mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: storing, by one or more memories, optical data from an optical recorder comprising at least two optical data sets by: gathering a first optical data set of an eye with a pupil having a first pupil size; and gathering a second optical data set of the eye with the pupil having a second pupil size; receiving, by the one or more processors, a measured cyclotorsion; characterized in that the following are performed: determining, by one or more processors, a pseudo-rotation related to a pupil size change; calculating, by the one or more processors, an actual cyclotorsion from the measured cyclotorsion and the pseudo-rotation; and adjusting, by the one or more processors, a laser treatment according to the actual cyclotorsion. storing, by one or more memories, optical data from an optical recorder comprising at least two optical data sets by: gathering a first optical data set of an eye with a pupil having a first pupil size; and gathering a second optical data set of the eye with the pupil having a second pupil size; gathering a first optical data set of an eye with a pupil having a first pupil size; and gathering a second optical data set of the eye with the pupil having a second pupil size; receiving, by the one or more processors, a measured cyclotorsion; characterized in that the following are performed: determining, by one or more processors, a pseudo-rotation related to a pupil size change; calculating, by the one or more processors, an actual cyclotorsion from the measured cyclotorsion and the pseudo-rotation; and adjusting, by the one or more processors, a laser treatment according to the actual cyclotorsion. determining, by one or more processors, a pseudo-rotation related to a pupil size change; calculating, by the one or more processors, an actual cyclotorsion from the measured cyclotorsion and the pseudo-rotation; and adjusting, by the one or more processors, a laser treatment according to the actual cyclotorsion.
A prefabricated wall assembly (1000, 2000) comprising: a. an outer frame assembly connected to a masonry panel assembly, the masonry panel assembly comprising a plurality of masonry units compressed into at least one masonry panel; b. an inner frame assembly attached to an insulation panel; c. the masonry panel and the insulation panel being spaced at a distance from each other by an air gap; d. the inner frame assembly and the outer frame assembly being securely connected to each other at one or more connecting assemblies; e. the prefabricated wall assembly being configured for being connected to the outside of a building structure as cladding. a. an outer frame assembly connected to a masonry panel assembly, the masonry panel assembly comprising a plurality of masonry units compressed into at least one masonry panel; b. an inner frame assembly attached to an insulation panel; c. the masonry panel and the insulation panel being spaced at a distance from each other by an air gap; d. the inner frame assembly and the outer frame assembly being securely connected to each other at one or more connecting assemblies; e. the prefabricated wall assembly being configured for being connected to the outside of a building structure as cladding.
A method for making a downhole directional resistivity measurement, the method comprising: (a) rotating a downhole directional resistivity tool in a borehole, the tool including at least one transmitting antenna, at least one axially spaced receiving antenna, and at least one azimuth sensor; (b) causing the tool to acquire a plurality of data pairs, each data pair comprising a directional resistivity measurement and a corresponding azimuth angle; (c) processing the data pairs acquired in (b) to calculate a harmonic representation at a plurality of selected azimuth angles according to the following mathematical equation: d φ k = ∑ i d i cos φ k − φ i, k = 1,2,..., m wherein d ( φ k) represent the first order harmonic representations at the selected azimuth angles φ k, d i represents the directional resistivity measurement in the i-th data pair and φ i represents the corresponding azimuth angle in the i-th data pair such that d i and φ i in combination represent the plurality of data pairs, and m is an integer. (a) rotating a downhole directional resistivity tool in a borehole, the tool including at least one transmitting antenna, at least one axially spaced receiving antenna, and at least one azimuth sensor; (b) causing the tool to acquire a plurality of data pairs, each data pair comprising a directional resistivity measurement and a corresponding azimuth angle; (c) processing the data pairs acquired in (b) to calculate a harmonic representation at a plurality of selected azimuth angles according to the following mathematical equation: d φ k = ∑ i d i cos φ k − φ i, k = 1,2,..., m wherein d ( φ k) represent the first order harmonic representations at the selected azimuth angles φ k, d i represents the directional resistivity measurement in the i-th data pair and φ i represents the corresponding azimuth angle in the i-th data pair such that d i and φ i in combination represent the plurality of data pairs, and m is an integer.
Box comprising a handle and two sheets (2, 3) of paper material overlapping and integrally bound to each other: at least one opening made on one of said sheets (2, 3); a handle interposed between said sheets (2, 3) and defining two ends opposite each other and a grip portion between said ends; said ends being integrally bound between said sheets (2, 3) placing said grip portion over said opening; and characterised in that: said handle is made of fabric made with a cotton yarn starched with a vinyl product, said sheets are made of kraft paper, and said handle is glued between said sheets (2, 3), said sheets (2, 3) are integrally constrained to each other by glue.
A thrust scheduling method for gas turbine engine that includes a plurality of fan blades having a variable pitch beta angle, the method comprising: receiving into a control system at least one condition input from a respective sensor; receiving into a control system a propulsor speed (N 1; Nx) from a propulsor speed sensor; receiving a control command from a full authority digital engine control (FADEC) in the control system; generating a propulsor speed base reference from a first schedule logic in the control system based upon the at least one condition input received and the control command received; generating a beta angle base reference from a second schedule logic from the at least one condition input received, the propulsor speed (N 1), and the control command received; and supplying the propulsor speed base reference and the beta angle base reference to an engine control system, wherein the engine control system adjusts at least the pitch angle of the plurality of fan blades or a fuel flow to the engine. receiving into a control system at least one condition input from a respective sensor; receiving into a control system a propulsor speed (N 1; Nx) from a propulsor speed sensor; receiving a control command from a full authority digital engine control (FADEC) in the control system; generating a propulsor speed base reference from a first schedule logic in the control system based upon the at least one condition input received and the control command received; generating a beta angle base reference from a second schedule logic from the at least one condition input received, the propulsor speed (N 1), and the control command received; and supplying the propulsor speed base reference and the beta angle base reference to an engine control system, wherein the engine control system adjusts at least the pitch angle of the plurality of fan blades or a fuel flow to the engine.
A field hockey stick (31, 41), comprising: a shaft (32, 42); a head (33, 43), comprising: - a front surface (34, 411) comprising a flat portion; and - a back surface (35, 412) opposite the front surface (34, 411), wherein the back surface (35, 412) comprises a flat portion (36, 413), and wherein a lifting angle between the flat portion (36, 413) of the back surface (35, 412) and the flat portion of the front surface (34, 411) is between 20 and 80 degrees. a shaft (32, 42); a head (33, 43), comprising: - a front surface (34, 411) comprising a flat portion; and - a back surface (35, 412) opposite the front surface (34, 411), wherein the back surface (35, 412) comprises a flat portion (36, 413), and wherein a lifting angle between the flat portion (36, 413) of the back surface (35, 412) and the flat portion of the front surface (34, 411) is between 20 and 80 degrees. - a front surface (34, 411) comprising a flat portion; and - a back surface (35, 412) opposite the front surface (34, 411), wherein the back surface (35, 412) comprises a flat portion (36, 413), and wherein a lifting angle between the flat portion (36, 413) of the back surface (35, 412) and the flat portion of the front surface (34, 411) is between 20 and 80 degrees.
Vehicle headlamp, with a housing, and with at least two optically-relevant structural units (110, 210, 310), for example light module units (110, 210, 310), wherein each optically-relevant structural unit (110, 210, 310) is fixed in a separate supporting element (100, 200, 300), and each supporting element (100, 200, 300) is mounted such that it can pivot with respect to the housing, in each case about a horizontal axis (H 1, H 2, H 3), and in each case about a vertical axis (V 1, V 2, V 3), wherein for purposes of pivoting the supporting elements (100, 200, 300) about their horizontal axes (H 1, H 2, H 3), a horizontal axes pivoting device is provided, which horizontal axes pivoting device is movably connected, by means of a horizontal axes coupling device, to at least two supporting elements (100, 200, 300), each of which can be pivoted about their horizontal axes (H 1, H 2, H 3), and wherein for purposes of pivoting the supporting elements (100, 200, 300) about their vertical axes (V 1, V 2, V 3), a vertical axes pivoting device is provided, which vertical axes pivoting device is optionally coupled, by means of a vertical axes coupling device, mounted such that it can rotate about a coupling device vertical axis, with respect to the housing, with at least two supporting elements (100, 200, 300), each of which can pivot about their vertical axes (V 1, V 2, V 3), characterised in that, the supporting elements (100, 200, 300) are arranged in at least two headlamp planes (E 1, E 2, E 3), spaced apart from one another in the vertical direction (D 1V, D 2V, D 3V), wherein the horizontal axes coupling device is movably connected to at least two supporting elements (100, 200, 300), and is mounted such that it can rotate about a coupling device horizontal axis (H K) with respect to the housing.
A phone holder for a vehicle, said phone holder comprising a rear support structure intended to face a backside of a phone and a front support structure intended to face a front side of a phone, said phone holder further comprising side support structure (4, 5) in order to align a phone in the phone holder, the support structures (2, 3, 4, 5) defining a slot opening through which a phone may be inserted, said phone holder is further provided with a rotatable member provided in one of the support structures (2, 3, 4, 5), said rotatable member further having a control mechanism (100, 200) which may be set in a first insertion mode and further having a second, release mode in which a phone may be moved in the phone holder in the release direction without being prevented by the rotatable member characterized in that in the first insertion mode is the rotatable member designed to be in contact with a phone when being inserted in the phone holder and said rotatable member may rotate freely in the insertion direction while having a latch preventing the rotatable member from being able to rotate in the release direction in order to allow insertion of a phone in the insertion direction while preventing a phone from being moved in the release direction.
A substrate holder pair comprising: a first substrate holder (2014, 3014) that has a first holder body (2022, 3022)holding a first substrate (2016, 3016); a second substrate holder (2015, 3015) that has a second holder body (2023, 3023) holding a second substrate (2017, 3017); wherein the first substrate holder (2014, 3014) and the second substrate holder (2015, 3015) are configured to sandwich the first substrate (2016, 3016) and the second substrate (2017, 3017); the substrate holder pair further comprising a dust flow inhibiting mechanism configured to inhibit dust from entering between the first substrate (2016, 3016) and the second substrate (2017, 3017); characterized in that: the substrate holder pair comprises a suction apparatus configured to suck dust, before entering between the first substrate (2016, 3016) and the second substrate (2017, 3017), and withdraw the dust from between the first substrate holder (2014, 3014) and the second substrate holder (2015, 3015). a first substrate holder (2014, 3014) that has a first holder body (2022, 3022)holding a first substrate (2016, 3016); a second substrate holder (2015, 3015) that has a second holder body (2023, 3023) holding a second substrate (2017, 3017); wherein the first substrate holder (2014, 3014) and the second substrate holder (2015, 3015) are configured to sandwich the first substrate (2016, 3016) and the second substrate (2017, 3017); the substrate holder pair further comprising a dust flow inhibiting mechanism configured to inhibit dust from entering between the first substrate (2016, 3016) and the second substrate (2017, 3017); characterized in that: the substrate holder pair comprises a suction apparatus configured to suck dust, before entering between the first substrate (2016, 3016) and the second substrate (2017, 3017), and withdraw the dust from between the first substrate holder (2014, 3014) and the second substrate holder (2015, 3015).
A suppressor for a firearm, comprising: a casing; a plurality of baffles inside said casing; a retainer (40; 64) releasably coupled to said casing downstream from said plurality of baffles, wherein said retainer (40; 64) has a downstream surface; and a rear cap releasably coupled to said casing upstream from said plurality of baffles, wherein said rear cap has an upstream surface and a downstream surface; characterized in that the suppressor further comprises: a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing, said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing. a casing; a plurality of baffles inside said casing; a retainer (40; 64) releasably coupled to said casing downstream from said plurality of baffles, wherein said retainer (40; 64) has a downstream surface; and a rear cap releasably coupled to said casing upstream from said plurality of baffles, wherein said rear cap has an upstream surface and a downstream surface; characterized in that the suppressor further comprises: a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing, said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing. a downstream rear cap surface feature defined by said downstream surface of said rear cap that has a complementary shape to said downstream surface of said retainer (40; 64); wherein when said rear cap is removed from said casing, said downstream rear cap surface feature can engage with said downstream surface of said retainer (40; 64) to remove said retainer (40; 64) from said casing.
An interface structure for an electronic component comprising; a main portion made of electrically insulating material, the main portion including a first main surface, a second main surface opposite to the first main surface, and a plurality of through holes passing from the first main surface to the second main surface, an inner wall of each through hole applied with a conductive plating; and a plurality of coil springs made of electrically conductive material, each coil spring being received in the corresponding through hole of the main portion; wherein each coil spring includes a connection portion for connecting a terminal of the electronic component inserted from the through hole at the side of the first main surface, a movable contact portion for contacting with a conductive region at the side of the second main surface, and an elastic portion connected between the connection portion and the movable contact portion, characterized in that the movable contact portion includes an end portion having a respective axial direction that is inclined at an angle θ relative to the axial direction of the coil spring when the coil spring is in an uncompressed state, and wherein the movable contact portion protrudes from the second main surface of the main portion.
A light receiving element comprising: a semiconductor substrate; wherein light is incident from a back surface side of the semiconductor substrate and a front surface of the semiconductor substrate is a surface opposite to the back surface; a photoelectric conversion unit which is provided in the semiconductor substrate and converts light into electric charges; a first electric charge accumulation unit which is provided in the semiconductor substrate and to which the electric charges are transferred from the photoelectric conversion unit; a first distribution gate which is provided on a front surface of the semiconductor substrate and distributes the electric charges from the photoelectric conversion unit to the first electric charge accumulation unit; a second electric charge accumulation unit which is provided in the semiconductor substrate and to which the electric charges are transferred from the photoelectric conversion unit; and a second distribution gate which is provided on the front surface of the semiconductor substrate and distributes the electric charges from the photoelectric conversion unit to the second electric charge accumulation unit, wherein the first and second distribution gates each have a pair of buried gate portions buried in the semiconductor substrate.
Multistage transmission, comprising at least four planetary gear sets (1, 2, 3, 4), a housing, a driveshaft and an output shaft, wherein - a internal gear of the first planetary gear set is connected rotationally conjointly to a sun gear of the fourth planetary gear set, - the drive shaft is couplable to a sun gear of the first planetary gear set by means of a first clutch, - a web of the first planetary gear set is couplable to the housing by means of a second brake, - the sun gear of the first planetary gear set is couplable to the housing by means of a first brake, wherein - a web of the fourth planetary gear set is connected rotationally fixedly to the housing, wherein - an internal gear of the fourth planetary gear set is couplable to the output shaft by means of a second clutch, and wherein four of the following connections are designed to be permanent and two of the following connections are designed to be releasable in each case by means of at least one shift element: - connection of an internal gear of the second planetary gear set to the web of the first planetary gear set, - connection of the internal gear of the first planetary gear set to a web of the second planetary gear set, - connection of the internal gear of the first planetary gear set to a sun gear of a third planetary gear set, - connection of an internal gear of the third planetary gear set to the output shaft, - connection of the drive shaft to a sun gear of the second planetary gear set, - connection of the drive shaft to a web of the third planetary gear set. - a internal gear of the first planetary gear set is connected rotationally conjointly to a sun gear of the fourth planetary gear set, - the drive shaft is couplable to a sun gear of the first planetary gear set by means of a first clutch, - a web of the first planetary gear set is couplable to the housing by means of a second brake, - the sun gear of the first planetary gear set is couplable to the housing by means of a first brake, wherein - a web of the fourth planetary gear set is connected rotationally fixedly to the housing, wherein - an internal gear of the fourth planetary gear set is couplable to the output shaft by means of a second clutch, and wherein four of the following connections are designed to be permanent and two of the following connections are designed to be releasable in each case by means of at least one shift element: - connection of an internal gear of the second planetary gear set to the web of the first planetary gear set, - connection of the internal gear of the first planetary gear set to a web of the second planetary gear set, - connection of the internal gear of the first planetary gear set to a sun gear of a third planetary gear set, - connection of an internal gear of the third planetary gear set to the output shaft, - connection of the drive shaft to a sun gear of the second planetary gear set, - connection of the drive shaft to a web of the third planetary gear set.
A process for preparing a compound of Formula 1 or a veterinary acceptable salt thereof, comprising a) reacting the compound, trans-4-((methylamino)cyclohexyl)methanesulfonic acid with a 7H-pyrrolo[2,3-d]pyrimidine analog of Formula wherein W is Cl, F, Br, I, O-triflate, O-mesyl, or O-tosyl: in water or an aqueous organic solvent with a base at a reaction temperature of about 60°C to about 105°C to prepare the sulfonate salt; b) conversion of the sulfonate salt to the sulfonyl chloride intermediate in an organic solvent; and c) conversion of the sulfonyl chloride intermediate to the Formula 1 compound by reacting the sulfonyl chloride intermediate with a cold aqueous solution of methylamine. a) reacting the compound, trans-4-((methylamino)cyclohexyl)methanesulfonic acid with a 7H-pyrrolo[2,3-d]pyrimidine analog of Formula wherein W is Cl, F, Br, I, O-triflate, O-mesyl, or O-tosyl: in water or an aqueous organic solvent with a base at a reaction temperature of about 60°C to about 105°C to prepare the sulfonate salt; b) conversion of the sulfonate salt to the sulfonyl chloride intermediate in an organic solvent; and c) conversion of the sulfonyl chloride intermediate to the Formula 1 compound by reacting the sulfonyl chloride intermediate with a cold aqueous solution of methylamine.