mhurhangee/ep-ind-claims huggingface dataset:
A system for cutting tissue within a synovial cavity, comprising: a cannula defining an internal lumen extending from a proximal end to a partially closed distal end and defining a cutting port positioned in a radial side wall of the cannula proximal to the distal end, an access port in the proximal end of the cannula and a guide port in the distal end of the cannula, all for accessing the internal lumen; and a blade assembly including a blade and a blade shaft extending from the blade, wherein the blade is insertable into the internal lumen of the cannula through the access port in the proximal end of the cannula such that the blade is positioned adjacent the cutting port, wherein the blade shaft is operable to move the blade within the internal lumen relative to the cutting port between a retracted position and a deployed position, wherein the blade is received within the internal lumen in the retracted position and the blade is positioned within the cutting port in the deployed position such that tissue can pass through the cutting port for cutting with the blade and wherein the system further comprises a guide element, the guide element configured to be received in the guide port in the distal end of the cannula to align the cannula with the guide element. a cannula defining an internal lumen extending from a proximal end to a partially closed distal end and defining a cutting port positioned in a radial side wall of the cannula proximal to the distal end, an access port in the proximal end of the cannula and a guide port in the distal end of the cannula, all for accessing the internal lumen; and a blade assembly including a blade and a blade shaft extending from the blade, wherein the blade is insertable into the internal lumen of the cannula through the access port in the proximal end of the cannula such that the blade is positioned adjacent the cutting port, wherein the blade shaft is operable to move the blade within the internal lumen relative to the cutting port between a retracted position and a deployed position, wherein the blade is received within the internal lumen in the retracted position and the blade is positioned within the cutting port in the deployed position such that tissue can pass through the cutting port for cutting with the blade and wherein the system further comprises a guide element, the guide element configured to be received in the guide port in the distal end of the cannula to align the cannula with the guide element.
A protective cell autophagy inhibitor, wherein its active ingredient is a rubiaceae-type cyclopeptide, wherein the active ingredient is a rubiaceae-type cyclopeptide RA-V or RA-XII represented by the following structural formula:, for use in the treatment and prevention of tumors with KRAS gene mutations, and wherein the inhibitor is a nano-micelle injection.
A method of encoding into a High Efficiency Video Coding, HEVC, video sequence comprising Reference Picture Sets, RPSs, the method comprising: arranging the RPSs in decoding order in a Sequence Parameter Set, SPS, assigning an index to each RPS comprised in the SPS, the index ranging from 0 to the number of RPSs comprised in the SPS minus one, determining whether inter-prediction is used for an RPS of a current picture of the video sequence, determining whether explicit RPS transmission is used for the RPS of the current picture, and only if inter-predictbn and explicit RPS transmission are used for the RPS of the current picture, encoding information (908; 1220) specifying the difference between an index of the RPS of the current picture and an index of an RPS used for inter-prediction. arranging the RPSs in decoding order in a Sequence Parameter Set, SPS, assigning an index to each RPS comprised in the SPS, the index ranging from 0 to the number of RPSs comprised in the SPS minus one, determining whether inter-prediction is used for an RPS of a current picture of the video sequence, determining whether explicit RPS transmission is used for the RPS of the current picture, and only if inter-predictbn and explicit RPS transmission are used for the RPS of the current picture, encoding information (908; 1220) specifying the difference between an index of the RPS of the current picture and an index of an RPS used for inter-prediction.
A DC-DC converter, comprising: a voltage detector for detecting a voltage from a battery; a first circuit comprising a boost converter arranged to receive the voltage from the battery and to generate and output a first voltage (ELVDD); and a pulse width modulation PWM controller coupled to the voltage detector, the PWM controller being configured to control the first circuit to boost the voltage from the battery when the battery voltage is lower than a reference voltage and to reduce the voltage from the battery when the detected battery voltage is higher than a reference voltage; wherein the first circuit comprises first and second switching devices (M 1, M 2) controlled by the PWM controller, characterised by: a second circuit arranged to receive and invert the voltage from the battery and to generate and output a second voltage (ELVSS); and wherein the PWM controller is arranged, in the event that the detected battery voltage is higher than the reference voltage, to turn the second switching device (M 2) off such that the second switching device functions as a diode device, and to switch the first switching device (M 1) on and off to respectively reverse-bias and forward-bias the second switching device (M 2) to provide the first voltage. a voltage detector for detecting a voltage from a battery; a first circuit comprising a boost converter arranged to receive the voltage from the battery and to generate and output a first voltage (ELVDD); and a pulse width modulation PWM controller coupled to the voltage detector, the PWM controller being configured to control the first circuit to boost the voltage from the battery when the battery voltage is lower than a reference voltage and to reduce the voltage from the battery when the detected battery voltage is higher than a reference voltage; wherein the first circuit comprises first and second switching devices (M 1, M 2) controlled by the PWM controller, characterised by: a second circuit arranged to receive and invert the voltage from the battery and to generate and output a second voltage (ELVSS); and wherein the PWM controller is arranged, in the event that the detected battery voltage is higher than the reference voltage, to turn the second switching device (M 2) off such that the second switching device functions as a diode device, and to switch the first switching device (M 1) on and off to respectively reverse-bias and forward-bias the second switching device (M 2) to provide the first voltage. a second circuit arranged to receive and invert the voltage from the battery and to generate and output a second voltage (ELVSS); and wherein the PWM controller is arranged, in the event that the detected battery voltage is higher than the reference voltage, to turn the second switching device (M 2) off such that the second switching device functions as a diode device, and to switch the first switching device (M 1) on and off to respectively reverse-bias and forward-bias the second switching device (M 2) to provide the first voltage.
A battery pack, comprising: an opening in an outer surface of the battery pack; and a pressure relief device adapted to burst when the pressure within the battery pack is equal or greater than a certain threshold and attached to the outer surface of the battery pack, the pressure relief device comprising: an adhesive arranged around the opening; an outer ring portion attached to the outer surface of the battery pack via the adhesive; and an inner portion that is recessed from the outer surface of the battery pack so as to form a gap between the outer surface of the battery pack and the inner portion, wherein a diameter of the inner portion is greater than a diameter of the opening, and wherein the diameter of the inner portion is determined based on a desired burst pressure of the pressure relief device. an opening in an outer surface of the battery pack; and a pressure relief device adapted to burst when the pressure within the battery pack is equal or greater than a certain threshold and attached to the outer surface of the battery pack, the pressure relief device comprising: an adhesive arranged around the opening; an outer ring portion attached to the outer surface of the battery pack via the adhesive; and an inner portion that is recessed from the outer surface of the battery pack so as to form a gap between the outer surface of the battery pack and the inner portion, wherein a diameter of the inner portion is greater than a diameter of the opening, and wherein the diameter of the inner portion is determined based on a desired burst pressure of the pressure relief device. an adhesive arranged around the opening; an outer ring portion attached to the outer surface of the battery pack via the adhesive; and an inner portion that is recessed from the outer surface of the battery pack so as to form a gap between the outer surface of the battery pack and the inner portion, wherein a diameter of the inner portion is greater than a diameter of the opening, and wherein the diameter of the inner portion is determined based on a desired burst pressure of the pressure relief device.
A method of producing hydrogen peroxide from hydrogen and oxygen using a catalyst which comprises: (i) a carrier which is a resin having a functional group selected from a sulfonic acid group, a carboxylic acid group, a phosphoric acid group and a phosphonic acid group; (ii) a polymer electrolyte multi-layer film formed on the carrier, which includes a cationic polymer electrolyte and an anionic polymer electrolyte, the polymer electrolyte multi-film layer having a layer number of 2 to 30, wherein the cationic polymer electrolyte is at least one selected from the group consisting of poly(allylamine), polydiallyldimethylammonium, poly(ethylenediamine) and poly(acrylamide-co-diallyldimethylammonium), the anionic polymer electrolyte is at least one selected from the group consisting of poly(4-styrenesulfonate), poly(acrylic acid), poly(acrylamide), poly(vinylphosphonic acid), poly(2-acrylamido-2-methyl-11-propanesulfonic acid), poly(anethole sulfonic acid) and poly(vinylsulfonate), and wherein the polymer electrolyte has a molecular weight of 2,000-500,000; and (iii) metal particles dispersed in the polymer electrolyte multi-layer film, said metal particles being palladium, wherein said metal particles are formed by dispersing metal precursors in the polymer electrolytes and then reducing the dispersed metal precursors using a reducing agent, wherein the production of hydrogen peroxide is performed by a liquid phase reaction using methanol, ethanol or water as a solvent (reaction medium). Oxygen and hydrogen serving as reactants are used in the form of a gas mixture diluted with nitrogen in order to prevent the danger of explosion, wherein the reaction of oxygen and hydrogen to form hydrogen peroxide is conducted at a reaction pressure of 30-60 bar, and a reaction temperature of 20-40°C. (i) a carrier which is a resin having a functional group selected from a sulfonic acid group, a carboxylic acid group, a phosphoric acid group and a phosphonic acid group; (ii) a polymer electrolyte multi-layer film formed on the carrier, which includes a cationic polymer electrolyte and an anionic polymer electrolyte, the polymer electrolyte multi-film layer having a layer number of 2 to 30, wherein the cationic polymer electrolyte is at least one selected from the group consisting of poly(allylamine), polydiallyldimethylammonium, poly(ethylenediamine) and poly(acrylamide-co-diallyldimethylammonium), the anionic polymer electrolyte is at least one selected from the group consisting of poly(4-styrenesulfonate), poly(acrylic acid), poly(acrylamide), poly(vinylphosphonic acid), poly(2-acrylamido-2-methyl-11-propanesulfonic acid), poly(anethole sulfonic acid) and poly(vinylsulfonate), and wherein the polymer electrolyte has a molecular weight of 2,000-500,000; and (iii) metal particles dispersed in the polymer electrolyte multi-layer film, said metal particles being palladium, wherein said metal particles are formed by dispersing metal precursors in the polymer electrolytes and then reducing the dispersed metal precursors using a reducing agent,
A viscous cosmetic item comprising: a push-out container and a viscous cosmetic material contained in the push-out container, the push-out container forming a cylinder-shaped containment part and being capable of withdrawing a content, the push-out container comprising an application part provided at a tip of this container, a rotator located on a part of the container, and an internal block installed in the containment part, the rotator being provided such that the rotator located on a part of the container is configured to rotate in one direction thereby pressurizing the viscous cosmetic material contained in the containment part so as to make it possible to push the viscous cosmetic material outward from an ejection port provided on an application face of the application part and such that the rotator is configured to rotate in a reverse direction thereby making it possible to withdraw an extra viscous cosmetic material on the application part from the ejection port of the application face into the containment part, wherein the viscous cosmetic item comprises the application part being composed of an elastic material, the application face being an inclined plane face inclined with respect to a longitudinal axis of a container body, a cylinder-shaped viscous cosmetic material supply pipe of the container, characterised in that the cylinder-shaped viscous cosmetic material supply pipe has a diameter of 1.7 to 2.2 mm, the ejection port, for ejecting the viscous cosmetic material outward is communicated therewith and provided on the application face at an open state, and the viscous cosmetic material contained in the containment part of the container has a viscosity of 19000 mPa·s or greater at a shear rate of 0 to 5 sec -1 and a viscosity of 11000 mPa·s or less at a shear rate of 40 sec -1.
A computer-implemented method for obtaining an image of an explored underground formation, the method comprising: obtaining seismic data carrying structural information of the explored formation; generating initial velocity and absorption models of the explored formation based on the seismic data; and updating the initial velocity and absorption models while also determining Thomsen anisotropy parameters depending on tilt angle and azimuth angle of a tilted transverse isotropy, TTI, symmetry axis, using a visco-acoustic reverse time migration, RTM, characterized in that the updated velocity and absorption models together with the Thomsen anisotropy parameters are used for imaging the explored underground formation, the imaging condition being R ( x) = ∫ p̂ B ( x, t) p̂ F ( x,t) dt where R ( x) is reflection coefficient at a subsurface position x, p̂ F ( x, t) is a forward propagator from a source generating seismic waves to the subsurface position x, and p̂ B ( x,t) is a backward propagator from a receiver recording the seismic waves to the subsurface position x, where t is the temporal variable and wherein the visco-acoustic RTM includes calculating the forward and the backward propagators as P ^ F = P Fa x → ω P F x → ω 2 P F x → ω P ^ B = P Ba x → ω P B x → ω 2 P B x → ω where ω is the frequency variable, P F and P B are forward and backward propagators obtained by solving a visco acoustic TTI wave equation in a conjugate medium, P Fa and P Ba are forward and backward propagators obtained by solving an acoustic TTI wave equation in a lossless medium. obtaining seismic data carrying structural information of the explored formation; generating initial velocity and absorption models of the explored formation based on the seismic data; and updating the initial velocity and absorption models while also determining Thomsen anisotropy parameters depending on tilt angle and azimuth angle of a tilted transverse isotropy, TTI, symmetry axis, using a visco-acoustic reverse time migration, RTM, characterized in that the updated velocity and absorption models together with the Thomsen anisotropy parameters are used for imaging the explored underground formation, the imaging condition being R ( x) = ∫ p̂ B ( x, t) p̂ F ( x,t) dt where R ( x) is reflection coefficient at a subsurface position x, p̂ F ( x, t) is a forward propagator from a source generating seismic waves to the subsurface position x, and p̂ B ( x,t) is a backward propagator from a receiver recording the seismic waves to the subsurface position x, where t is the temporal variable and wherein the visco-acoustic RTM includes calculating the forward and the backward propagators as P ^ F = P Fa x → ω P F x → ω 2 P F x → ω P ^ B = P Ba x → ω P B x → ω 2 P B x → ω where ω is the frequency variable, P F and P B are forward and backward propagators obtained by solving a visco acoustic TTI wave equation in a conjugate medium, P Fa and P Ba are forward and backward propagators obtained by solving an acoustic TTI wave equation in a lossless medium.
A method for thermally treating braking elements, in particular braking pads, preferably immediately downstream of a pad forming step, comprising, in combination, a convective heating step and an infrared irradiation heating step, which are carried out immediately in sequence with respect to one another; wherein i)- the convective heating step is carried out in a tunnel convection furnace crossed by at least a first conveyor belt which translates along a first direction and on an upper face of which the braking elements are placed; characterized in that ii)- the infrared heating step is carried out in a tunnel furnace with infrared heating arranged laterally adjacent, with respect to the first direction, to the tunnel convection furnace and crossed by a second conveyor belt which translates along a second direction, parallel and opposite to the first direction, and on an upper face of which the braking elements are placed; iii)- said braking elements being arranged on a first end of one of said first and second conveyor belts and collected at a second end, opposite to the first end, of the same conveyor belt to be transferred on an immediately adjacent end of the other of said first and second conveyor belts, so that the braking elements follow, along said first and second conveyor belts (5, 7) and during the entire execution of the thermal treatment, a substantially U-shaped path which allows the sequence at which the convective and the infrared heating steps are carried out to be changed as desired by simply reversing the running direction of the first and second conveyor belts (5, 7). i)- the convective heating step is carried out in a tunnel convection furnace crossed by at least a first conveyor belt which translates along a first direction and on an upper face of which the braking elements are placed; characterized in that ii)- the infrared heating step is carried out in a tunnel furnace with infrared heating arranged laterally adjacent, with respect to the first direction, to the tunnel convection furnace and crossed by a second conveyor belt which translates along a second direction, parallel and opposite to the first direction, and on an upper face of which the braking elements are placed; iii)- said braking elements being arranged on a first end of one of said first and second conveyor belts and collected at a second end, opposite to the first end, of the same conveyor belt to be transferred on an immediately adjacent end of the other of said first and second conveyor belts, so that the braking elements follow, along said first and second conveyor belts (5, 7) and during the entire execution of the thermal treatment, a substantially U-shaped path which allows the sequence at which the convective and the infrared heating steps are carried out to be changed as desired by simply reversing the running direction of the first and second conveyor belts (5, 7).
System for clamping a cutting head to an adapter for a machine tool, and for providing an infinitely adjustable F-measure between the adapter and a cutting bit, said system comprising a first substantially linear flange on the cutting head, a second substantially linear flange substantially parallel to the first linear flange on the cutting head and means for securing a cutting bit; a first holding jaw for engagement with at least one of the linear flanges on the cutting head, a second holding jaw connected to the adapter for engagement with the second linear flange; characterised by a recess in portion of the first holding jaw abutting the adapter or in the adapter such that the first holding jaw abuts both the adapter and the first substantially linear flange on the cutting head, whereby the first holding jaw forms a bridge between the adapter and the first substantially linear flange on the cutting head, whereby the first holding jaw forms a bridge between the adapter and the first substantially linear flange on the cutting head a first clamping device for clamping the first holding jaw towards the adapter and towards the first flange on the cutting head; wherein the cutting head and the adapter includes mutually fitting serrations parallel to the first and second linear flange.
A fiber optic connector holder adapted to selectively retain two or more unused fiber optic connectors that include a dust cap generally protecting a ferrule of the connector, the connector holder comprising: a body comprising a first portion and a second portion, wherein the second portion of the body defines a base of the fiber optic connector holder; at least one dust cap retainer (40, 74), wherein the dust cap retainer (40, 74) is adapted to selectively retain at least a portion of the dust cap generally protecting the ferrule of the connector; and at least one holder retainer (24, 76) generally extending from the base of the fiber optic connector holder, characterized in that at least one boot retainer (30, 72) is defined by the first portion of the body, wherein the boot retainer (30, 72) is adapted to selectively retain at least a portion of the boot of a fiber optic connector; the at least one dust cap retainer (40, 74) is defined by the second portion of the body; the body comprises a wall (46, 78) that extends generally perpendicular to the base, wherein that wall (46, 78) defines a front side and a back side, wherein both the front side and the back side comprise at least one boot retainer (30, 72) and at least one dust cap retainer (40, 74). a body comprising a first portion and a second portion, wherein the second portion of the body defines a base of the fiber optic connector holder; at least one dust cap retainer (40, 74), wherein the dust cap retainer (40, 74) is adapted to selectively retain at least a portion of the dust cap generally protecting the ferrule of the connector; and at least one holder retainer (24, 76) generally extending from the base of the fiber optic connector holder, characterized in that at least one boot retainer (30, 72) is defined by the first portion of the body, wherein the boot retainer (30, 72) is adapted to selectively retain at least a portion of the boot of a fiber optic connector; the at least one dust cap retainer (40, 74) is defined by the second portion of the body; the body comprises a wall (46, 78) that extends generally perpendicular to the base, wherein that wall (46, 78) defines a front side and a back side, wherein both the front side and the back side comprise at least one boot retainer (30, 72) and at least one dust cap retainer (40, 74).