mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula XII: wherein, D is a carbonyl; and X is O; a compound of Formula XII-A: wherein, R 14 is a substituted or unsubstituted group selected from C 1 -C 12 alkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, C 3 -C 15 cycloalkyl, C 3 -C 15 heterocycloalkyl, C 6 -C 15 aryl, C 5 -C 15 heteroaryl, or a pharmaceutically acceptable salt or solvate thereof. D is a carbonyl; and X is O; R 14 is a substituted or unsubstituted group selected from C 1 -C 12 alkyl, C 2 -C 12 alkenyl, C 2 -C 12 alkynyl, C 3 -C 15 cycloalkyl, C 3 -C 15 heterocycloalkyl, C 6 -C 15 aryl, C 5 -C 15 heteroaryl, or a pharmaceutically acceptable salt or solvate thereof.
A product having a luminous surface, the product comprising: - a light guide providing the luminous surface, the light guide comprising a plurality of scattering elements for producing a substantially homogeneous light output across the luminous surface characterised by: - a plurality of solid state lighting elements (20, 20'), each of the solid state lighting elements (20, 20') being arranged to emit a beam of light (30, 30') into the light guide, wherein the light guide further comprises a first body arranged to create respective light patterns in the light guide by creating respective regions (50, 50', 52, 52') in the light guide that are shaded from the respective beams of light (30, 30'). - a light guide providing the luminous surface, the light guide comprising a plurality of scattering elements for producing a substantially homogeneous light output across the luminous surface characterised by: - a plurality of solid state lighting elements (20, 20'), each of the solid state lighting elements (20, 20') being arranged to emit a beam of light (30, 30') into the light guide, wherein the light guide further comprises a first body arranged to create respective light patterns in the light guide by creating respective regions (50, 50', 52, 52') in the light guide that are shaded from the respective beams of light (30, 30'). - a plurality of solid state lighting elements (20, 20'), each of the solid state lighting elements (20, 20') being arranged to emit a beam of light (30, 30') into the light guide,
A laminated medium comprising: a heat-sensitive medium comprising: a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material, the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and an adhesive medium comprising: a second base material; and a first adhesive layer provided on one surface of the second base material, wherein the heat-sensitive medium and the adhesive medium are superimposed such that the first heat-sensitive layer and the first adhesive layer are interposed between the first base material and the second base material, and wherein the adhesive medium has an ultraviolet absorbance greater than an ultraviolet absorbance of the first base material, characterized in that the adhesive medium further comprises a second adhesive layer provided on another surface of the second base material, and the laminated medium further comprises a release paper superimposed on an opposite side of the second adhesive layer from the second base material. a heat-sensitive medium comprising: a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material, the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and a first base material having a transparency; and a first heat-sensitive layer having a transparency, the first heat-sensitive layer being provided on one surface of the first base material, the first heat-sensitive layer being configured to develop a first color when heated to a first temperature or higher; and an adhesive medium comprising: a second base material; and a first adhesive layer provided on one surface of the second base material, a second base material; and a first adhesive layer provided on one surface of the second base material, wherein the heat-sensitive medium and the adhesive medium are superimposed such that the first heat-sensitive layer and the first adhesive layer are interposed between the first base material and the second base material, and wherein the adhesive medium has an ultraviolet absorbance greater than an ultraviolet absorbance of the first base material, characterized in that the adhesive medium further comprises a second adhesive layer provided on another surface of the second base material, and the laminated medium further comprises a release paper superimposed on an opposite side of the second adhesive layer from the second base material.
A beam deflector comprising: an electrooptic crystal having an electrooptic effect; and an electrode pair having a positive electrode and a negative electrode, which are formed of a material that serves as an ohmic contact for a carrier that contributes to electrical conduction of the electrooptic crystal, and for generating an electric field inside the electrooptic crystal when a voltage is applied thereto; a light source arranged to make light incident on the electrooptical crystal with an incident light axis perpendicular to the direction of the electric field, a voltage source adapted to apply the voltage to the electrode pair for injecting the carrier into the electrooptic crystal and for generating the electric field, characterized in that the voltage source is adapted to apply the voltage such that a space charge is generated inside the electrooptic crystal, wherein a relationship between the voltage and a current flowing through the electrooptical crystal is outside Ohm's law due to the space charge, and such that a space-charge limited state occurs wherein the current increases non-linearly dependent on an increase of the voltage, and the electric field distribution between the electrode pair changes in along a direction from the positive electrode to the negative electrode. an electrooptic crystal having an electrooptic effect; and an electrode pair having a positive electrode and a negative electrode, which are formed of a material that serves as an ohmic contact for a carrier that contributes to electrical conduction of the electrooptic crystal, and for generating an electric field inside the electrooptic crystal when a voltage is applied thereto; a light source arranged to make light incident on the electrooptical crystal with an incident light axis perpendicular to the direction of the electric field, a voltage source adapted to apply the voltage to the electrode pair for injecting the carrier into the electrooptic crystal and for generating the electric field,
Bale collecting vehicle for collecting and transporting round bales, comprising at least one collecting frame, which is mounted on a chassis of the bale collecting vehicle so as to be pivotable about an axis extending in the longitudinal direction of the collecting frame such that said collecting frame is pivotable between an upwardly pivoted transport position and a downwardly pivoted collecting position, wherein the bale collecting vehicle has an adjusting mechanism by means of which the collecting frame is pivotable about a vertical axis (32, 46, 52), characterised in that - the adjusting mechanism comprises a cross-member arrangement of the chassis which can extend and retract telescopically in the transverse direction of the bale collecting vehicle and on which a first collecting frame area is mounted, wherein a second collecting frame area, which is spaced apart from the first collecting frame area in the longitudinal direction of the collecting frame, is mounted on the chassis so as to be pivotable about the vertical axis; - or the collecting frame is arranged on two cross members (48, 50) spaced apart from each other in the longitudinal direction of the bale collecting vehicle, wherein the adjusting mechanism is formed due to the fact that at least one of the two cross members (48, 50) is mounted on the chassis of the bale collecting vehicle so as to be pivotable about the vertical axis. - the adjusting mechanism comprises a cross-member arrangement of the chassis which can extend and retract telescopically in the transverse direction of the bale collecting vehicle and on which a first collecting frame area is mounted, wherein a second collecting frame area, which is spaced apart from the first collecting frame area in the longitudinal direction of the collecting frame, is mounted on the chassis so as to be pivotable about the vertical axis; - or the collecting frame is arranged on two cross members (48, 50) spaced apart from each other in the longitudinal direction of the bale collecting vehicle, wherein the adjusting mechanism is formed due to the fact that at least one of the two cross members (48, 50) is mounted on the chassis of the bale collecting vehicle so as to be pivotable about the vertical axis.
System protection and insulation of an omnibus bar comprising a bus bar and at least one fixing screw, comprising a body and a head screw for fixing between said bar and an electrical power source, the bus bar having an orifice for the passage of the body of each screw, characterized in that the body part of screw protruding relative to the bus bar is fully covered by a cap of electrically insulating (6, 7).
A mobile device comprising: a camera configured for capturing an image; a visual display; and a processor communicatively coupled to the camera and the visual display, the processor being configured for: displaying the image on the visual display, wherein the image comprises a plurality of code symbols; receiving a selection input indicating a selected code symbol of the plurality of code symbols; characterized by the processor being further configured for: determining whether the selected code symbol is completely decodable to obtain data of the selected code symbol, including decoding the selected code symbol and using error detection means to verify that the decoding of the selected code symbol is a complete decoding; and in response to determining that the selected code symbol is completely decodable, displaying, on the visual display, a positive indicator overlaying the selected code symbol. a camera configured for capturing an image; a visual display; and a processor communicatively coupled to the camera and the visual display, the processor being configured for: displaying the image on the visual display, wherein the image comprises a plurality of code symbols; receiving a selection input indicating a selected code symbol of the plurality of code symbols; displaying the image on the visual display, wherein the image comprises a plurality of code symbols; receiving a selection input indicating a selected code symbol of the plurality of code symbols; determining whether the selected code symbol is completely decodable to obtain data of the selected code symbol, including decoding the selected code symbol and using error detection means to verify that the decoding of the selected code symbol is a complete decoding; and in response to determining that the selected code symbol is completely decodable, displaying, on the visual display, a positive indicator overlaying the selected code symbol.
Garment, especially sports garment, wherein the garment is a jacket or shirt having a section which at least partially covers the body of a wearer, wherein the section has at least one venting element for allowing an air flow to flow from the outside of the garment through the section into the inner of the garment for cooling a part of the body of the wearer, wherein actuating means are arranged for opening and closing the venting element in dependence of the movement of a part of the body of the wearer during the use of the garment, characterized in that the actuating means comprise a material section which is connected with a first end with the venting element and can be connected with a second end with a hand of the wearer, wherein the actuating means comprises at least a part of the arm sleeve of the jacket or shirt, wherein the second end of the arm sleeve has at least one opening for a thumb of the wearer.
An apparatus comprising: a cannula having a first end, a second end, and a channel extending between the first end and the second end, the cannula having a primary portion and a distal portion between the primary portion and the second end; a penetrator having an enlarged head, a pointed distal end, and a first transverse dimension of less than 1.2 millimeters (mm), the penetrator configured to be disposed in the channel of the cannula such that the penetrator is movable between a retracted position and an extended position in which the distal end extends beyond the second end of the cannula by a penetration distance of at least 5 mm that is limited by the enlarged head contacting the cannula; where the penetrator is configured to be moved from the retracted position to the extended position substantially without rotation of the penetrator to form in subchondral bone a microfracture having a depth of at least 5 mm, characterized in that the distal portion of the cannula is configured such that a second end of the channel is disposed at an angle relative to a first end of the channel. a cannula having a first end, a second end, and a channel extending between the first end and the second end, the cannula having a primary portion and a distal portion between the primary portion and the second end; a penetrator having an enlarged head, a pointed distal end, and a first transverse dimension of less than 1.2 millimeters (mm), the penetrator configured to be disposed in the channel of the cannula such that the penetrator is movable between a retracted position and an extended position in which the distal end extends beyond the second end of the cannula by a penetration distance of at least 5 mm that is limited by the enlarged head contacting the cannula; where the penetrator is configured to be moved from the retracted position to the extended position substantially without rotation of the penetrator to form in subchondral bone a microfracture having a depth of at least 5 mm, characterized in that the distal portion of the cannula is configured such that a second end of the channel is disposed at an angle relative to a first end of the channel.
A light source device configured to contact a subject's skin above a tender area in the subject's body comprising: a plurality of clusters of light delivery sources arranged in a ring, each of the clusters of light delivery sources comprising: a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a permanent magnet that provides a constant magnetic field from 5 mT - 1 T; a processing unit preprogrammed with a time for application of the light signal to the tender point; and a battery. a plurality of clusters of light delivery sources arranged in a ring, each of the clusters of light delivery sources comprising: a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a permanent magnet that provides a constant magnetic field from 5 mT - 1 T; a processing unit preprogrammed with a time for application of the light signal to the tender point; and a battery.
A method comprising (i) determining a level of a myosin binding protein-C (MyBP-C), or fragment of MyBP-C having a molecular weight of 75 kDa, 40 kDa, or 25 kDa, wherein the MyBP-C or fragment is optionally S-glutathionylated, in a biological sample obtained from the subject, wherein the method is for diagnosing diastolic dysfunction or diastolic heart failure, differentiating between diastolic dysfunction and systolic dysfunction, or for characterizing heart failure as diastolic heart failure or systolic heart failure, determining a subject's need for treatment for diastolic dysfunction or diastolic heart failure, or identifying a patient at risk for diastolic dysfunction or diastolic heart failure, wherein, when the method is for determining a subject's need for treatment for diastolic dysfunction or diastolic heart failure, the method comprises determining the subject as a subject who needs treatment for diastolic dysfunction or diastolic heart failure when the level is increased, as compared to a control level, wherein, when the method is for identifying a patient at risk for diastolic dysfunction or diastolic heart failure, the method comprises identifying the subject as a subject at risk for diastolic dysfunction or diastolic heart failure, when the level of MyBP-C or fragment thereof, or a S-glutathionylated MyBP-C or fragment thereof, is increased, relative to a control level. wherein, when the method is for determining a subject's need for treatment for diastolic dysfunction or diastolic heart failure, the method comprises determining the subject as a subject who needs treatment for diastolic dysfunction or diastolic heart failure when the level is increased, as compared to a control level, wherein, when the method is for identifying a patient at risk for diastolic dysfunction or diastolic heart failure, the method comprises identifying the subject as a subject at risk for diastolic dysfunction or diastolic heart failure, when the level of MyBP-C or fragment thereof, or a S-glutathionylated MyBP-C or fragment thereof, is increased, relative to a control level.
An infrared imaging device, comprising: an infrared imaging sensor in which a plurality of pixels for detecting incident infrared light as heat are arrayed; a substrate temperature sensor to measure a temperature of a substrate on which the infrared imaging sensor is mounted; a temperature drift compensation amount calculation unit to calculate a temperature drift compensation amount (Dc) in accordance with a temperature change of the substrate, with respect to a pixel output (Sp) outputted from each of the plurality of pixels; a function generation unit to generate an approximate function (Af) for calculating the temperature drift compensation amount (Dc) with the temperature of the substrate as an independent variable; and a timing control unit to cause the infrared imaging sensor and the substrate temperature sensor to synchronously output data to the function generation unit during a period (Pb to Pd, Pe) in which the temperature of the substrate changes along with a start of energization to the substrate, as data for generation to generate the function (Af), wherein the function generation unit uses the data output after the generation of the function (Af) among the synchronously output data as additional data to be added to used data in the generation of the function (Af), and recalculates the function (Af) for improving accuracy of the function (Af). an infrared imaging sensor in which a plurality of pixels for detecting incident infrared light as heat are arrayed; a substrate temperature sensor to measure a temperature of a substrate on which the infrared imaging sensor is mounted; a temperature drift compensation amount calculation unit to calculate a temperature drift compensation amount (Dc) in accordance with a temperature change of the substrate, with respect to a pixel output (Sp) outputted from each of the plurality of pixels; a function generation unit to generate an approximate function (Af) for calculating the temperature drift compensation amount (Dc) with the temperature of the substrate as an independent variable; and a timing control unit to cause the infrared imaging sensor and the substrate temperature sensor to synchronously output data to the function generation unit during a period (Pb to Pd, Pe) in which the temperature of the substrate changes along with a start of energization to the substrate, as data for generation to generate the function (Af), wherein the function generation unit uses the data output after the generation of the function (Af) among the synchronously output data as additional data to be added to used data in the generation of the function (Af), and recalculates the function (Af) for improving accuracy of the function (Af).
Method of protection, of a Rijndael algorithm executed by an electronic circuit, against hidden channel attacks, in which: each block (t) of data to be enciphered or deciphered is masked by a first mask (m) before application of a nonlinear block substitution operation based on a substitution table (S'), and is then unmasked by a second mask (m') after substitution; and the substitution table is recalculated (51, 52, 24), block by block, before application of the nonlinear operation, the order of processing of the blocks of the substitution table being subjected to a random permutation (γ), commutative with the nonlinear substitution operation. each block (t) of data to be enciphered or deciphered is masked by a first mask (m) before application of a nonlinear block substitution operation based on a substitution table (S'), and is then unmasked by a second mask (m') after substitution; and the substitution table is recalculated (51, 52, 24), block by block, before application of the nonlinear operation, the order of processing of the blocks of the substitution table being subjected to a random permutation (γ), commutative with the nonlinear substitution operation.
Apparatus for releasable fixing of a removable dental prosthesis at a head part of an implant or of an abutment anchorable in an implant comprising a retention matrix having a receptacle, which receives an annular retainer element having at least two tensioning arms, which is movably arranged along a centre axis of the retention matrix, wherein the retainer element has an outer thread, which engages in an inner thread arranged in the receptacle, via which the retainer element is movable by rotation along the centre axis of the retention matrix, characterised in that the at least two tensioning arms form a conically outwardly flared surface area and that the receptacle has two sections (14, 15) with a different inner diameter for the retainer element at a distance to the inner thread, against the transitions of which the at least two tensioning arms abut.