mhurhangee/patent-ind-claim-en huggingface dataset:
A curcumin-boron complex represented by the following formula : wherein X 1 and X 2 are identical or different, and each represent a halogenoalkyl group or a halogen atom; X 3 represents a bromine atom, an iodine atom, or a selenium atom; R 1 and R 2 are identical or different, and each represent a hydrogen atom or an optionally substituted alkyl group; R 3 and R 4 are identical or different, and each represent a hydrogen atom, a halogen atom, an alkoxy group, or an optionally substituted alkyl group, or R 1 and R 3 or R 2 and R 4 are optionally taken together to form an optionally substituted alkylene group or alkenylene group; R 5 and R 6 are identical or different, and each represent a hydrogen atom or an optionally substituted alkyl group; R 7 and R 8 are identical or different, and each represent a hydrogen atom, a halogen atom, an alkoxy group, or an optionally substituted alkyl group, or R 5 and R 7 or R 6 and R 8 are optionally taken together to form an optionally substituted alkylene group or alkenylene group; and m and n each represent an integer of 1 to 3, or a salt thereof. X 3 represents a bromine atom, an iodine atom, or a selenium atom; R 1 and R 2 are identical or different, and each represent a hydrogen atom or an optionally substituted alkyl group; R 3 and R 4 are identical or different, and each represent a hydrogen atom, a halogen atom, an alkoxy group, or an optionally substituted alkyl group, or R 1 and R 3 or R 2 and R 4 are optionally taken together to form an optionally substituted alkylene group or alkenylene group; R 5 and R 6 are identical or different, and each represent a hydrogen atom or an optionally substituted alkyl group; R 7 and R 8 are identical or different, and each represent a hydrogen atom, a halogen atom, an alkoxy group, or an optionally substituted alkyl group, or R 5 and R 7 or R 6 and R 8 are optionally taken together to form an optionally substituted alkylene group or alkenylene group; and m and n each represent an integer of 1 to 3,
A shoe roll end module comprising: a pedestal ; a roll head configured to support a belt tensioned about the shoe roll; and an axially elongated annular structure being attached to the pedestal , and supporting the roll head . a pedestal ; a roll head configured to support a belt tensioned about the shoe roll; and an axially elongated annular structure being attached to the pedestal , and supporting the roll head .
A computing system for detecting whether or not an open source software package has functionality which is not described by source code used to build the open source software package, the computing system comprising: one or more processors ; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, if executed by the one or more processors, the computing system is configured to: access the source code used to build the open source software package ; rebuild the open source software package from the source code wherein the rebuild of the open source software package from the source code is further configured to rewrite the source code as interpretable code; access a directory of the open source software package to identify runtime parameters used to originally build the open source software package from the source code; create a new build environment with the identified parameters; and execute the rebuild using the new build environment; compute whether or not the rebuilt package accomplishes the same functions as the open source software package; and alert if the rebuilt package does not accomplish the same functions as the open source software package. one or more processors ; and one or more computer-readable media having thereon computer-executable instructions that are structured such that, if executed by the one or more processors, the computing system is configured to: access the source code used to build the open source software package ; rebuild the open source software package from the source code wherein the rebuild of the open source software package from the source code is further configured to rewrite the source code as interpretable code; access a directory of the open source software package to identify runtime parameters used to originally build the open source software package from the source code; create a new build environment with the identified parameters; and execute the rebuild using the new build environment; compute whether or not the rebuilt package accomplishes the same functions as the open source software package; and alert if the rebuilt package does not accomplish the same functions as the open source software package. access the source code used to build the open source software package ; rebuild the open source software package from the source code wherein the rebuild of the open source software package from the source code is further configured to rewrite the source code as interpretable code; access a directory of the open source software package to identify runtime parameters used to originally build the open source software package from the source code; create a new build environment with the identified parameters; and execute the rebuild using the new build environment; compute whether or not the rebuilt package accomplishes the same functions as the open source software package; and alert if the rebuilt package does not accomplish the same functions as the open source software package.
An alkoxymagnesium comprising secondary particles each of which is an aggregate of primary particles having an average particle diameter of less than 1 μm, wherein a ratio of an average particle diameter of the primary particles/an average particle diameter of the secondary particles is 0.1 or less, a total pore volume is 0.5 to 1 cm 3 /g, a specific surface area is less than 50 m 2 /g, and a particle size distribution index (SPAN) is 1 or less.
A semiconductor light emitting device comprising: a substrate having a first surface and a second surface opposite the first surface; a semiconductor structure disposed on the first surface of the substrate ; a cavity disposed in the substrate , the cavity extending from the second surface of the substrate opposite the semiconductor structure toward the semiconductor structure , the cavity having a sloped side wall ; wherein the sloped side wall of the cavity is coated with a reflective material ; the semiconductor light emitting device further comprising: a high refractive index coating formed on the first surface; wherein light is efficiently extracted through external sidewalls of the semiconductor light emitting device; wherein a transparent, conductive material is disposed between the semiconductor structure and the high refractive index coating ; and wherein a surface of the high refractive index coating opposite the transparent conductive material is textured. a substrate having a first surface and a second surface opposite the first surface; a semiconductor structure disposed on the first surface of the substrate ; a cavity disposed in the substrate , the cavity extending from the second surface of the substrate opposite the semiconductor structure toward the semiconductor structure , the cavity having a sloped side wall ; wherein the sloped side wall of the cavity is coated with a reflective material ; the semiconductor light emitting device further comprising: a high refractive index coating formed on the first surface; wherein light is efficiently extracted through external sidewalls of the semiconductor light emitting device; wherein a transparent, conductive material is disposed between the semiconductor structure and the high refractive index coating ; and wherein a surface of the high refractive index coating opposite the transparent conductive material is textured. a high refractive index coating formed on the first surface; wherein light is efficiently extracted through external sidewalls of the semiconductor light emitting device; wherein a transparent, conductive material is disposed between the semiconductor structure and the high refractive index coating ; and wherein a surface of the high refractive index coating opposite the transparent conductive material is textured.
A protective helmet, in particular motorcycle protective helmet, having an outer shell for distributing impact forces and having an antenna , arranged at least partially inside the outer shell , for transmitting a radio signal, wherein the outer shell consists of a main material in a main region , characterised in that the outer shell consists of a cut-out material in a cut-out region , which material has a lower damping effect on the radio signal compared to the main material.
A method performed by a server computing device for providing media content to a media playback device , the method comprising: receiving , from the media playback device, a request for one or more audio tracks stored in an audio content storage environment comprising a 3D audio repository including 3D audio tracks and a non-3D audio repository including non-3D audio tracks, and information about the media playback device, the information comprising information about a determination made by the media playback device that headphones are physically or wirelessly connected to it; determining whether the media playback device is suitable for playing 3D audio, comprising determining, based on the information associated with the request, that the media playback device is connected to headphones and therefore a media playback system associated with the media playback device is suitable for playing 3D audio, or determining, based on the request, that the media playback device is not connected to headphones and therefore not suitable for playing 3D audio content; sending , to the media playback device , three-dimensional audio tracks from the 3D audio repository when the media playback device is determined to be suitable for playing 3D audio; and sending , to the media playback device , non-three-dimensional audio tracks from the non-3D audio repository when the media playback device is determined not to be suitable for playing 3D audio. receiving , from the media playback device, a request for one or more audio tracks stored in an audio content storage environment comprising a 3D audio repository including 3D audio tracks and a non-3D audio repository including non-3D audio tracks, and information about the media playback device, the information comprising information about a determination made by the media playback device that headphones are physically or wirelessly connected to it; determining whether the media playback device is suitable for playing 3D audio, comprising determining, based on the information associated with the request, that the media playback device is connected to headphones and therefore a media playback system associated with the media playback device is suitable for playing 3D audio, or determining, based on the request, that the media playback device is not connected to headphones and therefore not suitable for playing 3D audio content; sending , to the media playback device , three-dimensional audio tracks from the 3D audio repository when the media playback device is determined to be suitable for playing 3D audio; and sending , to the media playback device , non-three-dimensional audio tracks from the non-3D audio repository when the media playback device is determined not to be suitable for playing 3D audio.
An apparatus comprising: (a) a body ; (b) an actuation assembly ; and (c) a guide catheter extending distally from the body, wherein the guide catheter comprises: (i) an open proximal end , (ii) an open distal end , (iii) a rigid proximal portion , (iv) a bendable distal portion , and (v) a pull wire extending from the bendable distal portion to the rigid proximal portion, wherein a proximal end of the pull wire is coupled with the actuation assembly, wherein the actuation assembly is operable to translate the pull wire relative to the rigid proximal portion to thereby articulate the bendable distal portion; wherein the actuation assembly comprises: (i) a first bevel gear , (ii) a second bevel gear coupled with the first bevel gear, and (iii) a translating member coupled with the second bevel gear, wherein the translating member is further coupled with the pull wire such that the bevel gears are rotatable to thereby translate the pull wire. (a) a body ; (b) an actuation assembly ; and (c) a guide catheter extending distally from the body, wherein the guide catheter comprises: (i) an open proximal end , (ii) an open distal end , (iii) a rigid proximal portion , (iv) a bendable distal portion , and (v) a pull wire extending from the bendable distal portion to the rigid proximal portion, wherein a proximal end of the pull wire is coupled with the actuation assembly, wherein the actuation assembly is operable to translate the pull wire relative to the rigid proximal portion to thereby articulate the bendable distal portion; wherein the actuation assembly comprises: (i) a first bevel gear , (ii) a second bevel gear coupled with the first bevel gear, and (iii) a translating member coupled with the second bevel gear, wherein the translating member is further coupled with the pull wire such that the bevel gears are rotatable to thereby translate the pull wire. (i) an open proximal end , (ii) an open distal end , (iii) a rigid proximal portion , (iv) a bendable distal portion , and (v) a pull wire extending from the bendable distal portion to the rigid proximal portion, wherein a proximal end of the pull wire is coupled with the actuation assembly, wherein the actuation assembly is operable to translate the pull wire relative to the rigid proximal portion to thereby articulate the bendable distal portion; (i) a first bevel gear , (ii) a second bevel gear coupled with the first bevel gear, and (iii) a translating member coupled with the second bevel gear, wherein the translating member is further coupled with the pull wire such that the bevel gears are rotatable to thereby translate the pull wire.
Process for odorizing a cryogenic fluid in the liquid state, comprising at least the following steps: a) continuously feeding an odorizing agent in liquid or gaseous form, preferably in liquid form, into a feed zone, said feeding being carried out at a temperature above the temperature of the cryogenic fluid and above the crystallization temperature of the odorizing agent, b) feeding said odorizing agent in liquid or gaseous form from step a) into a buffer zone in which the odorizing agent is brought to a temperature less than 30°C above the temperature of the cryogenic fluid, and c) feeding said odorizing agent cooled in step b), into the contact zone, wherein said odorizing agent in solid form comes into contact with said cryogenic fluid to be odorized. a) continuously feeding an odorizing agent in liquid or gaseous form, preferably in liquid form, into a feed zone, said feeding being carried out at a temperature above the temperature of the cryogenic fluid and above the crystallization temperature of the odorizing agent, b) feeding said odorizing agent in liquid or gaseous form from step a) into a buffer zone in which the odorizing agent is brought to a temperature less than 30°C above the temperature of the cryogenic fluid, and c) feeding said odorizing agent cooled in step b), into the contact zone, wherein said odorizing agent in solid form comes into contact with said cryogenic fluid to be odorized.
An assembly for frothing a fluid including: - a controllable air source assembly including an air channel having an air inlet and a downstream end ; - a fluid channel extending from a fluid inlet to a fluid outlet , the fluid channel including subsequently: ∼ an air inlet emanation point to which the downstream end of the air channel is connected; ∼ a pump ; ∼ a fluid restriction ; ∼ a heater ; ∼ a valve assembly having a first state in which fluid is channeled to the fluid outlet of the fluid channel and a second state in which the fluid is diverted from the fluid channel to a second fluid outlet of the valve assembly ; the assembly additionally including: - a water supply channel connected to the fluid channel and including a controllable water valve ; - a cleaning reservoir ; - a return channel having an upstream end that is connected to the second fluid outlet of the valve assembly and having a downstream end that emanates in the cleaning reservoir ; - at least one conductivity sensor that is positioned in the fluid channel ; - an electronic controller assembly configured to control at least the pump , the heater , and the valve assembly , wherein the electronic controller assembly is configured to operate the assembly in a production mode and in a cleaning mode; wherein, in the production mode, the fluid inlet of the fluid channel is supplied with fluid to be frothed and wherein, during at least part of the cleaning mode, the fluid inlet of the fluid channel is supplied with cleaning fluid. - a controllable air source assembly including an air channel having an air inlet and a downstream end ; - a fluid channel extending from a fluid inlet to a fluid outlet , the fluid channel including subsequently: ∼ an air inlet emanation point to which the downstream end of the air channel is connected; ∼ a pump ; ∼ a fluid restriction ; ∼ a heater ; ∼ a valve assembly having a first state in which fluid is channeled to the fluid outlet of the fluid channel and a second state in which the fluid is diverted from the fluid channel to a second fluid outlet of the valve assembly ; ∼ an air inlet emanation point to which the downstream end of the air channel is connected; ∼ a pump ; ∼ a fluid restriction ; ∼ a heater ; ∼ a valve assembly having a first state in which fluid is channeled to the fluid outlet of the fluid channel and a second state in which the fluid is diverted from the fluid channel to a second fluid outlet of the valve assembly ; - a water supply channel connected to the fluid channel and including a controllable water valve ; - a cleaning reservoir ; - a return channel having an upstream end that is connected to the second fluid outlet of the valve assembly and having a downstream end that emanates in the cleaning reservoir ; - at least one conductivity sensor that is positioned in the fluid channel ; - an electronic controller assembly configured to control at least the pump , the heater , and the valve assembly , wherein the electronic controller assembly is configured to operate the assembly in a production mode and in a cleaning mode;
A compact container for receiving two types of cosmetic materials, the compact container comprising: an inner container formed therein with a first receiving space ; and an inner container lid coupled to one side of the inner container and formed in a lower portion thereof with a second receiving space , wherein the second receiving space faces the first receiving space , and the second receiving space and the first receiving space are sealed together when the inner container lid is covered on the inner container , , characterized in that a second impregnating member is received in the second receiving space of the inner container lid and a first impregnating member is received in the first receiving space of the inner container . an inner container formed therein with a first receiving space ; and an inner container lid coupled to one side of the inner container and formed in a lower portion thereof with a second receiving space , wherein the second receiving space faces the first receiving space , and the second receiving space and the first receiving space are sealed together when the inner container lid is covered on the inner container , , characterized in that a second impregnating member is received in the second receiving space of the inner container lid and a first impregnating member is received in the first receiving space of the inner container .
Surge arrester with two end fittings facing each other, one or more varistors arranged between the end fittings, a winding layer provided at least on the at least one varistor , wherein the winding layer is an at least partially closed layer with a resin-impregnated glass fiber thread; and a reinforcing element extending between the end fittings and holding the end fittings under tension, wherein the reinforcing element is an open cross-wound coil with a resin-impregnated glass fiber thread. two end fittings facing each other, one or more varistors arranged between the end fittings, a winding layer provided at least on the at least one varistor , wherein the winding layer is an at least partially closed layer with a resin-impregnated glass fiber thread; and a reinforcing element extending between the end fittings and holding the end fittings under tension, wherein the reinforcing element is an open cross-wound coil with a resin-impregnated glass fiber thread.
A paralysis monitoring system comprising: a nerve stimulation device configured to deliver a series of low voltage electrical impulses to a nerve to produce only sub-visible muscle responses, wherein the low voltage electrical impulses are between 0.1 and 4 millivolts; a recording device configured to record electrical activity associated with an evoked muscle response caused by the series of low voltage electrical impulses; wherein the nerve stimulation device is configured to transmit the low voltage electrical impulses to a patient based on a body mass index of the patient ; characterized in that the nerve stimulation device is configured to transmit the low voltage electrical impulses in the range of about 0.5 millivolts to 1.5 millivolts to patients having a body mass index in a first range; and that the nerve stimulation device is configured to transmit the low voltage electrical impulses in the range of about 1.5 millivolts to 4 millivolts to patients having a body mass index in a second range that is higher than the first range. a nerve stimulation device configured to deliver a series of low voltage electrical impulses to a nerve to produce only sub-visible muscle responses, wherein the low voltage electrical impulses are between 0.1 and 4 millivolts; a recording device configured to record electrical activity associated with an evoked muscle response caused by the series of low voltage electrical impulses; wherein the nerve stimulation device is configured to transmit the low voltage electrical impulses to a patient based on a body mass index of the patient ; characterized in that the nerve stimulation device is configured to transmit the low voltage electrical impulses in the range of about 0.5 millivolts to 1.5 millivolts to patients having a body mass index in a first range; and that the nerve stimulation device is configured to transmit the low voltage electrical impulses in the range of about 1.5 millivolts to 4 millivolts to patients having a body mass index in a second range that is higher than the first range.