mhurhangee/ep-ind-claims huggingface dataset:
A setting apparatus comprising: first setting means (2001, 3104) for enabling a user to set a first region which is to be a target of predetermined image processing in an image captured by a capturing device; and second setting means (2001, 3105) for enabling the user to set a second region which is to be excluded from the target of predetermined image processing in the captured image; characterized by restricting means for restricting a settable range of the second region, wherein the settable range is a region in which the user can set the second region; wherein in a case in which the user sets the second region after the first region has been set, the restricting means is configured to restrict the settable range of the second region based on the first region. first setting means (2001, 3104) for enabling a user to set a first region which is to be a target of predetermined image processing in an image captured by a capturing device; and second setting means (2001, 3105) for enabling the user to set a second region which is to be excluded from the target of predetermined image processing in the captured image; characterized by restricting means for restricting a settable range of the second region, wherein the settable range is a region in which the user can set the second region;
A method implemented in a user equipment (111.. 119) configured to be used in a multi-user multiple-input multiple-output (MIMO) wireless communications system, comprising: transmitting to a base station a first channel state information report determined according to a single-user MIMO rule; transmitting to the base station a second CSI report based on a residual error; and assuming a post scheduling model, wherein the post scheduling model can be expressed as y 1 = D ^ 1 1 / 2 V ^ 1 † U 1 s 1 + D ^ 1 1 / 2 V ^ 1 † + R 1 † Q 1 † U 1 ̅ s 1 ̅ + η 1 where y 1 represents an N×1 received signal vector on a representative resource element in a resource block, N being the number of receive antennas at the user equipment (111.. 119), D ^ 1 1 / 2 is a diagonal matrix of effective channel gains, V̂ 1 denotes a semi-unitary matrix whose columns represent preferred channel directions and V ^ 1 † represents Hermitian of V̂ 1, U 1 and U 1 represent precoding matrices used by the base station to transmit data to the user equipment and a co-scheduled user equipment, respectively, s 1 and s 1 represent transmit symbol vectors intended for the user equipment and the co-scheduled user equipment, respectively, Q 1 is a semi-unitary matrix whose columns lie in the orthogonal complement of V̂ 1, and R 1 is a matrix which satisfies the Frobenius-norm constraint ‖ R 1 ′ ‖ F 2 ≤ ε 1 2 ∈ 1 being the residual error, and η 1 represents an additive noise vector. transmitting to a base station a first channel state information report determined according to a single-user MIMO rule; transmitting to the base station a second CSI report based on a residual error; and assuming a post scheduling model, wherein the post scheduling model can be expressed as y 1 = D ^ 1 1 / 2 V ^ 1 † U 1 s 1 + D ^ 1 1 / 2 V ^ 1 † + R 1 † Q 1 † U 1 ̅ s 1 ̅ + η 1 where y 1 represents an N×1 received signal vector on a representative resource element in a resource block, N being the number of receive antennas at the user equipment (111.. 119), D ^ 1 1 / 2 is a diagonal matrix of effective channel gains, V̂ 1 denotes a semi-unitary matrix whose columns represent preferred channel directions and V ^ 1 † represents Hermitian of V̂ 1, U 1 and U 1 represent precoding matrices used by the base station to transmit data to the user equipment and a co-scheduled user equipment, respectively, s 1 and s 1 represent transmit symbol vectors intended for the user equipment and the co-scheduled user equipment, respectively, Q 1 is a semi-unitary matrix whose columns lie in the orthogonal complement of V̂ 1, and R 1 is a matrix which satisfies the Frobenius-norm constraint ‖ R 1 ′ ‖ F 2 ≤ ε 1 2 ∈ 1 being the residual error, and η 1 represents an additive noise vector.
A medical preparation, exhibiting antibacterial, antiulcer, and immunomodulatory activity comprising iodine, potassium iodide, starch, glucose, ascorbic acid, sodium chloride and distilled water, wherein said preparation comprises the following components in the following ratio (wt%): Iodine 0.4 - 2.0 Potassium Iodide 0.8 - 4.0 Starch 10.0 - 40.0 Ascorbic acid 0.4 - 2.0 Glucose 1.2 - 4.8 Sodium chloride 0.3 - 1.8 Purified water the rest.
A foamed sheet having a thickness of 30 to 400 μm and comprising a foam having a density of 0.2 to 0.7 g/cm 3 and an average cell diameter of 10 to 150 μm, the foam having a peak top of loss tangent (tan δ) occurring in a temperature range of from -30°C to 30°C, where the loss tangent (tan δ) is specified as a ratio of a loss modulus to a storage modulus each determined at an angular frequency of 1 rad/s in dynamic viscoelastic measurement of the foam.
A film configured to provide grip to an edge of a garment, the film comprising: an edge trim portion having a first edge and a second edge opposite the first edge, the second edge comprising at least one peak and at least one trough; and at least one ovoid portion having a first end and a second end opposite the first end along a major axis of the at least one ovoid portion, wherein the first end of the at least one ovoid portion is at least partially disposed within the at least one trough, wherein a length of each ovoid portion is in the range from about 5 mm to about 50 mm, wherein a width of each ovoid portion is in the range from about 2 mm to about 15 mm, and wherein a distance measured parallel to the major axis from the highest point of the at least one peak of the second edge to a point created by an intersection of the major axis with the second end of the at least one ovoid portion is in the range from about 2 mm to about 45 mm. an edge trim portion having a first edge and a second edge opposite the first edge, the second edge comprising at least one peak and at least one trough; and at least one ovoid portion having a first end and a second end opposite the first end along a major axis of the at least one ovoid portion, wherein the first end of the at least one ovoid portion is at least partially disposed within the at least one trough, wherein a length of each ovoid portion is in the range from about 5 mm to about 50 mm, wherein a width of each ovoid portion is in the range from about 2 mm to about 15 mm, and wherein a distance measured parallel to the major axis from the highest point of the at least one peak of the second edge to a point created by an intersection of the major axis with the second end of the at least one ovoid portion is in the range from about 2 mm to about 45 mm.
Device for producing electrical energy from the exhaust gas of an internal combustion engine, comprising a generator having an exhaust gas inlet and an exhaust gas outlet and a heat exchange portion between them, wherein the heat exchange portion has a plurality of flow paths for the exhaust gas, wherein the flow paths are at least partially surrounded by thermoelectric elements which, on the side facing away from the flow path, are connected in thermally conductive fashion to a cooling device, wherein at least one flow path has elements for flow manipulation, wherein the elements for flow manipulation are • structures or profilings which are arranged on first walls of the flow path, • or thermally conductive structures, characterized in that the elements for flow manipulation are arranged in the downstream portions of the flow paths, such that in regions of relatively cold exhaust gas, the existing residual heat of the exhaust gas can be dissipated to a greater extent from the exhaust-gas flow, and at the same time, overheating of thermoelectric elements in regions of relatively hot exhaust gas directly downstream of the exhaust gas inlet of the generator is prevented. • structures or profilings which are arranged on first walls of the flow path, • or thermally conductive structures, characterized in that the elements for flow manipulation are arranged in the downstream portions of the flow paths, such that in regions of relatively cold exhaust gas, the existing residual heat of the exhaust gas can be dissipated to a greater extent from the exhaust-gas flow, and at the same time, overheating of thermoelectric elements in regions of relatively hot exhaust gas directly downstream of the exhaust gas inlet of the generator is prevented.
A reinforced substrate (100, 101, 102) used when a composite material is molded, the reinforced substrate comprising: a reinforcing layer having reinforcing fibers extending in a fiber direction that is aligned in a single direction; and auxiliary fibers laminated on only one surface of the reinforcing layer so as to extend in only one direction that intersects the fiber direction, and joined to the reinforcing fibers to hold the reinforcing layer; characterized in that the auxiliary fibers having a higher tensile elongation at break than do the reinforcing fibers; and the reinforcing layer being arranged with fiber bundles of large tows being aligned in an unopened state, the large tow having a higher fiber count of the reinforcing fibers than does a regular tow, the large tow having a fiber count of the reinforcing fibers of 40,000 or more, and the regular tow having a fiber count of the reinforcing fibers of 24,000 or less. a reinforcing layer having reinforcing fibers extending in a fiber direction that is aligned in a single direction; and auxiliary fibers laminated on only one surface of the reinforcing layer so as to extend in only one direction that intersects the fiber direction, and joined to the reinforcing fibers to hold the reinforcing layer; characterized in that the auxiliary fibers having a higher tensile elongation at break than do the reinforcing fibers; and the reinforcing layer being arranged with fiber bundles of large tows being aligned in an unopened state, the large tow having a higher fiber count of the reinforcing fibers than does a regular tow, the large tow having a fiber count of the reinforcing fibers of 40,000 or more, and the regular tow having a fiber count of the reinforcing fibers of 24,000 or less.
An intervertebral trial having a distal end portion having upper and lower surfaces (3; 5) defining a height therebetween, wherein the height is adjustable and is adapted for insertion into a disc space between opposing vertebral endplates, and wherein the distal end portion has a functional feature (7, 9) adapted to map a contour of at least one of the vertebral endplates, characterized in that at least one of the upper and lower surfaces (3; 5) has a balloon (17, 19, 21) attached thereto which is configured to be filled with a light absorbing medium in use via an opening in the balloon, and the functional feature (7, 9) is a light absorption imaging feature configured to carry out light absorption imaging through the balloon (17, 19, 21) when filled with the light absorbing medium thereby mapping the contour of at least one of the vertebral endplates, wherein the light absorption imaging feature (7, 9) comprises two light emitters that emit two different wavelength bands of fluorescent light and light receivers that register the absorption of the two different wavelength bands of fluorescent light travelling through the absorbing medium in use.
A method comprising: accessing, by an electronic device including a communication circuit and a processor, a web page; receiving, by the electronic device, a user input for selecting a login service to provide access to the web page, wherein the login service is associated with a payment service provider server; receiving at the electronic device, first information, generated by a web-server, for the login service based on the user input from the web-server associated with the web page, wherein the first information includes transaction information generated by the web-server; executing, by the electronic device, a payment application in response to the receiving the first information; transmitting by the electronic device, the first information to the payment service provider server; receiving, by the electronic device, a request for second information for authentication from the payment service provider server, in response to transmitting the first information; receiving, by the electronic device, the second information by using the payment application; transmitting, by the electronic device, the second information to the payment service provider server; transmitting, by the electronic device, a request for the login with the first information to the web-server, in response to receiving an authentication result from the payment service provider server; and performing the login to the web page. accessing, by an electronic device including a communication circuit and a processor, a web page; receiving, by the electronic device, a user input for selecting a login service to provide access to the web page, wherein the login service is associated with a payment service provider server; receiving at the electronic device, first information, generated by a web-server, for the login service based on the user input from the web-server associated with the web page, wherein the first information includes transaction information generated by the web-server; executing, by the electronic device, a payment application in response to the receiving the first information; transmitting by the electronic device, the first information to the payment service provider server; receiving, by the electronic device, a request for second information for authentication from the payment service provider server, in response to transmitting the first information; receiving, by the electronic device, the second information by using the payment application; transmitting, by the electronic device, the second information to the payment service provider server; transmitting, by the electronic device, a request for the login with the first information to the web-server, in response to receiving an authentication result from the payment service provider server; and performing the login to the web page.
A scenographic light fixture for producing a light beam, the light fixture comprising a main body configured to produce a light beam along an optical axis; a control device facing the main body and comprising a mobile optical element to intercept and selectively deflect the light beam in a plurality of directions; and a support, which is at least in part transparent to the light beam, and is fitted to the main body to support the control device so as to define a waterproof chamber wherein the optical element moves, wherein the control device comprises a first motor configured to rotate the optical element about a first axis parallel to the optical axis and a second motor configured to pivot the optical element about a second axis transversal to the first axis, the main body comprises an air cooling system comprising at least one inlet and at least one outlet arranged along a lateral wall of the main body extending about the optical axis, said inlet and said outlet being arranged so that said lateral wall has a zone without openings which subtends an angle B of at least 120° about the optical axis.
A sealing ring (25,125) for use in a stuffing box of a reciprocating compressor, the sealing ring (25,125) comprising: first and second seal rings (44,46,144,146) engaged along respective side surfaces; first and second cover rings (40,42,140,142) disposed around the first and second seal rings (44,46,144,146) such that the outside diameters (OD5,OD6) of the first and second seal rings engage the inside diameters (ID3,ID4) of the first and second cover rings, respectively; characterised in that said sealing ring (25,125) further comprises: a support ring (38,138) engaged with the first seal ring (44,144) and the first cover ring (40,140); and a backup ring (36,136) engaged with the second seal ring (46,146) and the second cover ring (42,142). first and second seal rings (44,46,144,146) engaged along respective side surfaces; first and second cover rings (40,42,140,142) disposed around the first and second seal rings (44,46,144,146) such that the outside diameters (OD5,OD6) of the first and second seal rings engage the inside diameters (ID3,ID4) of the first and second cover rings, respectively; characterised in that said sealing ring (25,125) further comprises: a support ring (38,138) engaged with the first seal ring (44,144) and the first cover ring (40,140); and a backup ring (36,136) engaged with the second seal ring (46,146) and the second cover ring (42,142). a support ring (38,138) engaged with the first seal ring (44,144) and the first cover ring (40,140); and a backup ring (36,136) engaged with the second seal ring (46,146) and the second cover ring (42,142).
A histamine measurement method for the examination of histamine food poisoning or for the prevention of histamine food poisoning, comprising the steps of: (i) non-invasively sampling a specimen to obtain a sample for measurement from the specimen; and (ii) subjecting the sample obtained by the sampling in step (i) to histamine measurement, wherein the histamine measurement is histamine measurement by colorimetry using histamine dehydrogenase and a mediator or immunochromatography using an anti-histamine antibody, wherein the sample for measurement is collected without damaging the specimen for the sampling, wherein the specimen is a fish or a chicken, and wherein when the specimen is a fish, the non-invasive sampling is performed from the mouth, from a gill slit, or from the anus, on the surface of the fish body, or on the surface of a cut of fish meat that is not minced, of the fish, or when the specimen is a chicken, the non-invasive sampling is performed from the mouth, from the anus, or on the surface of a cut of chicken meat that is not minced, of the chicken. (i) non-invasively sampling a specimen to obtain a sample for measurement from the specimen; and (ii) subjecting the sample obtained by the sampling in step (i) to histamine measurement, wherein the histamine measurement is histamine measurement by colorimetry using histamine dehydrogenase and a mediator or immunochromatography using an anti-histamine antibody, wherein the sample for measurement is collected without damaging the specimen for the sampling, wherein the specimen is a fish or a chicken, and wherein when the specimen is a fish, the non-invasive sampling is performed from the mouth, from a gill slit, or from the anus, on the surface of the fish body, or on the surface of a cut of fish meat that is not minced, of the fish, or when the specimen is a chicken, the non-invasive sampling is performed from the mouth, from the anus, or on the surface of a cut of chicken meat that is not minced, of the chicken. when the specimen is a fish, the non-invasive sampling is performed from the mouth, from a gill slit, or from the anus, on the surface of the fish body, or on the surface of a cut of fish meat that is not minced, of the fish, or when the specimen is a chicken, the non-invasive sampling is performed from the mouth, from the anus, or on the surface of a cut of chicken meat that is not minced, of the chicken.
An annular hood (14, 16) for a turbomachine nozzle, the hood including a plurality of patterns (26, 26') arranged to extend a trailing edge (14a, 16a) of said hood and circumferentially spaced apart from one another, each pattern having an outline of substantially triangular shape with a base (26a, 26'a) formed by a portion of the trailing edge of the hood and a vertex (26b, 26'b) that is the point of the outline that is spaced downstream furthest away from the base and that is connected thereto by two lateral edges (26c, 26'c), the hood being characterized in that each pattern includes, in each of its side edges, at least one fin (28, 28'), each fin being inclined radially relative to the pattern in a plane that is inclined at an angle lying in the range 0° to 45° relative to a radial direction (δ).
An induction heating apparatus, comprising: a working coil disposed in a position corresponding to a position of a heating zone (12, 14); an inverter circuit comprising a plurality of switching elements (SW1, SW2) and configured to supply current to the working coil; a driving circuit configured to supply a switching signal (S1, S2) to each of the switching elements (SW1, SW2) included in the inverter circuit; and a controller configured: to determine a driving frequency of the working coil, corresponding to a power level of the heating zone (12, 14), when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, characterised in that the controller is configured to measure a resonance current value of the working coil, measure a driving voltage value supplied to the plurality of switching elements (SW1, SW2), determine an overlapped period of the resonance current value and the driving voltage value, compare a time point of appearance of the overlapped period with a predetermined reference time point to determine a driving state of the induction heating apparatus, and control driving of the working coil based on the driving state of the induction heating apparatus. a working coil disposed in a position corresponding to a position of a heating zone (12, 14); an inverter circuit comprising a plurality of switching elements (SW1, SW2) and configured to supply current to the working coil; a driving circuit configured to supply a switching signal (S1, S2) to each of the switching elements (SW1, SW2) included in the inverter circuit; and a controller configured: to determine a driving frequency of the working coil, corresponding to a power level of the heating zone (12, 14), when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, to determine a driving frequency of the working coil, corresponding to a power level of the heating zone (12, 14), when the power level is input, and to supply a control signal based on the driving frequency to the driving circuit for driving the working coil correspondingly, characterised in that the controller is configured to measure a resonance current value of the working coil, measure a driving voltage value supplied to the plurality of switching elements (SW1, SW2), determine an overlapped period of the resonance current value and the driving voltage value, compare a time point of appearance of the overlapped period with a predetermined reference time point to determine a driving state of the induction heating apparatus, and control driving of the working coil based on the driving state of the induction heating apparatus.