mhurhangee/patent-ind-claim-en huggingface dataset:
A kit comprising: a temperature measuring section configured to measure a temperature of a semiconductor integrated circuit ; a radiation detection unit configured to be provided near the semiconductor integrated circuit and configured to detect a radiation quantity when the temperature measured by the temperature measuring section is higher than a predetermined threshold value; and a cooling unit configured to be attached to the semiconductor integrated circuit so as to be brought into close contact with the semiconductor integrated circuit and configured to cool the semiconductor integrated circuit based on the radiation quantity detected by the radiation detection unit . a temperature measuring section configured to measure a temperature of a semiconductor integrated circuit ; a radiation detection unit configured to be provided near the semiconductor integrated circuit and configured to detect a radiation quantity when the temperature measured by the temperature measuring section is higher than a predetermined threshold value; and a cooling unit configured to be attached to the semiconductor integrated circuit so as to be brought into close contact with the semiconductor integrated circuit and configured to cool the semiconductor integrated circuit based on the radiation quantity detected by the radiation detection unit .
A tire rubber composition comprising: a rubber component containing diene-based rubber; a compound expressed by the following Formula (I); and carbon black whose CTAB adsorption specific surface area, represented as CTAB, is 120 m 2 /g or more, where A is an aryl group having at least two hydroxyl groups, R 1 and R 2 are each independently at least one substituent selected from the group consisting of a hydrogen atom, an acyl group, an amide group, an alkyl group, a cycloalkyl group, and an aryl group. a rubber component containing diene-based rubber; a compound expressed by the following Formula (I); and carbon black whose CTAB adsorption specific surface area, represented as CTAB, is 120 m 2 /g or more, where A is an aryl group having at least two hydroxyl groups, R 1 and R 2 are each independently at least one substituent selected from the group consisting of a hydrogen atom, an acyl group, an amide group, an alkyl group, a cycloalkyl group, and an aryl group.
Device for measuring the knee laxity, with use of additional means of diagnosis such as computed axial tomography and magnetic resonance imaging, evaluating the instability of the knee due to rupture of any ligament, namely the anterior cruciate ligament, posterior cruciate ligament , postero-internal capsule, postero-external capsule, as well as around the axis of an orthonormal, anterior, posterior, antero-internal, antero-external, postero-internal and postero-external referential and comprising a part for receiving and holding the thigh with belts, a part for receiving and holding the leg, a part for receiving and holding the foot with belts, wherin it includes: - two independent means (20 and 21) for pushing backward the anterior zone of the leg and for pushing forward the posterior zone of the leg, the two independent means are respectively located in the inner wall of a removable part for posterior support and fixation of the leg, and in the inner wall of a removable part for front support and fixation of the leg; - two further independent means (12 and 13) for pushing clockwise a part for support and fixation of the foot and for pushing anti-clockwise the part for support and fixation of the foot, the two further independent means are respectively located in the inner wall of the right and left sides of a supporting piece ; wherein the part for support and fixation of the foot rotates clockwise or anticlockwise, depending on the force exerted on it, around a shaft that runs through said part for support and fixation of the foot and through the supporting piece which is articulated therein. - two independent means (20 and 21) for pushing backward the anterior zone of the leg and for pushing forward the posterior zone of the leg, the two independent means are respectively located in the inner wall of a removable part for posterior support and fixation of the leg, and in the inner wall of a removable part for front support and fixation of the leg; - two further independent means (12 and 13) for pushing clockwise a part for support and fixation of the foot and for pushing anti-clockwise the part for support and fixation of the foot, the two further independent means are respectively located in the inner wall of the right and left sides of a supporting piece ;
Connecting device for mounting upper façade elements over lower façade elements of an element façade, wherein the connecting device comprises first connecting elements , which can be fastened to the lower corners of the lower and upper façade elements and have a positive-locking element , and second connecting elements , which can be fastened to the upper corners of the lower and upper façade elements and have a counter element corresponding to the positive-locking element for positive engagement in the positive-locking element on a first connecting element of the upper façade element which can be mounted above the lower façade element , and wherein rearwardly projecting holders for fastening the façade elements to a supporting structure are arranged on the second connecting elements , characterised in that the first and second connecting elements have a first leg which can be fastened to a cross-member of the façade element and a second leg which can be fastened to supports of the façade element .
A separator for a jelly-roll type electrode assembly , the separator comprising a first adhesive coating part and a second adhesive coating part formed on a first surface of a sheet-like porous substrate , and a third adhesive coating part formed on a second surface which is the opposite surface to the first surface, wherein the first adhesive coating part and the second adhesive coating part have different tack strengths from each other; characterized in that the first adhesive coating part includes a first pressure sensitive adhesive, the second adhesive coating part includes a second pressure sensitive adhesive, the first pressure sensitive adhesive and the second pressure sensitive adhesive are different from each other, the first pressure sensitive adhesive is an acrylate-based pressure sensitive adhesive, and the second pressure sensitive adhesive is a fluorine-based pressure sensitive adhesive.
A method comprising: receiving , by a pressure controller including a data processor, data characterizing an air flow through a valve coupled to the pressure controller ; determining , by the data processor, valve operation data associated with the valve ; and providing , by the data processor, the valve operation data in a display coupled to the pressure controller ; characterized by further comprising receiving data characterizing a rate of pressure change through the valve ; and wherein providing the valve operation data includes providing a first plot in the display , the first plot indicating an amount of air flow through the valve with respect to a constant rate of pressure change. receiving , by a pressure controller including a data processor, data characterizing an air flow through a valve coupled to the pressure controller ; determining , by the data processor, valve operation data associated with the valve ; and providing , by the data processor, the valve operation data in a display coupled to the pressure controller ; characterized by further comprising receiving data characterizing a rate of pressure change through the valve ; and wherein providing the valve operation data includes providing a first plot in the display , the first plot indicating an amount of air flow through the valve with respect to a constant rate of pressure change.
A display apparatus, comprising: a display panel including a display area (DA) configured to display an image and a non-display area (NDA); a light guide member on a rear surface of the display panel ; at least one first sound generator (1200, 1600, 1800, 1200-1, 1200-2, 1200-3) on a rear surface of the light guide member ; at least one second sound generator in the non-display area (NDA); a structure on a rear surface of the at least one second sound generator ; and a sheet portion on the rear surface of the display panel , wherein the at least one second sound generator is on a rear surface of the sheet portion ; wherein the sheet portion is spaced apart from the light guide member , and/or wherein the sheet portion is extended to the non-display area (NDA). a display panel including a display area (DA) configured to display an image and a non-display area (NDA); a light guide member on a rear surface of the display panel ; at least one first sound generator (1200, 1600, 1800, 1200-1, 1200-2, 1200-3) on a rear surface of the light guide member ; at least one second sound generator in the non-display area (NDA); a structure on a rear surface of the at least one second sound generator ; and a sheet portion on the rear surface of the display panel , wherein the at least one second sound generator is on a rear surface of the sheet portion ; wherein the sheet portion is spaced apart from the light guide member , and/or wherein the sheet portion is extended to the non-display area (NDA).
A mold insert for forming a wearable article comprising: sidewalls; a front wall; a rear wall; and a heating and/or cooling element embedded within the mold insert , wherein the mold insert is configured to removably engage an aperture of a mold plate for manufacturing a wearable article; and wherein the mold insert is formed using a rapid prototyping technique; wherein the mold insert further includes inserted thermistors therein. sidewalls; a front wall; a rear wall; and a heating and/or cooling element embedded within the mold insert , wherein the mold insert is configured to removably engage an aperture of a mold plate for manufacturing a wearable article; and wherein the mold insert is formed using a rapid prototyping technique; wherein the mold insert is configured to removably engage an aperture of a mold plate for manufacturing a wearable article; and wherein the mold insert is formed using a rapid prototyping technique; wherein the mold insert further includes inserted thermistors therein.
A tannin polymer, the polymer comprising a reaction product of a tannin, a triazine, and an acid, wherein said triazine has the formula: wherein R1, R2, and R3 are independently chosen from H, C 1 -C 5 alkyl and C 1 -C 5 hydroxylated alkyl, and wherein said polymer is dissolved or dispersed in an aqueous medium. wherein R1, R2, and R3 are independently chosen from H, C 1 -C 5 alkyl and C 1 -C 5 hydroxylated alkyl, and wherein said polymer is dissolved or dispersed in an aqueous medium.
A biosensing shirt comprising: a first fabric portion configured to be positioned about a chest region of a wearer and having a first compression rating and an inner surface that includes at least a portion of a sensor assembly configured to be placed in contact with the skin of the wearer; characterized by a second fabric portion extending downward from the first fabric portion and configured to be positioned about an abdominal region of the wearer and having a second compression rating; a third fabric portion extending upward from the first fabric portion and configured to be positioned about an upper chest portion of the wearer and having a third compression rating; and a fourth fabric portion extending downward from the second fabric portion and configured to be positioned about a waist region of the wearer and having a fourth compression rating; wherein the second compression rating is less than the first compression rating, the third compression rating is less than the first compression rating and similar to the second compression rating, and the fourth compression rating is less than the second compression rating. a first fabric portion configured to be positioned about a chest region of a wearer and having a first compression rating and an inner surface that includes at least a portion of a sensor assembly configured to be placed in contact with the skin of the wearer; characterized by a second fabric portion extending downward from the first fabric portion and configured to be positioned about an abdominal region of the wearer and having a second compression rating; a third fabric portion extending upward from the first fabric portion and configured to be positioned about an upper chest portion of the wearer and having a third compression rating; and a fourth fabric portion extending downward from the second fabric portion and configured to be positioned about a waist region of the wearer and having a fourth compression rating; wherein the second compression rating is less than the first compression rating, the third compression rating is less than the first compression rating and similar to the second compression rating, and the fourth compression rating is less than the second compression rating.
Electrically insulating composite material ( 1 that may be used in high voltage, and formed from: i) a polyepoxide matrix of cycloaliphatic type or of diglycidylether type in a content of less than 40% by mass, ii) from 20 to 75% by mass of one or several micrometric and/or mesometric filler(s) , iii) from 0.1 to 20% by mass of at least one ionic liquid , the masses being expressed relative to the total mass of the electrically insulating composite material, and the mesometric fillers being fillers whose largest dimension is comprised between 100 nanometers and 2 micrometers that may be measured as described in the specification. i) a polyepoxide matrix of cycloaliphatic type or of diglycidylether type in a content of less than 40% by mass, ii) from 20 to 75% by mass of one or several micrometric and/or mesometric filler(s) , iii) from 0.1 to 20% by mass of at least one ionic liquid , the masses being expressed relative to the total mass of the electrically insulating composite material, and the mesometric fillers being fillers whose largest dimension is comprised between 100 nanometers and 2 micrometers that may be measured as described in the specification.
A data aggregation system comprising: a processor subsystem; and a memory device including instructions, which when executed by the processor subsystem, cause the processor subsystem to perform operations comprising: requesting a data element from an issuer, wherein the data element is identified with a unique identifier; receiving a response from the issuer; and preparing an aggregated data package to issue, the aggregated data package comprising data elements from a plurality of issuers, wherein the data element from the issuer is included by reference with a uniform resource identifier related to the issuer, and optionally, wherein the uniform resource identifier is a uniform resource locator. a processor subsystem; and a memory device including instructions, which when executed by the processor subsystem, cause the processor subsystem to perform operations comprising: requesting a data element from an issuer, wherein the data element is identified with a unique identifier; receiving a response from the issuer; and preparing an aggregated data package to issue, the aggregated data package comprising data elements from a plurality of issuers, wherein the data element from the issuer is included by reference with a uniform resource identifier related to the issuer, and optionally, wherein the uniform resource identifier is a uniform resource locator. requesting a data element from an issuer, wherein the data element is identified with a unique identifier; receiving a response from the issuer; and preparing an aggregated data package to issue, the aggregated data package comprising data elements from a plurality of issuers, wherein the data element from the issuer is included by reference with a uniform resource identifier related to the issuer, and optionally, wherein the uniform resource identifier is a uniform resource locator.
A method comprising: operating a magnetometer of a mobile device during a trip in a vehicle to acquire magnetometer data, wherein the magnetometer is included in one or more sensors of the mobile device; acquiring speed data from a sensor of the one or more sensors of the mobile device during the trip in the vehicle; correlating, by a processor of the mobile device, the magnetometer data to the speed data to separate the magnetometer data into one or more groupings based on the speed data; performing, by the processor of the mobile device, spectral analysis on a magnitude of the magnetometer data for each of the one or more groupings to obtain one or more sets of frequency components; calculating, by the processor of the mobile device, an energy for each frequency component of the one or more sets of frequency components obtained from the spectral analysis; generating a plurality of differences between the energy of the frequency components in each set of frequency components and baseline values; and assigning, by the processor of the mobile device, a transportation mode type to the vehicle based on the plurality of differences. operating a magnetometer of a mobile device during a trip in a vehicle to acquire magnetometer data, wherein the magnetometer is included in one or more sensors of the mobile device; acquiring speed data from a sensor of the one or more sensors of the mobile device during the trip in the vehicle; correlating, by a processor of the mobile device, the magnetometer data to the speed data to separate the magnetometer data into one or more groupings based on the speed data; performing, by the processor of the mobile device, spectral analysis on a magnitude of the magnetometer data for each of the one or more groupings to obtain one or more sets of frequency components; calculating, by the processor of the mobile device, an energy for each frequency component of the one or more sets of frequency components obtained from the spectral analysis; generating a plurality of differences between the energy of the frequency components in each set of frequency components and baseline values; and assigning, by the processor of the mobile device, a transportation mode type to the vehicle based on the plurality of differences.
A medical imaging device for imaging a patient during a medical imaging process, the medical imaging device comprising: a housing including: a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a ventilation channel having an opening within the bore, wherein the opening extends around at least a portion of the bore circumference; and at least one lighting circuit , positioned within the ventilation channel, and configured to illuminate the bore, wherein the ventilation channel is configured to allow air to pass through the ventilation channel and over the at least one lighting circuit; wherein the at least one lighting circuit comprises one or more light emitting diodes mounted on a printed circuit board; and wherein at least one light emitting diode has a direction of light emission that is parallel to the plane of the printed circuit board. a housing including: a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a bore extending in a lateral direction between a proximal end and a distal end, wherein the bore is configured to accommodate at least a portion of the patient extending in the lateral direction during the medical imaging process, wherein a cross-section of the bore has a circumference; and an imager configured to generate images of the patient as the patient extends in the lateral direction within the bore; a ventilation channel having an opening within the bore, wherein the opening extends around at least a portion of the bore circumference; and at least one lighting circuit , positioned within the ventilation channel, and configured to illuminate the bore, wherein the ventilation channel is configured to allow air to pass through the ventilation channel and over the at least one lighting circuit; wherein the at least one lighting circuit comprises one or more light emitting diodes mounted on a printed circuit board; and wherein at least one light emitting diode has a direction of light emission that is parallel to the plane of the printed circuit board.
A plant for drying objects which release volatile substances, comprising a drying tunnel with a conveying system which conveys the objects through the tunnel, sensors in the tunnel to measure the concentration of volatile substances and air exchange units controlled by the sensors to exchange air in the tunnel, characterised by the fact that the sensors are a plurality of sensors arranged distributed along the tunnel to be in contact with the air flowing through the tunnel for measuring the distribution trend of the concentration of volatile substances along the tunnel, and the air exchange units are a plurality of the air exchange units distributed along the tunnel so that each air exchange unit exchanges air in an associated zone along the tunnel, the plurality of air exchange units being controlled by the plurality of sensors according to the distribution trend of the concentration of volatile substances along the tunnel, so as to keep the concentration of volatile substances arranged along the tunnel below a pre-established value.
A process for producing a silicon-containing CMC article, the process comprising: depositing one or more coating layers on silicon carbide fibers; drawing the coated silicon carbide fibers through a slurry to produce slurry-coated fiber material; producing unidirectional prepreg tapes from the slurry-coated fiber material; stacking the tapes to form a preform; firing the preform to yield a porous fired preform; and then densifying the porous fired preform by infiltrating porosity therein to yield a CMC article, wherein the composition of the slurry comprises a 1:1 stoichiometric mixture of elemental silicon and carbon black that react during firing of the preform at temperatures of 1430°C to 1460°C. depositing one or more coating layers on silicon carbide fibers; drawing the coated silicon carbide fibers through a slurry to produce slurry-coated fiber material; producing unidirectional prepreg tapes from the slurry-coated fiber material; stacking the tapes to form a preform; firing the preform to yield a porous fired preform; and then densifying the porous fired preform by infiltrating porosity therein to yield a CMC article, wherein the composition of the slurry comprises a 1:1 stoichiometric mixture of elemental silicon and carbon black that react during firing of the preform at temperatures of 1430°C to 1460°C.
A device for treatment of an anatomic defect, comprising: a synthetic polymeric material substrate; and an acellular tissue matrix embedded in the synthetic polymeric material substrate lattice framework, wherein the acellular tissue matrix comprises an adipose tissue matrix. a synthetic polymeric material substrate; and an acellular tissue matrix embedded in the synthetic polymeric material substrate lattice framework, wherein the acellular tissue matrix comprises an adipose tissue matrix.