mhurhangee/ep-ind-claims huggingface dataset:
A method, implemented by an electronic device, comprising: displaying a first user interface on a screen of the electronic device; detecting (S101-S103) a first operation on the first user interface; detecting (S101-S103) that the electronic device fails to respond to the first operation; detecting (S101-S103) a plurality of consecutive operations on a key within a first time, wherein the key comprises at least one of a home key, a back key, or a power key; and determining (S104-S105) that an actual fault occurs on the electronic device when the electronic device fails to respond to the plurality of consecutive operations, the method further comprising: before detecting the first operation and detecting that the electronic device fails to respond to the first operation, determining whether a suspected fault occurs on the electronic device according to at least one of central processing unit or memory usage of the electronic device; and determining that the actual fault is caused by the suspected fault. displaying a first user interface on a screen of the electronic device; detecting (S101-S103) a first operation on the first user interface; detecting (S101-S103) that the electronic device fails to respond to the first operation; detecting (S101-S103) a plurality of consecutive operations on a key within a first time, wherein the key comprises at least one of a home key, a back key, or a power key; and determining (S104-S105) that an actual fault occurs on the electronic device when the electronic device fails to respond to the plurality of consecutive operations, the method further comprising: before detecting the first operation and detecting that the electronic device fails to respond to the first operation, determining whether a suspected fault occurs on the electronic device according to at least one of central processing unit or memory usage of the electronic device; and determining that the actual fault is caused by the suspected fault. before detecting the first operation and detecting that the electronic device fails to respond to the first operation, determining whether a suspected fault occurs on the electronic device according to at least one of central processing unit or memory usage of the electronic device; and determining that the actual fault is caused by the suspected fault.
An apparatus for constructing an indoor map, the apparatus comprising: an information extractor configured to extract point cloud information from scan information about each point inside a target facility of which an indoor map is to be constructed; and an indoor map constructer configured to construct the indoor map of the target facility in response to performing a drawing operation on a shape of the target facility based on the point cloud information about each point characterized in that the indoor map constructer is further configured to correct a drawing error that occurs by a movement of a scan device based on acceleration information acquired at the scan device that scans each point inside the target facility. an information extractor configured to extract point cloud information from scan information about each point inside a target facility of which an indoor map is to be constructed; and an indoor map constructer configured to construct the indoor map of the target facility in response to performing a drawing operation on a shape of the target facility based on the point cloud information about each point characterized in that the indoor map constructer is further configured to correct a drawing error that occurs by a movement of a scan device based on acceleration information acquired at the scan device that scans each point inside the target facility.
A window having a frame, a sash displaceable in parallel and a fitting for the sash, which is displaceable in parallel on the frame, as a sliding sash, which can be offset out of its sealed closed position, wherein the sash, upon the unlocking from its sealed position, can be pressed slightly from the frame by seal elements, which are compressed in the sealed position and can be further offset, having two carriages (4a, 4b), which are movable on a runner rail and are coupled to one another at a distance by a first connecting rod, and having at least one upper sliding element (5a, 5b) displaceable in a guide rail, wherein (a) a pivotable stay arm (10a, 10b; 20a, 20b, 20b') is associated with each of the two carriages and the at least one upper sliding element (5b, 5b'), which stay arm is part of a stay hinge and on which at least one auxiliary control arm (11b, 13, 21', 30, 30') is pivotably coupled; characterized in that (b) an energy storage unit (E; 15, 25) is coupled to one of the stay arms (10a, 10b) of the carriages (4a, 4b) or the stay arm of the upper sliding element (5b, 5b'), and during a pivoting pivoting-out movement of all stay arms (10a, 20a; 10b, 20b, 20b') of the stay hinge from a closed position, absorbs energy from the pivoting-out movement and stores it for the duration of a sliding movement of the carriages (4a, 4b) in that at least one of the stay arms of the carriages (4a, 4b) or the stay arm of the upper sliding element is locked in the pivoted-out position, and (c) the energy storage unit (E; 15, 25) is coupled to one of the stay arms (10a, 10b) of the carriages (4a, 4b) or the stay arm of the upper sliding element in such a manner that the energy storage unit, after unlocking of the at least one stay arm (10a, 10b, 20b') from the locked position, releases the stored energy for a pivoting-back movement of the stay arms (10a, 10b; 20a, 20b, 20b') into a closed position. (a) a pivotable stay arm (10a, 10b; 20a, 20b, 20b') is associated with each of the two carriages and the at least one upper sliding element (5b, 5b'), which stay arm is part of a stay hinge and on which at least one auxiliary control arm (11b, 13, 21', 30, 30') is pivotably coupled; (b) an energy storage unit (E; 15, 25) is coupled to one of the stay arms (10a, 10b) of the carriages (4a, 4b) or the stay arm of the upper sliding element (5b, 5b'), and during a pivoting pivoting-out movement of all stay arms (10a, 20a; 10b, 20b, 20b') of the stay hinge from a closed position, absorbs energy from the pivoting-out movement and stores it for the duration of a sliding movement of the carriages (4a, 4b) in that at least one of the stay arms of the carriages (4a, 4b) or the stay arm of the upper sliding element is locked in the pivoted-out position, and (c) the energy storage unit (E; 15, 25) is coupled to one of the stay arms (10a, 10b) of the carriages (4a, 4b) or the stay arm of the upper sliding element in such a manner that the energy storage unit, after unlocking of the at least one stay arm (10a, 10b, 20b') from the locked position, releases the stored energy for a pivoting-back movement of the stay arms (10a, 10b; 20a, 20b, 20b') into a closed position.
A computer implemented method for analyzing intervertebral motion of a spine, the method comprising: acquiring digital images of a first and second vertebrae (10,20/ 30) in a first position and in a second position, wherein the degree of intervertebral rotation between the two positions is greater than 3 degrees; detecting or acquiring the location of at least one landmark on the first vertebra on at least one image in the first position; electronically transferring the location of the at least one landmark on the first vertebra on at least one image in the first position to the first vertebra on at least one image in the second position; aligning digital images of the vertebrae (10, 20/ 30) in the first and second positions to allow for measurements comparing images of the vertebrae (10, 20/ 30) in the first and second positions; determining the rotation and translation required to subsequently align images of the second vertebra (20/ 30) in the first and second positions; measuring the degree of vertebral rotation between the first and second vertebrae in the first and second positions; measuring the translation (50/ 60) of the landmark on the first vertebra between the first and second positions while holding the second vertebra (20/ 30) fixed; normalizing the intervertebral translation measurement based upon a vertebral dimension; dividing the intervertebral translation by the intervertebral rotation to give a normalized translation per degree of rotation (TPDR) that is independent of vertebrae size. detecting or acquiring the location of at least one landmark on the first vertebra on at least one image in the first position; electronically transferring the location of the at least one landmark on the first vertebra on at least one image in the first position to the first vertebra on at least one image in the second position; aligning digital images of the vertebrae (10, 20/ 30) in the first and second positions to allow for measurements comparing images of the vertebrae (10, 20/ 30) in the first and second positions; determining the rotation and translation required to subsequently align images of the second vertebra (20/ 30) in the first and second positions; measuring the degree of vertebral rotation between the first and second vertebrae in the first and second positions; measuring the translation (50/ 60) of the landmark on the first vertebra between the first and second positions while holding the second vertebra (20/ 30) fixed; normalizing the intervertebral translation measurement based upon a vertebral dimension; dividing the intervertebral translation by the intervertebral rotation to give a normalized translation per degree of rotation (TPDR) that is independent of vertebrae size.
An instrument sterile drape comprising: a plastic sheet; and an instrument sterile adapter coupled to the plastic sheet, the ISA including a bottom plate located on a first side of the plastic sheet and a top plate located on a second side of the plastic sheet and joined to the bottom plate, the bottom plate including a mounting surface that provides a first datum plane for mounting the ISA on a carriage that includes actuators; characterised in that the bottom plate comprises a plurality of landing pads that extend through the top plate to provide a second datum plane for a surgical instrument coupled to the ISA such that the second datum plane and the mounting surface are opposing parallel surfaces on the bottom plate separated by a fixed distance. a plastic sheet; and an instrument sterile adapter coupled to the plastic sheet, the ISA including a bottom plate located on a first side of the plastic sheet and a top plate located on a second side of the plastic sheet and joined to the bottom plate, the bottom plate including a mounting surface that provides a first datum plane for mounting the ISA on a carriage that includes actuators; characterised in that the bottom plate comprises a plurality of landing pads that extend through the top plate to provide a second datum plane for a surgical instrument coupled to the ISA such that the second datum plane and the mounting surface are opposing parallel surfaces on the bottom plate separated by a fixed distance.
Board for lateral transfer of patients, of the type comprising a main body, flat, substantially rigid, which defines a top surface, a bottom surface and side edges (4, 6) that join said surfaces (2, 3), and a tubular cover that partially wraps the main body, wherein the board comprises at least one fabric arranged between the main body and the tubular cover, characterized in that said fabric has two surfaces - a first that is joined to the main body and - a second which, once the first surface is attached to the main body, remains facing the tubular cover with which it comes into contact, at least partially, when transferring the patient, with said second surface comprising a sliding material, with said fabric occupying at least a part of the surface that covers the tubular cover, wherein the main body is made of a polyethylene foam with a density of at least 35 kg/m 3 the side edges are rounded and a guiding notch on at least one of the rounded side edges (4, 6) has been made. - a first that is joined to the main body and - a second which, once the first surface is attached to the main body, remains facing the tubular cover with which it comes into contact, at least partially, when transferring the patient, with said second surface comprising a sliding material, with said fabric occupying at least a part of the surface that covers the tubular cover,
A method for initial downlink link adaptation in a network node in a communication system, said network node serving a cell and active user equipment within said cell, wherein said method comprises the steps of: obtaining uplink path gain and downlink Signal to Interference and Noise Ratio, SINR, for each of at least a subset of the active user equipment in said cell, grouping said obtained downlink SINR into a plurality of path gain bins based on said obtained uplink path gain, each path gain bin corresponding to a respective path gain interval; determining a statistical measure for the downlink SINR in each path gain bin, wherein said statistical measure is a measure indicative of a statistical relation between the obtained uplink path gain and downlink SINR, upon entry of a new user equipment into the cell, estimating the uplink path gain for said new user equipment, wherein the uplink path gain is estimated based on statistics of said active user equipment within said cell, estimating an initial downlink SINR for said new user equipment in said cell, based on said estimated uplink path gain together with said determined statistical measure a for a corresponding uplink path gain bin, utilizing said estimated initial downlink SINR for downlink link adaptation for a subsequent transmission to said new user equipment. obtaining uplink path gain and downlink Signal to Interference and Noise Ratio, SINR, for each of at least a subset of the active user equipment in said cell, grouping said obtained downlink SINR into a plurality of path gain bins based on said obtained uplink path gain, each path gain bin corresponding to a respective path gain interval; determining a statistical measure for the downlink SINR in each path gain bin, wherein said statistical measure is a measure indicative of a statistical relation between the obtained uplink path gain and downlink SINR, upon entry of a new user equipment into the cell, estimating the uplink path gain for said new user equipment, wherein the uplink path gain is estimated based on statistics of said active user equipment within said cell, estimating an initial downlink SINR for said new user equipment in said cell, based on said estimated uplink path gain together with said determined statistical measure a for a corresponding uplink path gain bin, utilizing said estimated initial downlink SINR for downlink link adaptation for a subsequent transmission to said new user equipment.
A method for making a stretchable appliqué comprising the following steps: providing a stretchable substrate having a first surface and a second surface opposite the first surface, wherein the stretchable substrate is a fabric; adhering the first surface of the stretchable substrate to a carrier layer with an adhesive, wherein the carrier layer is less stretchable than the stretchable substrate; applying at least one indicium to the second surface of the stretchable substrate; and cutting the stretchable substrate to form a stretchable appliqué of a desired shape, wherein at least one of the steps of applying at least one indicium and cutting the stretchable substrate is performed while the carrier layer is adhered to the first surface of the stretchable substrate. providing a stretchable substrate having a first surface and a second surface opposite the first surface, wherein the stretchable substrate is a fabric; adhering the first surface of the stretchable substrate to a carrier layer with an adhesive, wherein the carrier layer is less stretchable than the stretchable substrate; applying at least one indicium to the second surface of the stretchable substrate; and cutting the stretchable substrate to form a stretchable appliqué of a desired shape, wherein at least one of the steps of applying at least one indicium and cutting the stretchable substrate is performed while the carrier layer is adhered to the first surface of the stretchable substrate.
Valve system for a gas engine comprising a number of valves (36, 44) that are arranged to regulate the amount and supply of gas into an inlet manifold in the engine, characterised in that the system comprises a valve housing equipped with a centrally placed and linearly moving control valve and a surrounding admission valve, where the admission valve is arranged to rotate to regulate the amount of gas that is let into the valve housing.
A compound being of the formula: wherein: R 1 and R 3 are each independently -H, -(CH 2) a (CH 2 CH 2 O) b R 5, -(CH 2 CH 2 O) b R 5, -CH(COOH)CH 2 OH or -(CH 2) a Y 1; each Y 1 is independently -OR 6, - (CHOH) c R 7, -NR 8 R 9, -CONR 8 R 9, -NHCO(CHOH) c R 7 or -NHCO(CH 2) a (CH 2 CH 2 O) b R 5; each of R 2, R 4, R 5, R 6 and R 7 are independently -H or C 1 -C 6 alkyl; R 8 and R 9 are independently -H, C 1 -C 3 alkyl, -(CH 2) a (CHOH) c R 7, or -(CH 2) a (CH 2 CH 2 O) b R 5; each a and c is independently an integer selected from the range of 0 to 6; each b is independently an integer selected from the range of 1 to 120; each p and q is independently an integer selected from the range of 0 to 120; each of m and n is independently an integer selected from the range of 3 to 6. R 1 and R 3 are each independently -H, -(CH 2) a (CH 2 CH 2 O) b R 5, -(CH 2 CH 2 O) b R 5, -CH(COOH)CH 2 OH or -(CH 2) a Y 1; each Y 1 is independently -OR 6, - (CHOH) c R 7, -NR 8 R 9, -CONR 8 R 9, -NHCO(CHOH) c R 7 or -NHCO(CH 2) a (CH 2 CH 2 O) b R 5; each of R 2, R 4, R 5, R 6 and R 7 are independently -H or C 1 -C 6 alkyl; R 8 and R 9 are independently -H, C 1 -C 3 alkyl, -(CH 2) a (CHOH) c R 7, or -(CH 2) a (CH 2 CH 2 O) b R 5; each a and c is independently an integer selected from the range of 0 to 6; each b is independently an integer selected from the range of 1 to 120; each p and q is independently an integer selected from the range of 0 to 120; each of m and n is independently an integer selected from the range of 3 to 6.
An electric nail gun including a supporting bracket, a flywheel disposed pivotally on the supporting bracket, a swing arm pivotable relative to the supporting bracket between a first position and a second position farther away from the flywheel than the first position, an impact member pivotable with the swing arm relative to the supporting bracket to contact the flywheel to thereby be driven for performing a nail-striking operation, and a driving unit, characterized by said driving unit including a pushing block movable relative to the supporting bracket along an axis and having an inclined surface abutting against an end of the swing arm, said inclined surface having a slope between 0.087 and 0.7, movement of said pushing block relative to the supporting bracket resulting in pivoting movement of the swing arm between the first and second positions.
A girth for horse saddles of those which are made up of a main girth body, several straps with elastic rings and several buckles, characterized in that each strap is independently joined to elastic rings which are secured on the outer part of the main girth, in the central part thereof, each of the elastic rings acting independently for each of the straps.
A method comprising: at a server that manages at least one wireless beacon device configured to encrypt and broadcast telemetry messages that include data from one or more sensors, obtaining information about battery power state of the at least one wireless beacon device; and controlling distribution of encryption keys to the at least one wireless beacon device based on the battery power state of the beacon device so as to minimize battery power consumption of the at least one wireless beacon device. at a server that manages at least one wireless beacon device configured to encrypt and broadcast telemetry messages that include data from one or more sensors, obtaining information about battery power state of the at least one wireless beacon device; and controlling distribution of encryption keys to the at least one wireless beacon device based on the battery power state of the beacon device so as to minimize battery power consumption of the at least one wireless beacon device.
A method at a user equipment operating in a network having a macro cell and at least one assisted serving cell, the method comprising: receiving signaling, from the macro cell, allocating hybrid automatic repeat request,HARQ, processes for both the macro cell and the at least one assisted serving cell; in response to said signaling: receiving downlink data from the macro cell on a predetermined number of hybrid automatic repeat request, HARQ, downlink processes; sending uplink data to the macro cell on HARQ uplink processes associated with the downlink macro cell HARQ processes; receiving downlink data from the assisted serving cell on a second predetermined number of hybrid automatic repeat request, HARQ, downlink processes; and sending uplink data to the assisted serving cell on HARQ uplink processes associated with the downlink assisted serving cell HARQ processes, wherein the user equipment is served by both the macro cell and the at least one assisted serving cell; characterised in that the allocation of HARQ processes is updated semi-statically based on traffic conditions related to the amount and bursty characteristics of the data from each cell. receiving signaling, from the macro cell, allocating hybrid automatic repeat request,HARQ, processes for both the macro cell and the at least one assisted serving cell; in response to said signaling: receiving downlink data from the macro cell on a predetermined number of hybrid automatic repeat request, HARQ, downlink processes; sending uplink data to the macro cell on HARQ uplink processes associated with the downlink macro cell HARQ processes; receiving downlink data from the assisted serving cell on a second predetermined number of hybrid automatic repeat request, HARQ, downlink processes; and sending uplink data to the assisted serving cell on HARQ uplink processes associated with the downlink assisted serving cell HARQ processes, receiving downlink data from the macro cell on a predetermined number of hybrid automatic repeat request, HARQ, downlink processes; sending uplink data to the macro cell on HARQ uplink processes associated with the downlink macro cell HARQ processes; receiving downlink data from the assisted serving cell on a second predetermined number of hybrid automatic repeat request, HARQ, downlink processes; and sending uplink data to the assisted serving cell on HARQ uplink processes associated with the downlink assisted serving cell HARQ processes, wherein the user equipment is served by both the macro cell and the at least one assisted serving cell;