handler that does not cause the processor to save and restore the main register set.
A compound represented by formula: (wherein Rf represents a C 1 -C 8 perfluoroalkyl group; R represents a C 1 -C 12 alkyl group, a C 1 -C 12 alkoxy group, a C 2 -C 13 alkoxycarbonyl group, a C 1 -C 12 fluorinated alkyl group, a nitro group, a cyano group or a halogen atom; and m represents an integer of 0 to 3).
A control method for a continuously variable valve lift mechanism, comprising: controlling a continuously variable valve lift mechanism to enter a limp mode when the continuously variable valve lift mechanism fails and disables an automatic valve lift changing function; driving and forcing the continuously variable valve lift mechanism to move to a maximum lift position; and triggering a self locking function to self lock the continuously variable valve lift mechanism at the maximum lift position when the continuously variable valve lift mechanism reaches the maximum lift position, wherein the continuously variable valve lift mechanism is configured such that at the maximum lift position, a resultant force of a roller assembly of the continuously variable valve lift mechanism on an eccentric wheel has a direction passing through an axis of an eccentric shaft, so as to self lock the continuously variable valve lift mechanism at the maximum lift position when the continuously variable valve lift mechanism reaches the maximum lift position in the limp mode. controlling a continuously variable valve lift mechanism to enter a limp mode when the continuously variable valve lift mechanism fails and disables an automatic valve lift changing function; driving and forcing the continuously variable valve lift mechanism to move to a maximum lift position; and triggering a self locking function to self lock the continuously variable valve lift mechanism at the maximum lift position when the continuously variable valve lift mechanism reaches the maximum lift position, wherein the continuously variable valve lift mechanism is configured such that at the maximum lift position, a resultant force of a roller assembly of the continuously variable valve lift mechanism on an eccentric wheel has a direction passing through an axis of an eccentric shaft, so as to self lock the continuously variable valve lift mechanism at the maximum lift position when the continuously variable valve lift mechanism reaches the maximum lift position in the limp mode.
System for producing an injection silicate gel solution for injection into a soil with - a permeabledevice through which a mixing water can flow for pretreatment, - an admixing device for metered admixing of a curing agent, in particular a hydrogen carbonate powder, - a feeding device for feeding liquid silica sol into the pretreated mixing water, and - a mixing device for mixing and homogenizing the fed components with the pretreated mixing water for forming a silicate gel solution characterized in that the permeable device is a filtering device and has at least one filter element for ion exchange, in particular a resin filter, and the filter element comprises an ion exchange resin, in particular a cation exchange resin and/or an anion exchange resin, wherein a feeding device for feeding liquid sodium silicate into the pretreated mixing water is provided. - a permeabledevice through which a mixing water can flow for pretreatment, - an admixing device for metered admixing of a curing agent, in particular a hydrogen carbonate powder, - a feeding device for feeding liquid silica sol into the pretreated mixing water, and - a mixing device for mixing and homogenizing the fed components with the pretreated mixing water for forming a silicate gel solution the permeable device is a filtering device and has at least one filter element for ion exchange, in particular a resin filter, and the filter element comprises an ion exchange resin, in particular a cation exchange resin and/or an anion exchange resin, wherein a feeding device for feeding liquid sodium silicate into the pretreated mixing water is provided.
A system comprising: a compressor having a compression path between a suction port located to receive a working fluid and a discharge port located to discharge the working fluid; and means for controlling a flow of lubricant, characterised in that the means are responsive to changes in at least one pressure parameter, said parameter comprising a difference between a discharge pressure and the pressure at the location of introduction of the lubricant in the compressor; and in that said means comprises a one-way pressure-actuated valve (130, 160). a compressor having a compression path between a suction port located to receive a working fluid and a discharge port located to discharge the working fluid; and means for controlling a flow of lubricant, characterised in that the means are responsive to changes in at least one pressure parameter, said parameter comprising a difference between a discharge pressure and the pressure at the location of introduction of the lubricant in the compressor; and in that said means comprises a one-way pressure-actuated valve (130, 160).
A method of producing a sintered composite body comprising cubic boron nitride particles dispersed in a cemented carbide matrix characterised by sintering a mixture comprising cubic boron nitride particles and a cemented carbide powder at a sintering temperature above 1200°C and below 1350 °C at a pressure equal to atmospheric pressure or less wherein the mixture comprises an amount of cubic boron nitride particles of 4 weight-% or less and wherein the pressure of the sintering is less than 200 mbar.
A light emitting diode comprising: a package having a metal base consisting of a pair of thin metal sheets (2a, 2b) that constitute positive and negative electrodes being joined via a resin insulator for electrical isolation from each other and a side wall bonded to the circumference of said metal base on one side thereof thereby forming a hollow housing, an LED chip housed in said hollow housing and, a light transmitting resin that fills the hollow housing so as to seal the LED chip, wherein said light transmitting resin is formed continuously from said hollow housing over the top of said side wall and the top surface of said light transmitting resin is flat and substantially parallel to said metal base and the side face on the circumference of the light transmitting resin is substantially flush with the circumferential side face of the package, and wherein an inner wall of the hollow housing is tapered so that an opening area increases from a bottom surface on which the LED chip is mounted toward an upper surface of the side wall, wherein said light transmitting resin includes a filler and a fluorescent material which absorbs at least a part of the light emitted by said LED chip and emits light of a different wavelength, wherein a difference between a median particle size of the filler and a median particle size of the fluorescent material is less than 20 %, and wherein a median diameter of said fluorescent material is set within a range from 15 to 50 μm. a package having a metal base consisting of a pair of thin metal sheets (2a, 2b) that constitute positive and negative electrodes being joined via a resin insulator for electrical isolation from each other and a side wall bonded to the circumference of said metal base on one side thereof thereby forming a hollow housing, an LED chip housed in said hollow housing and, a light transmitting resin that fills the hollow housing so as to seal the LED chip, wherein said light transmitting resin is formed continuously from said hollow housing over the top of said side wall and the top surface of said light transmitting resin is flat and substantially parallel to said metal base and the side face on the circumference of the light transmitting resin is substantially flush with the circumferential side face of the package, and wherein an inner wall of the hollow housing is tapered so that an opening area increases from a bottom surface on which the LED chip is mounted toward an upper surface of the side wall, wherein said light transmitting resin includes a filler and a fluorescent material which absorbs at least a part of the light emitted by said LED chip and emits light of a different wavelength, wherein a difference between a median particle size of the filler and a median particle size of the fluorescent material is less than 20 %, and wherein a median diameter of said fluorescent material is set within a range from 15 to 50 μm.
A method of determining the 3-dimensional position and orientation of an imaging arm of an imaging device for taking optimal images of a vertebral body, the method comprising: receiving, from the imaging device, test images which include a first x-ray image of the vertebral body and a second x-ray image of the vertebral body at a different angle than the first x-ray image; identifying the vertebral body among a plurality of vertebral bodies contained in the test images; retrieving a 3-dimensional model of the vertebral body from a storage device; aligning the retrieved 3-dimensional model against the test images; determining a 3-dimensional position and orientation of the imaging arm for taking optimal A-P and lateral x-ray images based on the aligned 3-dimensional model. receiving, from the imaging device, test images which include a first x-ray image of the vertebral body and a second x-ray image of the vertebral body at a different angle than the first x-ray image; identifying the vertebral body among a plurality of vertebral bodies contained in the test images; retrieving a 3-dimensional model of the vertebral body from a storage device; aligning the retrieved 3-dimensional model against the test images; determining a 3-dimensional position and orientation of the imaging arm for taking optimal A-P and lateral x-ray images based on the aligned 3-dimensional model.