mhurhangee/ep-ind-claims huggingface dataset:
A device for supporting a limb of a patient comprising: a) a substantially planar base structure comprising first and second base supports (10, 12) that form two opposite sides of said base structure; b) a first limb support structure comprising first and second raised supports (32, 34) and a first limb support bar, wherein said first raised support is rotatably connected at one end to said first base support, said second raised support is rotatably connected at one end to said second base support, and said first limb support bar is movably attached at or near its ends to said first and second raised supports; and c) a second limb support structure comprising third and fourth raised supports (62, 64), and a second limb support bar, wherein said third raised support is rotatably connected at one end to said first base support, said fourth raised support is rotatably connected at one end to said second base support, and said second limb support bar is movably attached at or near its ends to said third and/or fourth raised supports (62, 64), characterized in that said first limb support bar is configured to move along the length of the first and second raised supports (32, 34) and said second limb support bar is configured to move along the length of the third and fourth raised supports (62, 64). a) a substantially planar base structure comprising first and second base supports (10, 12) that form two opposite sides of said base structure; b) a first limb support structure comprising first and second raised supports (32, 34) and a first limb support bar, wherein said first raised support is rotatably connected at one end to said first base support, said second raised support is rotatably connected at one end to said second base support, and said first limb support bar is movably attached at or near its ends to said first and second raised supports; and c) a second limb support structure comprising third and fourth raised supports (62, 64), and a second limb support bar, wherein said third raised support is rotatably connected at one end to said first base support, said fourth raised support is rotatably connected at one end to said second base support, and said second limb support bar is movably attached at or near its ends to said third and/or fourth raised supports (62, 64), characterized in that said first limb support bar is configured to move along the length of the first and second raised supports (32, 34) and said second limb support bar is configured to move along the length of the third and fourth raised supports (62, 64).
A system for determining the electrical connections of a plurality of nodes (A - Q; 400; 500; 600; 700) when the upstream or downstream location of said nodes on an electrical power distribution system relative to the others of said nodes is no longer known, said system comprising an electrical power distribution system and said plurality of nodes (A - Q; 400; 500; 600; 700) which are connected to said electrical power distribution system, wherein said nodes (A - Q; 400; 500; 600; 700) are each configured to be operatively coupled to an external power drawing load; the system further comprising: node electronics (302, 308, 310, 312, 316, 113; 402; 502; 602; 703) included in each of said plurality of nodes, each set of node electronics including a microcontroller, a communications function in the form of input and output interfaces on said microcontroller, and a power measurement function in the form of a sensor (313; 406; 408; 410; 412; 506; 508; 606; 608; 708), and wherein said node electronics (302, 308, 310, 312, 316, 113; 402; 502; 602; 703) are configured to detect with said sensor power drawn by an external power drawing load coupled to one particular node or to one of the one or more nodes downstream of said one particular node, if said one or more downstream nodes are present, and said node electronics are further configured to send a node electrical signal including identifier information specific to the node upon detecting that power is being drawn from said node or from a node downstream of said node indicating that said node has sensed power drawn by said external power drawing load; and wherein the system further comprises: a processor in communication with said node electronics configured to identify which of said plurality of nodes (A - Q; 400; 500; 600; 700) are upstream or downstream relative to one another in said electrical power distribution system based on said node electrical signals sent from said node electronics as additional external power drawing loads are coupled to and draw power from said plurality of nodes. node electronics (302, 308, 310, 312, 316, 113; 402; 502; 602; 703) included in each of said plurality of nodes, each set of node electronics including a microcontroller, a communications function in the form of input and output interfaces on said microcontroller, and a power measurement function in the form of a sensor (313; 406; 408; 410; 412; 506; 508; 606; 608; 708), and a processor in communication with said node electronics configured to identify which of said plurality of nodes (A - Q; 400; 500; 600; 700) are upstream or downstream relative to one another in said electrical power distribution system based on said node electrical signals sent from said node electronics as additional external power drawing loads are coupled to and draw power from said plurality of nodes.
An electronic greeting card system comprising: a server; a paper greeting card; a code printed on the paper greeting card; an electronic greeting card application program that is downloaded to a portable computing device from the server in response to the portable computing device scanning the code on the paper greeting card, the electronic greeting card application program comprising computer or machine readable and/or executable instructions configured to: provide a category of greeting cards; provide for display of at least one greeting card within the category of greeting cards, wherein the at least one greeting card comprises four pages, with at least one of the four pages having an option to customize, and each of the four pages being movable by a touch of a finger; provide a means for previewing the greeting card; and provide a means for selecting a medium to be used to send the greeting card. a server; a paper greeting card; a code printed on the paper greeting card; an electronic greeting card application program that is downloaded to a portable computing device from the server in response to the portable computing device scanning the code on the paper greeting card, the electronic greeting card application program comprising computer or machine readable and/or executable instructions configured to: provide a category of greeting cards; provide for display of at least one greeting card within the category of greeting cards, wherein the at least one greeting card comprises four pages, with at least one of the four pages having an option to customize, and each of the four pages being movable by a touch of a finger; provide a means for previewing the greeting card; and provide a means for selecting a medium to be used to send the greeting card. provide a category of greeting cards; provide for display of at least one greeting card within the category of greeting cards, wherein the at least one greeting card comprises four pages, with at least one of the four pages having an option to customize, and each of the four pages being movable by a touch of a finger; provide a means for previewing the greeting card; and provide a means for selecting a medium to be used to send the greeting card.
Method for planning and at least partially installing an elevator system in an elevator shaft, wherein automated installation steps are carried out by an automated mounting device and the method comprises the following method steps: - deriving a target layout of the elevator system from target dimensions of the elevator shaft, - establishing the installation steps to be carried out by an automated mounting device, - checking that the automated installation steps can be carried out by the mounting device, - detecting several actual dimensions of the elevator shaft, - deriving an actual layout of the elevator system from the target layout of the elevator system and the detected actual dimensions of the elevator shaft, - planning the automated installation steps on the basis of the actual layout of the elevator system and - carrying out the automated installation steps by means of the mounting device. - deriving a target layout of the elevator system from target dimensions of the elevator shaft, - establishing the installation steps to be carried out by an automated mounting device, - checking that the automated installation steps can be carried out by the mounting device, - detecting several actual dimensions of the elevator shaft, - deriving an actual layout of the elevator system from the target layout of the elevator system and the detected actual dimensions of the elevator shaft, - planning the automated installation steps on the basis of the actual layout of the elevator system and - carrying out the automated installation steps by means of the mounting device.
A nucleic acid comprising an abbreviated human RPGR cDNA, wherein the abbreviated human RPGR cDNA encodes an RPGR protein that is at least 95% identical to the full length of SEQ ID NO: 2.
A graphite-based negative electrode active material comprising a first graphite particle being spheroidized and a second graphite particle having a roundness lower than a roundness of the first graphite particle, wherein a content of the second graphite particle based on a sum of the first graphite particle and the second graphite particle is in a range of 1 to 30 % by mass, a ratio of a median particle diameter (D 50) to a particle diameter at 5 cumulative% (D 5), D 50 /D 5, in a cumulative distribution of the first graphite particle is smaller than a ratio of a median particle diameter (D 50) to a particle diameter at 5 cumulative% (D 5), D 50 /D 5, in a cumulative distribution of the second graphite particle, and a tap density in saturation of a particle mixture of the first graphite particle and the second graphite particle is higher than both a tap density in saturation of the first graphite particle and a tap density in saturation of the second graphite particle, the total content of the first graphite particle and the second graphite particle based on the whole of the negative electrode active material is 90% by mass or more, the roundness is an average particle roundness defined by a ratio I/L, wherein L is the periphery length of the projected image of the particle on a plane observed with an electron microscope, and I is the periphery length of a corresponding circle having the same area as the projected image, the average particle roundness of the second graphite particle is lower than 0.86, the tap density in saturation is calculated by using the following formula after tapping in 1000 times, approximately 40 cc (40 cm 3) of a graphite powder placed in a tapping cell having a volume of 45 cc (45 cm 3): tap density in saturation g / cm 3 = B − A / D wherein, A: mass of tapping cell, B: total mass of tapping cell and graphite powder, and D: filling volume, and the particle diameter D 5 refers to a particle diameter at an integrated value up to 5% in a volume-based particle size distribution obtained by using a laser diffraction/scattering method, and a particle diameter D 50 refers to a particle diameter at an integrated value up to 50% in a volume-based particle size distribution obtained by using a laser diffraction/scattering method. wherein, A: mass of tapping cell, B: total mass of tapping cell and graphite powder, and D: filling volume, and the particle diameter D 5 refers to a particle diameter at an integrated value up to 5% in a volume-based particle size distribution obtained by using a laser diffraction/scattering method, and a particle diameter D 50 refers to a particle diameter at an integrated value up to 50% in a volume-based particle size distribution obtained by using a laser diffraction/scattering method.
A sheet manufacturing method comprising: mixing fibers and a composite, where a resin and a wax are melted and kneaded so as to be integrally combined, in air; and forming by depositing and heating a mixed material where the fibers and the composite are mixed. mixing fibers and a composite, where a resin and a wax are melted and kneaded so as to be integrally combined, in air; and forming by depositing and heating a mixed material where the fibers and the composite are mixed.
A method comprising: determining, by an imaging sensor, an influence of natural light in an area; determining, by the imaging sensor, an influence of artificial light from one or more artificial light sources in the area; based on the influence of the artificial light and the influence of the natural light, determining, by the imaging sensor, a location of the one or more artificial light sources with respect to a location of the imaging sensor; allocating, by the imaging sensor, a portion of the area as an area of influence of the imaging sensor, associating, by the imaging sensor, at least one artificial light source from the one or more artificial light sources to the area of influence of the imaging sensor; characterised in that the area of influence is allocated manually by: setting the imaging sensor to a programmable mode; recording, by the imaging sensor, a motion of a user along a perimeter of the portion of the area that is intended to be allocated as the area of influence; and assigning the portion of the area within the perimeter as the area of influence. determining, by an imaging sensor, an influence of natural light in an area; determining, by the imaging sensor, an influence of artificial light from one or more artificial light sources in the area; based on the influence of the artificial light and the influence of the natural light, determining, by the imaging sensor, a location of the one or more artificial light sources with respect to a location of the imaging sensor; allocating, by the imaging sensor, a portion of the area as an area of influence of the imaging sensor, associating, by the imaging sensor, at least one artificial light source from the one or more artificial light sources to the area of influence of the imaging sensor; characterised in that the area of influence is allocated manually by: setting the imaging sensor to a programmable mode; recording, by the imaging sensor, a motion of a user along a perimeter of the portion of the area that is intended to be allocated as the area of influence; and assigning the portion of the area within the perimeter as the area of influence. setting the imaging sensor to a programmable mode; recording, by the imaging sensor, a motion of a user along a perimeter of the portion of the area that is intended to be allocated as the area of influence; and assigning the portion of the area within the perimeter as the area of influence.
A glass film laminate, comprising a supporting member and a glass film laminated to each other, wherein: the supporting member has sides and entirely protrudes from the glass film; and the supporting member comprises a peeling start portion at which at least one corner portion including a corner of the glass film is exposed from the supporting member, the peeling start portion being provided with a distance from the sides of the supporting member. the supporting member has sides and entirely protrudes from the glass film; and the supporting member comprises a peeling start portion at which at least one corner portion including a corner of the glass film is exposed from the supporting member, the peeling start portion being provided with a distance from the sides of the supporting member.
A pharmaceutical composition comprising an effective amount of plasminogen for use in treating diabetes mellitus by reducing secretion of glucagon in a diabetic subject, wherein the plasminogen: (a) has at least 90%, 95%, 96%, 97%, 98% or 99% sequence identity with SEQ ID No. 2; or (b) has at least 95%, 96%, 97%, 98% or 99% sequence identity with SEQ ID No. 6, 8, 10 or 12, and still has the activity of plasminogen. (a) has at least 90%, 95%, 96%, 97%, 98% or 99% sequence identity with SEQ ID No. 2; or (b) has at least 95%, 96%, 97%, 98% or 99% sequence identity with SEQ ID No. 6, 8, 10 or 12,
Zeolitic agglomerates • having a content of zeolite (s) strictly greater than or equal to 80%, and advantageously greater than or equal to 90% by mass and containing at most 20%, and advantageously at most 10%, of inert binder, measured as calcined equivalent, said inert binder comprising, preferably consisting of, a clay or a mixture of clays; • having a volume mean diameter (D 50) ranging from 50 μm to 400 μm, more preferably from 50 μm to 250 pm; • having an apparent density ranging from 0.5 g/cm 3 to 0.8 g/cm 3; • having a bulk crushing strength measured according to the ASTM 7084-04 standard ranging from 0.5 MPa to 3 MPa, preferably ranging from 0.75 MPa to 2.5 MPa, • having a mean roundness ranging from 85% to 100%, preferably from 90% to 100%; • having an elongation such that the percentage of particles having an elongation of 0% ranges from 10 to 100 and preferably from 25 to 100, and the percentage of particles having an elongation of less than 10% ranges from 70 to 100 and preferably from 80 to 100. • having a content of zeolite (s) strictly greater than or equal to 80%, and advantageously greater than or equal to 90% by mass and containing at most 20%, and advantageously at most 10%, of inert binder, measured as calcined equivalent, said inert binder comprising, preferably consisting of, a clay or a mixture of clays; • having a volume mean diameter (D 50) ranging from 50 μm to 400 μm, more preferably from 50 μm to 250 pm; • having an apparent density ranging from 0.5 g/cm 3 to 0.8 g/cm 3; • having a bulk crushing strength measured according to the ASTM 7084-04 standard ranging from 0.5 MPa to 3 MPa, preferably ranging from 0.75 MPa to 2.5 MPa, • having a mean roundness ranging from 85% to 100%, preferably from 90% to 100%; • having an elongation such that the percentage of particles having an elongation of 0% ranges from 10 to 100 and preferably from 25 to 100, and the percentage of particles having an elongation of less than 10% ranges from 70 to 100 and preferably from 80 to 100.
A method comprising: receiving an orthogonal frequency division multiplexing, OFDM, symbol that comprises a plurality of signals on a subset of subcarriers, wherein information is coded to a phase difference between two adjacent subcarriers, and wherein the subset of subcarriers is represented by a sequence of bits, wherein each bit of the sequence indicates whether a subcarrier contains a signal or no power, and detecting (906, 1006) a fast Fourier transform size of following OFDM symbols based on the signals on the subset of subcarriers. receiving an orthogonal frequency division multiplexing, OFDM, symbol that comprises a plurality of signals on a subset of subcarriers, wherein information is coded to a phase difference between two adjacent subcarriers, and wherein the subset of subcarriers is represented by a sequence of bits, wherein each bit of the sequence indicates whether a subcarrier contains a signal or no power, and detecting (906, 1006) a fast Fourier transform size of following OFDM symbols based on the signals on the subset of subcarriers.
A processor-implemented method, the method comprising: generating initial information comprising map information, departure information, and arrival information; wherein the departure information comprises either one or both of departure location information and departure position information, and the arrival information comprises either one or both of arrival location information and arrival position information; generating a plurality of paths by inputting the initial information to a planner ensemble; wherein the planner ensemble comprises a plurality of planners having different characteristics from each other, and wherein the generating of the plurality of paths comprises generating the plurality of paths corresponding to the plurality of planners, respectively, by inputting the initial information to each of the plurality of planners; and training a path distribution estimation model to output a path distribution corresponding to the plurality of paths. generating initial information comprising map information, departure information, and arrival information; wherein the departure information comprises either one or both of departure location information and departure position information, and the arrival information comprises either one or both of arrival location information and arrival position information; generating a plurality of paths by inputting the initial information to a planner ensemble; wherein the planner ensemble comprises a plurality of planners having different characteristics from each other, and wherein the generating of the plurality of paths comprises generating the plurality of paths corresponding to the plurality of planners, respectively, by inputting the initial information to each of the plurality of planners; and training a path distribution estimation model to output a path distribution corresponding to the plurality of paths.
A method for erasing an image comprising: irradiating an image formed on a thermoreversible recording medium with a laser light having a wavelength of 700 nm to 1,500 nm so as to erase the image, wherein the output of the laser light applied in irradiating the image is 5 W to 200 W and the energy density of the laser light is in a range of the energy density which can erase the image and more than a center value of the range of the energy density, wherein the thermoreversible recording medium comprises: a support; and a thermoreversible recording layer on the support, and wherein the thermoreversible recording layer contains a leuco dye serving as an electron-donating color-forming compound and a reversible developer serving as an electron-accepting compound, in which color tone reversibly changes by heat, and at least one of the thermoreversible recording layer and a layer adjacent to the thermoreversible recording layer contains a photothermal conversion material, which absorbs the light and converts the light into heat. irradiating an image formed on a thermoreversible recording medium with a laser light having a wavelength of 700 nm to 1,500 nm so as to erase the image, wherein the output of the laser light applied in irradiating the image is 5 W to 200 W and the energy density of the laser light is in a range of the energy density which can erase the image and more than a center value of the range of the energy density, wherein the thermoreversible recording medium comprises: a support; and a thermoreversible recording layer on the support, and wherein the thermoreversible recording layer contains a leuco dye serving as an electron-donating color-forming compound and a reversible developer serving as an electron-accepting compound, in which color tone reversibly changes by heat, and at least one of the thermoreversible recording layer and a layer adjacent to the thermoreversible recording layer contains a photothermal conversion material, which absorbs the light and converts the light into heat. a support; and a thermoreversible recording layer on the support, and wherein the thermoreversible recording layer contains a leuco dye serving as an electron-donating color-forming compound and a reversible developer serving as an electron-accepting compound, in which color tone reversibly changes by heat, and at least one of the thermoreversible recording layer and a layer adjacent to the thermoreversible recording layer contains a photothermal conversion material, which absorbs the light and converts the light into heat.