mhurhangee/ep-ind-claims huggingface dataset:
A ground maneuver assistance system for aircraft, more particularly for aeroplanes, the system comprising: a carriage driven on a runway by a drive means, the speed of which may be adapted to the landing or take off speed of the aeroplane, the carriage comprising a chassis configured to move on the runway; a mobile platform configured to support the aeroplane, the platform comprising coupling means configured to engage and release the aeroplane; and means for connecting the platform to the chassis, configured to create relative movement between the platform and the chassis; characterized in that the connection means enable translational maneuvering of the platform, in at least one vertical direction and one transverse direction relative to the travel of the carriage; and in that the connection means also allow rotation of the platform in space along three perpendicular axes of rotation, so as to orient the platform in a plane corresponding to the take off or landing angle of the aeroplane. a carriage driven on a runway by a drive means, the speed of which may be adapted to the landing or take off speed of the aeroplane, the carriage comprising a chassis configured to move on the runway; a mobile platform configured to support the aeroplane, the platform comprising coupling means configured to engage and release the aeroplane; and means for connecting the platform to the chassis, configured to create relative movement between the platform and the chassis; characterized in that the connection means enable translational maneuvering of the platform, in at least one vertical direction and one transverse direction relative to the travel of the carriage; and in that the connection means also allow rotation of the platform in space along three perpendicular axes of rotation, so as to orient the platform in a plane corresponding to the take off or landing angle of the aeroplane.
A system of adjustment of a halftoning threshold, comprising a plurality of engines comprising hardware or a combination of hardware and programming, that are to perform functions, wherein the engines comprise: a determine engine to determine an actual energy value of a first location of a plurality of locations of a build area of an additive manufacturing device, the actual energy value being indicative of the energy received by the location during a calibration period and/or an additive manufacturing operation of the additive manufacturing device; an assign engine to assign a reference energy value to the first location corresponding to the actual energy value at that location, the reference energy value comprising a value on a scale of energy values; a relative engine to assign a relative energy value from the same scale of energy values to a second location of the plurality of locations, the relative energy value having the same proportional relationship to the reference energy value as the proportional relationship between the actual energy values of the second location to the first location; and an adjust engine to adjust a halftoning threshold for the second location based on the relative energy value, wherein the halftoning threshold is used to determine whether to deposit a printing agent at the second location by comparing object data from a 3-D object model to the threshold. a determine engine to determine an actual energy value of a first location of a plurality of locations of a build area of an additive manufacturing device, the actual energy value being indicative of the energy received by the location during a calibration period and/or an additive manufacturing operation of the additive manufacturing device; an assign engine to assign a reference energy value to the first location corresponding to the actual energy value at that location, the reference energy value comprising a value on a scale of energy values; a relative engine to assign a relative energy value from the same scale of energy values to a second location of the plurality of locations, the relative energy value having the same proportional relationship to the reference energy value as the proportional relationship between the actual energy values of the second location to the first location; and an adjust engine to adjust a halftoning threshold for the second location based on the relative energy value, wherein the halftoning threshold is used to determine whether to deposit a printing agent at the second location by comparing object data from a 3-D object model to the threshold.
A method of operation of a wireless device in a cellular communications network for determining whether to perform one or more measurements on a carrier associated with a deactivated cell, comprising: acquiring (200, 500) at least one parameter related to a periodicity, D p, of a discovery signal transmitted on one or more cells of the carrier associated with the deactivated cell; acquiring (202, 502) a measurement cycle parameter, S c, for performing the one or more measurements on the one or more cells on the carrier; comparing (204, 504) the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c; and deciding (206, 506) whether to perform the one or more measurements for the cells on the carrier based on the comparison of the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c, comprising deciding (300, 400) to perform the one or more measurements only when at least one occasion of the discovery signal is time-aligned with at least one occasion of the measurement cycle parameter, Sc, as determined based on a starting time of the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c. acquiring (200, 500) at least one parameter related to a periodicity, D p, of a discovery signal transmitted on one or more cells of the carrier associated with the deactivated cell; acquiring (202, 502) a measurement cycle parameter, S c, for performing the one or more measurements on the one or more cells on the carrier; comparing (204, 504) the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c; and deciding (206, 506) whether to perform the one or more measurements for the cells on the carrier based on the comparison of the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c, comprising deciding (300, 400) to perform the one or more measurements only when at least one occasion of the discovery signal is time-aligned with at least one occasion of the measurement cycle parameter, Sc, as determined based on a starting time of the periodicity, D p, of the discovery signal and the measurement cycle parameter, S c.
A method performed by a wireless device for performing relative measurements between radio measurements of transmissions from respective first and second cells by comparing a first measurement component from a respective first cell and a second measurement component from a respective second cell, the method comprising: determining that listen-before-talk, LBT, operations are performed by a network node for one or both of the first and second cells, wherein said one or both of the first and second cells is/are License Assisted Access, LAA, capable; adapting at least one parameter related to the relative measurement based on said determining; and performing the relative measurement, wherein said performing is based on said at least one parameter. determining that listen-before-talk, LBT, operations are performed by a network node for one or both of the first and second cells, wherein said one or both of the first and second cells is/are License Assisted Access, LAA, capable; adapting at least one parameter related to the relative measurement based on said determining; and performing the relative measurement, wherein said performing is based on said at least one parameter.
A method for trimming a rectangular container, the method comprising: initially allowing a punch cutter to cut into a rectangular tubular portion of the untrimmed rectangular container, and then circumferentially moving the punch cutter along the trim line on the rectangular tubular portion to cut the rectangular tubular portion, characterised by when initially allowing a punch cutter to cut into a rectangular tubular portion of the untrimmed rectangular container, inclining the punch cutter relative to a thickness direction of a wall portion of the rectangular tubular portion at a trim line on the rectangular tubular portion. initially allowing a punch cutter to cut into a rectangular tubular portion of the untrimmed rectangular container, and then circumferentially moving the punch cutter along the trim line on the rectangular tubular portion to cut the rectangular tubular portion, characterised by when initially allowing a punch cutter to cut into a rectangular tubular portion of the untrimmed rectangular container, inclining the punch cutter relative to a thickness direction of a wall portion of the rectangular tubular portion at a trim line on the rectangular tubular portion.
A coalescent and non-ionic surfactant blend comprising: a) structure; b) structure; and c) structure; wherein n is 1 to 5. a) structure; b) structure; and c) structure; wherein n is 1 to 5.
A fraud prevention system comprising: a fraud prevention server including an electronic processor and a memory, the memory including an online application origination service, wherein, when executing the OAO service, the electronic processor is configured to determine a fraud score of an online application based on an online application origination model that differentiates between a behavior of a normal user and a behavior of a nefarious actor during a submission of the online application on a device, and control the client server to approve, hold, or deny the online application based on the fraud score that is determined; wherein the OAO model includes a feature set with behavioral features, wherein the feature set further includes non-behavioral features, and wherein the non-behavioral features further include a proxy concealed detection feature. a fraud prevention server including an electronic processor and a memory, the memory including an online application origination service, wherein, when executing the OAO service, the electronic processor is configured to determine a fraud score of an online application based on an online application origination model that differentiates between a behavior of a normal user and a behavior of a nefarious actor during a submission of the online application on a device, and control the client server to approve, hold, or deny the online application based on the fraud score that is determined; determine a fraud score of an online application based on an online application origination model that differentiates between a behavior of a normal user and a behavior of a nefarious actor during a submission of the online application on a device, and control the client server to approve, hold, or deny the online application based on the fraud score that is determined; wherein the OAO model includes a feature set with behavioral features, wherein the feature set further includes non-behavioral features, and wherein the non-behavioral features further include a proxy concealed detection feature.
A method of attaching an extension of hair, comprising the steps of: (a) providing one or more extensions of hair; (b) determining one or more locations where said one or more extensions of hair are to be attached; (c) placing protective material to protect areas of skin adjacent to said one or more locations of hair where said one or more extensions of hair are to be attached; (d) providing a bonding agent; (e) providing an applicator to apply said bonding agent to said one or more extensions of hair; (f) providing a fastener to secure said one or more extensions of hair in a position where said one or more extensions of hair may be attached to said one or more locations of hair characterized by (g) grasping said one or more extensions of hair with said fastener, wherein said fastener comprises a base area, two tweezer portions connected to the base area, and an arm extending over and above the outward facing surface of a tweezer portion, and supporting a UV light source; (h) applying a bonding agent to said one or more extensions of hair; (i) attaching said one or more extensions of hair to said one or more locations of hair; and (j) hardening said bonding agent using emission from the UV light source to cure said bonding agent to attach said one or more extensions of hair to said one or more locations of hair. (a) providing one or more extensions of hair; (b) determining one or more locations where said one or more extensions of hair are to be attached; (c) placing protective material to protect areas of skin adjacent to said one or more locations of hair where said one or more extensions of hair are to be attached; (d) providing a bonding agent; (e) providing an applicator to apply said bonding agent to said one or more extensions of hair; (f) providing a fastener to secure said one or more extensions of hair in a position where said one or more extensions of hair may be attached to said one or more locations of hair characterized by (g) grasping said one or more extensions of hair with said fastener, wherein said fastener comprises a base area, two tweezer portions connected to the base area, and an arm extending over and above the outward facing surface of a tweezer portion, and supporting a UV light source; (h) applying a bonding agent to said one or more extensions of hair; (i) attaching said one or more extensions of hair to said one or more locations of hair; and (j) hardening said bonding agent using emission from the UV light source to cure said bonding agent to attach said one or more extensions of hair to said one or more locations of hair.
A method for monitoring cell voltages for a plurality of electrochemical cells connected in series forming a cell stack, the method comprising: (a) dividing the plurality of electrochemical cells into at least two cell groups; (b) measuring a stack voltage V s (c) from the measured stack voltage V s and the number of cells in the cell stack, determining an average cell stack voltage V sa; and (d) measuring a cell group voltage V g for each cell group; characterized in that the method further comprises: (e) calculating an estimated minimum cell voltage V mi for each cell group to obtain a set of minimum cell voltages, the estimated minimum cell voltage for each cell group being calculated according to V mi = V g M − N − M * V sa M, where N is a a number of cells in the cell group, and M is an estimated number of cells operating below the average cell stack voltage; and (f) determining a minimum cell voltage V min for the cell stack by finding the minimum value in the set of minimum cell voltages V mi. (a) dividing the plurality of electrochemical cells into at least two cell groups; (b) measuring a stack voltage V s (c) from the measured stack voltage V s and the number of cells in the cell stack, determining an average cell stack voltage V sa; and (d) measuring a cell group voltage V g for each cell group; (e) calculating an estimated minimum cell voltage V mi for each cell group to obtain a set of minimum cell voltages, the estimated minimum cell voltage for each cell group being calculated according to V mi = V g M − N − M * V sa M, where N is a a number of cells in the cell group, and M is an estimated number of cells operating below the average cell stack voltage; and (f) determining a minimum cell voltage V min for the cell stack by finding the minimum value in the set of minimum cell voltages V mi.
Wafer level package (10, 10', 10") with at least one integrated antenna (16a, 16a'), comprising: a chip layer (12, 12') with at least one chip (12a, 12b, 12a'); a dielectric layer (14, 14', 14") with at least one through-connection by means of a via; and an antenna layer (16, 16') with the at least one integrated antenna (16a, 16a') arranged between the chip layer (12, 12') and the dielectric layer (14, 14', 14"); wherein the wafer level package comprises a contacting layer (18, 18') that is arranged on the dielectric layer (14, 14', 14") opposite to the antenna layer (16, 16'); wherein a shield is arranged on the dielectric layer (14, 14', 14") opposite to the antenna layer (16, 16') or is integrated in the contacting layer (18, 18'); wherein the chip layer (12, 12') comprises a fan-out area (12p', 12g'); wherein the chip layer (12, 12') and/or the dielectric layer (14, 14', 14") comprises a shielding via (16v, 14v) that is arranged laterally between the at least one integrated antenna (16a, 16a') and the chip (12a, 12b, 12a') and is configured to shield between the chip (12a, 12b, 12a') and the at least one integrated antenna (16a, 16a'); wherein the shielding via (16v, 14v) is arranged beside the chip (12a, 12b, 12a'); wherein the wafer level package comprises no redistribution layer. a chip layer (12, 12') with at least one chip (12a, 12b, 12a'); a dielectric layer (14, 14', 14") with at least one through-connection by means of a via; and an antenna layer (16, 16') with the at least one integrated antenna (16a, 16a') arranged between the chip layer (12, 12') and the dielectric layer (14, 14', 14"); wherein the wafer level package comprises a contacting layer (18, 18') that is arranged on the dielectric layer (14, 14', 14") opposite to the antenna layer (16, 16'); wherein a shield is arranged on the dielectric layer (14, 14', 14") opposite to the antenna layer (16, 16') or is integrated in the contacting layer (18, 18'); wherein the chip layer (12, 12') comprises a fan-out area (12p', 12g'); wherein the chip layer (12, 12') and/or the dielectric layer (14, 14', 14") comprises a shielding via (16v, 14v) that is arranged laterally between the at least one integrated antenna (16a, 16a') and the chip (12a, 12b, 12a') and is configured to shield between the chip (12a, 12b, 12a') and the at least one integrated antenna (16a, 16a'); wherein the shielding via (16v, 14v) is arranged beside the chip (12a, 12b, 12a'); wherein the wafer level package comprises no redistribution layer.
A drying apparatus (100, 200) comprising: a movable product conveyor having a product support surface for supporting a product to be dried; at least first and second heater supports (302, 304), each heater support supporting one or more dry radiant heating elements (269, 261) and being movable relative to each other and relative to the conveyor to adjust the distance between each heater support and the conveyor; the product conveyor being configured to move relative to the first and second heater supports such that the product supported on the conveyor is successively heated by the heating elements of the first heater support and the heating elements of the second heater supports; and a controller (150, 250) characterised in that said controller (150, 250) is configured to continuously monitor the wavelength of the heating elements and the product temperature and to adjust the temperature of the heating elements of each heater support and the distance between the heating elements of each heater support and the conveyor such that the heating elements emit radiant heat at a predetermined wavelength and heat the product according to a predetermined product temperature profile as the product is moved through the drying apparatus by the product conveyor. a movable product conveyor having a product support surface for supporting a product to be dried; at least first and second heater supports (302, 304), each heater support supporting one or more dry radiant heating elements (269, 261) and being movable relative to each other and relative to the conveyor to adjust the distance between each heater support and the conveyor; the product conveyor being configured to move relative to the first and second heater supports such that the product supported on the conveyor is successively heated by the heating elements of the first heater support and the heating elements of the second heater supports; and a controller (150, 250) characterised in that said controller (150, 250) is configured to continuously monitor the wavelength of the heating elements and the product temperature and to adjust the temperature of the heating elements of each heater support and the distance between the heating elements of each heater support and the conveyor such that the heating elements emit radiant heat at a predetermined wavelength and heat the product according to a predetermined product temperature profile as the product is moved through the drying apparatus by the product conveyor.
Carrier for a measurement head (40, 41) of an optoelectronic alignment device for use in the measurement of the relative alignment of two shafts (34, 35), which is used to mount a measurement head (40, 41) on one of the two shafts, comprising: a body adapted for placement against a cylindrical surface of one of the shafts (34, 35), a clamping device (47, 48) for attachment of the body on the shaft (34, 35), characterized in that the carrier further comprises a holding device (45, 46) for accommodating a measurement head (40, 41) so that the measurement head (40, 41) can be displaced in a direction along the length of the holding device (45, 46), a rotation device which is permanently connected to the body, a rotary part of the rotation device having pivot joint connected to the holding device (45, 46), the pivot joint having an axis of rotation running coaxially or parallel to the shaft (34, 35), wherein the direction in which the measurement head (40, 41) can be displaced along the length of the holding device (45, 46) is radial relative to the axis of rotation of the pivot joint. a body adapted for placement against a cylindrical surface of one of the shafts (34, 35), a clamping device (47, 48) for attachment of the body on the shaft (34, 35), characterized in that the carrier further comprises a holding device (45, 46) for accommodating a measurement head (40, 41) so that the measurement head (40, 41) can be displaced in a direction along the length of the holding device (45, 46), a rotation device which is permanently connected to the body, a rotary part of the rotation device having pivot joint connected to the holding device (45, 46), the pivot joint having an axis of rotation running coaxially or parallel to the shaft (34, 35), wherein the direction in which the measurement head (40, 41) can be displaced along the length of the holding device (45, 46) is radial relative to the axis of rotation of the pivot joint.