mhurhangee/ep-ind-claims huggingface dataset:
A complex of a peptide consisting of (a) an amino acid sequence that is the same as the amino acid sequence of SEQ ID NO: 1, and (b) an amino acid sequence that is the same as the amino acid sequence of any of SEQ ID NOs: 10, 11 and 29 to 36, 2 to 9, 12 or 14 to 16, wherein the complex has (a) at the N-terminal side and (b) at the C-terminal side, wherein (a) is conjugated to (b) via ε-aminocaproic acid, wherein the amino acid at the N-terminus of the complex is acetylated, and wherein the amino acid at the C-terminus of the complex is amidated.
A constant velocity joint comprising: a cylindrical body having an axis; a plurality of projections spaced about the circumference of the cylindrical body, wherein each projection of the plurality of projections projects from a cylindrical outer surface of the cylindrical body in a radial direction, wherein each projection of the plurality of projections is elliptical in cross-section in a plane orthogonal to the radial direction, and wherein a major axis of the elliptical cross-section is parallel to the axis of the cylindrical body; wherein an end surface of each projection of the plurality of projections is formed radially distal from the cylindrical outer surface of the cylindrical body; and an adapter having a plurality of cylindrical interior grooves formed parallel to a longitudinal axis of the adapter, disposed over the plurality of projections, wherein each of the plurality of projections directly mates with one of the plurality of cylindrical interior grooves. a cylindrical body having an axis; a plurality of projections spaced about the circumference of the cylindrical body, wherein each projection of the plurality of projections projects from a cylindrical outer surface of the cylindrical body in a radial direction, wherein each projection of the plurality of projections is elliptical in cross-section in a plane orthogonal to the radial direction, and wherein a major axis of the elliptical cross-section is parallel to the axis of the cylindrical body; wherein an end surface of each projection of the plurality of projections is formed radially distal from the cylindrical outer surface of the cylindrical body; and an adapter having a plurality of cylindrical interior grooves formed parallel to a longitudinal axis of the adapter, disposed over the plurality of projections, wherein each of the plurality of projections directly mates with one of the plurality of cylindrical interior grooves.
An interferometric distance sensing device, comprising - a light source; - a partially reflecting element, configured to reflect a first fraction of light intensity from the light source, to transmit a second fraction of the light intensity from the light source, to receive light resulting from reflection of the transmitted second fraction by a target, and to return the received light as returned light together with the reflected first fraction; - a first and second optical branch path (15a,b, 24a,b), configured to transmit respective parts of an intensity of a combination of the returned light and the reflected first fraction from the partially reflecting element in parallel with each other; - an N way coupler, wherein N is at least three, comprising a first side with terminals coupled to the first and second optical branch path (15a,b, 24a,b) respectively, the first optical branch path providing for a larger optical path length than the second optical branch path; - at least three light intensity detectors (17a-c) optically coupled to respective terminals at a second side of the N way coupler; - a signal processing circuit with inputs coupled to the light intensity detectors (17a-c), the signal processing circuit configured to determine information representing an excess distance, traveled by the second fraction from the partially reflecting element and back from detection signals, from the at least three light intensity detectors (17a-c). - a light source; - a partially reflecting element, configured to reflect a first fraction of light intensity from the light source, to transmit a second fraction of the light intensity from the light source, to receive light resulting from reflection of the transmitted second fraction by a target, and to return the received light as returned light together with the reflected first fraction; - a first and second optical branch path (15a,b, 24a,b), configured to transmit respective parts of an intensity of a combination of the returned light and the reflected first fraction from the partially reflecting element in parallel with each other; - an N way coupler, wherein N is at least three, comprising a first side with terminals coupled to the first and second optical branch path (15a,b, 24a,b) respectively, the first optical branch path providing for a larger optical path length than the second optical branch path; - at least three light intensity detectors (17a-c) optically coupled to respective terminals at a second side of the N way coupler; - a signal processing circuit with inputs coupled to the light intensity detectors (17a-c), the signal processing circuit configured to determine information representing an excess distance, traveled by the second fraction from the partially reflecting element and back from detection signals, from the at least three light intensity detectors (17a-c).
An electromagnetic relay comprising: a fixed contact; a moving contact movable with respect to the fixed contact; and a pair of magnets (31a,32a) arranged so as to sandwich the fixed contact and the moving contact, pole faces (311 a,321 a) of the pair of magnets with mutually reversed polarity being separated from and facing each other across the contact gap; characterised by a pair of arc cooling plates (33a,34a) arranged in a space between the pair of magnets (31 a,32a), at a position apart from the fixed contact and the moving contact in a direction in which an arc generated between the fixed contact and and the moving contact is stretched by a magnetic field of the pair of magnets, with a gap defined between the pair of arc cooling plates, and wherein the pair of arc cooling plates have a first surface (331a,341a) and a second surface (332a,342a), the first surfaces (331a,341a) of the pair of arc cooling plates facing each other across the gap and second surfaces (332a,342a) of the pair of arc cooling plates facing a pole face of either of said the pair of magnets, and wherein the pair of arc cooling plates (33a,34a) are positioned so as not to sandwich the fixed contact and the moving contact. a fixed contact; a moving contact movable with respect to the fixed contact; and a pair of magnets (31a,32a) arranged so as to sandwich the fixed contact and the moving contact, pole faces (311 a,321 a) of the pair of magnets with mutually reversed polarity being separated from and facing each other across the contact gap; characterised by a pair of arc cooling plates (33a,34a) arranged in a space between the pair of magnets (31 a,32a), at a position apart from the fixed contact and the moving contact in a direction in which an arc generated between the fixed contact and and the moving contact is stretched by a magnetic field of the pair of magnets, with a gap defined between the pair of arc cooling plates, and wherein the pair of arc cooling plates have a first surface (331a,341a) and a second surface (332a,342a), the first surfaces (331a,341a) of the pair of arc cooling plates facing each other across the gap and second surfaces (332a,342a) of the pair of arc cooling plates facing a pole face of either of said the pair of magnets, and wherein the pair of arc cooling plates (33a,34a) are positioned so as not to sandwich the fixed contact and the moving contact.
Method for calibrating a force measuring device, by means of which a bearing load G 1 in a supporting bearing of a lower link of a three-point hitch of an agricultural working vehicle can be determined, in which measured output voltages U L of the force measuring device and bearing loads G 1 which are determined at at least two angular positions of the lower link as a function of a weight which is coupled to the lower link and represents a defined payload are placed in a functional relationship.
A centroid contact radiation detector, CCRD, system comprising: (a) P-type bulk germanium volume, PGEV; (b) N+ electrode; and (c) P+ electrode; wherein: said PGEV is symmetrically constructed along a central vertical longitudinal axis; said PGEV further comprises an internal surface and an external surface; said external surface comprises an outer surface and a cavity entry region, CER; said PGEV further comprises an internal well cavity void, IWCV, coincident with said CER, the surface of said IWCV forming said internal surface; said IWCV further comprises one or more side surfaces and a contact surface; said N+ electrode is formed on said external surface; and said P+ electrode is a centralized internal signal electrode located on said contact surface and centralized at a geometric centroid of said PGEV. (a) P-type bulk germanium volume, PGEV; (b) N+ electrode; and (c) P+ electrode; said PGEV is symmetrically constructed along a central vertical longitudinal axis; said PGEV further comprises an internal surface and an external surface; said external surface comprises an outer surface and a cavity entry region, CER; said PGEV further comprises an internal well cavity void, IWCV, coincident with said CER, the surface of said IWCV forming said internal surface; said IWCV further comprises one or more side surfaces and a contact surface; said N+ electrode is formed on said external surface; and said P+ electrode is a centralized internal signal electrode located on said contact surface and centralized at a geometric centroid of said PGEV.
An electrosurgical assembly comprising: one or more electrodes (18, 20, 22); one or more AC conductors (24, 26) electrically connecting the one or more electrodes to a power source that is configured to generate and output an AC power signal to the one or more electrodes via the one or more AC conductors; a rectifier electrically connected to the one or more AC conductors, the rectifier configured to convert the AC power signal into a DC power signal; a hand piece including a plurality of electrical terminals (32A, 32B); and a functional element including a pair of electrical terminals (38A, 38B) the functional element configured to be removably attached to the handpiece; wherein upon attaching the functional element to the hand piece, the pair of electrical terminals (38A, 38B) on the functional element electrically connect to a pair of the plurality of electrical terminals (32A, 32B) of the hand piece to electrically power the functional element by the DC power signal, wherein the rectifier is located inside the hand piece. one or more electrodes (18, 20, 22); one or more AC conductors (24, 26) electrically connecting the one or more electrodes to a power source that is configured to generate and output an AC power signal to the one or more electrodes via the one or more AC conductors; a rectifier electrically connected to the one or more AC conductors, the rectifier configured to convert the AC power signal into a DC power signal; a hand piece including a plurality of electrical terminals (32A, 32B); and a functional element including a pair of electrical terminals (38A, 38B) the functional element configured to be removably attached to the handpiece; wherein upon attaching the functional element to the hand piece, the pair of electrical terminals (38A, 38B) on the functional element electrically connect to a pair of the plurality of electrical terminals (32A, 32B) of the hand piece to electrically power the functional element by the DC power signal, wherein the rectifier is located inside the hand piece.
A mobile communications device for use with an accessory having a connection plug, with the connection plug being of the type having a conical tip portion, a distal end portion, a cylindrical bearing surface extending therebetween, one or more electrical contact rings (240, 242, 244, 246) and a tip insulating ring extending about the conical tip portion, thus defining a tip detection contact, the mobile communications device comprising: a) a tip detection pin, b) one or more electrical contact pins (260, 262, 264, 266), c) a housing, d) an accessory connection socket extending into the housing to accommodate the connection plug; wherein the connection socket includes a barrel-shaped bearing surface which defines one or more apertures formed therein, with each of the electrical contact pins (260, 262, 264, 266) extending from a respective one of the apertures; and e) a serial bus master device adapted to be electrically coupled to the tip detection contact; wherein the connection socket is adapted to engage the connection plug in use, with each of the electrical contact pins (260, 262, 264, 266) engaging a respective one of the electrical contact rings (240, 242, 244, 246), and with the tip detection pin engaging the tip detection contact, thus enabling identification of the accessory by the mobile communications device; and the mobile communications device is configured to identify the accessory by a serial number device electrically coupled between the tip detection contact and an operatively grounded one of the electrical contact rings (240, 242, 244, 246). a) a tip detection pin, b) one or more electrical contact pins (260, 262, 264, 266), c) a housing, d) an accessory connection socket extending into the housing to accommodate the connection plug; wherein the connection socket includes a barrel-shaped bearing surface which defines one or more apertures formed therein, with each of the electrical contact pins (260, 262, 264, 266) extending from a respective one of the apertures; and e) a serial bus master device adapted to be electrically coupled to the tip detection contact; wherein the connection socket is adapted to engage the connection plug in use, with each of the electrical contact pins (260, 262, 264, 266) engaging a respective one of the electrical contact rings (240, 242, 244, 246), and with the tip detection pin engaging the tip detection contact, thus enabling identification of the accessory by the mobile communications device; and the mobile communications device is configured to identify the accessory by a serial number device electrically coupled between the tip detection contact and an operatively grounded one of the electrical contact rings (240, 242, 244, 246).
A Cu-Ga alloy sputtering target made of a Cu-Ga alloy, wherein a carbon concentration is 1.0 ppm by mass to 30 ppm by mass, an oxygen concentration is 150 ppm by mass or lower, and in an observed structure, an area ratio of crystal grains having a grain size of 10 μm or less is 5% to 50% and an area ratio of crystal grains having a grain size of 100 μm or more is 1% to 30%, the oxygen concentration being measured using an infrared absorption method described in "General Rules for Determination of Oxygen in Metallic Materials" of JIS Z 2613, the carbon concentration being measured using an infrared absorption method described in "General Rules for Determination of Carbon in Metallic Materials" of JIS Z 2615, and the area ratio of crystal grains having a grain size of 10 μm or less and the area ratio of crystal grains having a grain size of 100 μm or more being determined by observing the sputtering surface which was polished and etched with nitric acid with an optical microscope at 250 times measurement magnification, the observed area being 7.5 mm 2 or more, measuring the crystal grain sizes of crystal grains by line segment method, and calculating the area ratio of crystal grains having a grain size of 10 μm or less, and the area ratio of crystal grains having a grain size of 100 μm or more, wherein the area ratio is calculated by drawing a square lattice where the interval between the lines is comparative with 5 μm on a printed micrograph of the structure and counting the number of squares contained in each grain. wherein a carbon concentration is 1.0 ppm by mass to 30 ppm by mass, an oxygen concentration is 150 ppm by mass or lower, and in an observed structure, an area ratio of crystal grains having a grain size of 10 μm or less is 5% to 50% and an area ratio of crystal grains having a grain size of 100 μm or more is 1% to 30%, the oxygen concentration being measured using an infrared absorption method described in "General Rules for Determination of Oxygen in Metallic Materials" of JIS Z 2613, the carbon concentration being measured using an infrared absorption method described in "General Rules for Determination of Carbon in Metallic Materials" of JIS Z 2615, and the area ratio of crystal grains having a grain size of 10 μm or less and the area ratio of crystal grains having a grain size of 100 μm or more being determined by observing the sputtering surface which was polished and etched with nitric acid with an optical microscope at 250 times measurement magnification, the observed area being 7.5 mm 2 or more, measuring the crystal grain sizes of crystal grains by line segment method, and calculating the area ratio of crystal grains having a grain size of 10 μm or less, and the area ratio of crystal grains having a grain size of 100 μm or more, wherein the area ratio is calculated by drawing a square lattice where the interval between the lines is comparative with 5 μm on a printed micrograph of the structure and counting the number of squares contained in each grain.
A method for managing, by an application manager of a communication device, a secure element, the communication device having a memory for storing one or more device applications, the method comprising: determining that an application stored on the secure element does not have an association with any of the device applications; and in response to said determining, sending a communication to a server to delete the application from the secure element. determining that an application stored on the secure element does not have an association with any of the device applications; and in response to said determining, sending a communication to a server to delete the application from the secure element.
A method for selectively forming Group III-nitrides on predetermined substrate areas comprising the steps of: a) providing a substrate of material compatible with the growth of a Group III-nitride layer; b) masking said substrate with a layer of masking material so as to leave exposed those areas of said substrate selected for growth of a Group III-nitride layer; c) epitaxially growing a Group III-nitride layer over the structure formed in step b) using an epitaxial processing that yields vertical growth in order to replicate the mask dimensions onto the substrate surface, the epitaxial material grown over the masking layer being polycrystalline and the epitaxial material grown over the substrate being single crystal; d) etching the epitaxial Group III-nitride material with an etchant that selectively removes polycrystalline material with respect to single crystal material; and e) removing the masking layer of step b). a) providing a substrate of material compatible with the growth of a Group III-nitride layer; b) masking said substrate with a layer of masking material so as to leave exposed those areas of said substrate selected for growth of a Group III-nitride layer; c) epitaxially growing a Group III-nitride layer over the structure formed in step b) using an epitaxial processing that yields vertical growth in order to replicate the mask dimensions onto the substrate surface, the epitaxial material grown over the masking layer being polycrystalline and the epitaxial material grown over the substrate being single crystal; d) etching the epitaxial Group III-nitride material with an etchant that selectively removes polycrystalline material with respect to single crystal material; and e) removing the masking layer of step b).
A method of operating an aerosol-generating device for generating an aerosol from an aerosol-forming substrate, the aerosol-generating device comprising; a power supply for supplying power to generate the aerosol, and a controller; the method comprising, monitoring a parameter indicative of aerosol generation during operation of the aerosol-generating device, and analysing the monitored parameter to identify a user puff, the user puff defined by a puff start and a puff end, in which the step of analysing the monitored parameter comprises steps of calculating a first characteristic of the monitored parameter, calculating a second characteristic of the monitored parameter, and analysing both the first characteristic and the second characteristic to determine the puff start and the puff end, in which the parameter indicative of aerosol generation is a parameter representative of power supplied by the power supply, and in which the first characteristic is a first moving average value of the monitored parameter computed on a first time window having a first time window duration, and in which the second characteristic is a second moving average value of the monitored parameter computed on a second time window having a second time window duration, the second time window duration being different to the first time window duration. a power supply for supplying power to generate the aerosol, and a controller; the method comprising, monitoring a parameter indicative of aerosol generation during operation of the aerosol-generating device, and analysing the monitored parameter to identify a user puff, the user puff defined by a puff start and a puff end, in which the step of analysing the monitored parameter comprises steps of calculating a first characteristic of the monitored parameter, calculating a second characteristic of the monitored parameter, and analysing both the first characteristic and the second characteristic to determine the puff start and the puff end, in which the parameter indicative of aerosol generation is a parameter representative of power supplied by the power supply, and in which the first characteristic is a first moving average value of the monitored parameter computed on a first time window having a first time window duration, and in which the second characteristic is a second moving average value of the monitored parameter computed on a second time window having a second time window duration, the second time window duration being different to the first time window duration.