mhurhangee/ep-ind-claims huggingface dataset:
A vehicle with a driver seat whose direction is changeable, comprising: a wheel-side vehicle body which has wheels (3, 4) suspended thereon and is capable of running and stopping by driving and braking the wheels (3, 4); a cabin-side vehicle body which is mounted on the wheel-side vehicle body in such a manner as to be capable of turning at least to directions causing the driver seat respectively to face one and the other sides, in a travel direction, of the wheel-side vehicle body; a driver-seat-direction detector configured to detect whether the driver seat is facing the one or the other side, in the travel direction, of the wheel-side vehicle body; a braking unit configured to brake one-side wheels (3, 4), which are located closer to the one side, in the travel direction, of the wheel-side vehicle body, and other-side wheels (4, 3), which are located closer to the other side, in the travel direction, of the wheel-side vehicle body, while controlling brake-force distribution between brake forces of the one-side wheels (3, 4) and the other-side wheels (4, 3) in such a manner that the brake-force distribution becomes a set brake-force distribution based on ideal brake-force distribution characteristics; and a switching unit configured to change the set brake-force distribution in accordance with the direction of the driver seat detected by the driver-seat-direction detector. a wheel-side vehicle body which has wheels (3, 4) suspended thereon and is capable of running and stopping by driving and braking the wheels (3, 4); a cabin-side vehicle body which is mounted on the wheel-side vehicle body in such a manner as to be capable of turning at least to directions causing the driver seat respectively to face one and the other sides, in a travel direction, of the wheel-side vehicle body; a driver-seat-direction detector configured to detect whether the driver seat is facing the one or the other side, in the travel direction, of the wheel-side vehicle body; a braking unit configured to brake one-side wheels (3, 4), which are located closer to the one side, in the travel direction, of the wheel-side vehicle body, and other-side wheels (4, 3), which are located closer to the other side, in the travel direction, of the wheel-side vehicle body, while controlling brake-force distribution between brake forces of the one-side wheels (3, 4) and the other-side wheels (4, 3) in such a manner that the brake-force distribution becomes a set brake-force distribution based on ideal brake-force distribution characteristics; and a switching unit configured to change the set brake-force distribution in accordance with the direction of the driver seat detected by the driver-seat-direction detector.
A first formulation comprising pemetrexed and a second formulation comprising methoxyamine, for use in the treatment of a patient diagnosed with a cancer selected from among lung cancer, colorectal cancer, ovarian cancer, pancreatic cancer, renal cancer, endometrial cancer, gastric cancer, liver cancer, and breast cancer, wherein methoxyamine is administered to the patient_in an amount sufficient to potentiate the activity of pemetrexed.
An information processing apparatus (PRH1, PRH3, PRH4, PRH5) adapted to provide image data to a projection unit (PRF6, PRH2), said projection unit being configured to project an image, the information processing apparatus comprising: an inputting unit (PRF1, PRH1) configured to input image data that expresses the image, the image data having pixel values that are RGB values; a converting unit (PRF2, PRH4) configured to convert pixel values of the image data into luminance signals and color difference signals (Cb, Cr); a determining unit (PRF3, PRH4) configured to calculate a variance or a standard deviation of the luminance signals and configured to determine to invert the luminance signals if the calculated variance or standard deviation is less than or equal to a first threshold; an inverting unit configured to invert the luminance signals to calculate inverted luminance signals (Y') by subtracting the luminance signal from the maximum value of the image data if the determining unit has determined to invert the luminance signals; and a generating unit configured to generate inverted data based on the color difference signals (Cb, Cr) and the inverted luminance signals (Y'); wherein the projecting unit (PRF6, PRH2) is configured to project the image based on the inverted data, and wherein the determining unit (PRF3, PRH4) is further configured to determine to invert the luminance signals if an average of the luminance signals is greater than or equal to a second threshold, and the determining unit (PRF3, PRH4) is further configured to determine to invert the luminance signals if the number of white pixels each of which has a white color included in the image data is greater than the number of black pixels each of which has a black color included in the image data, and wherein the image data is expressed by 8 bits, each of the white pixels has a pixel value greater than or equal to 230, and each of the black pixels has a pixel value less than or equal to 15.
An air interface synchronization method for a home NodeB, comprising: setting a priority strategy for selecting a synchronization reference object; according to the set priority strategy, the HNB selecting the synchronization reference object from HNB's own frequency point list to perform air interface synchronization; characterized in that the frequency point list is a frequency point list allocated by network management for the HNB based on a current position of the HNB, or a frequency point list supported by the HNB's own hardware; said frequency point list comprises relevant information of a covering macro cell of a current HNB, and/or relevant information of a HNB cell adjacent to a current HNB cell. setting a priority strategy for selecting a synchronization reference object; according to the set priority strategy, the HNB selecting the synchronization reference object from HNB's own frequency point list to perform air interface synchronization; characterized in that the frequency point list is a frequency point list allocated by network management for the HNB based on a current position of the HNB, or a frequency point list supported by the HNB's own hardware; said frequency point list comprises relevant information of a covering macro cell of a current HNB, and/or relevant information of a HNB cell adjacent to a current HNB cell.
Contact lens, comprising: a posterior surface; and an opposite anterior surface including a vertical meridian, a horizontal meridian, a central optical zone, a blending zone extending outwardly from the central optical zone, a peripheral zone surrounding the blending zone, and an edge zone circumscribing and tangent to the peripheral zone, wherein the blending zone has a surface which ensures that the peripheral zone, the blending zone and the central optical zone are tangent to each other, wherein the peripheral zone has a surface that, in combination with the posterior surface, provides in the peripheral zone of the lens a thickness profile which is characterized by having a lens thickness which increases progressively from the top of the lens downwardly along each of the vertical meridian and lines parallel to the vertical meridian until reaching a maximum value at a position between the optical zone and the edge zone and then decreases to the edge of the edge zone, wherein the lens thickness profile has a mirror symmetry with respect to a plane cutting through the vertical meridian, characterised in that the peripheral zone further comprises a ridge feature disposed below the central optical zone, wherein the ridge feature extends outwardly from the anterior surface to enable engagement with a lower eyelid of a user and thereby provide vertical translation support for the contact lens when being worn by the user. a posterior surface; and an opposite anterior surface including a vertical meridian, a horizontal meridian, a central optical zone, a blending zone extending outwardly from the central optical zone, a peripheral zone surrounding the blending zone, and an edge zone circumscribing and tangent to the peripheral zone, wherein the blending zone has a surface which ensures that the peripheral zone, the blending zone and the central optical zone are tangent to each other, wherein the peripheral zone has a surface that, in combination with the posterior surface, provides in the peripheral zone of the lens a thickness profile which is characterized by having a lens thickness which increases progressively from the top of the lens downwardly along each of the vertical meridian and lines parallel to the vertical meridian until reaching a maximum value at a position between the optical zone and the edge zone and then decreases to the edge of the edge zone, wherein the lens thickness profile has a mirror symmetry with respect to a plane cutting through the vertical meridian,
Transmission for a hybrid drive arrangement, which can be coupled to two drive units (7, 8), comprising an input shaft and an output shaft, at least a first, second, third, fourth, fifth, sixth and seventh switching element (SE1, SE2, SE3, SE4, SE5, SE6, SE7), and at least one planetary transmission, wherein the input shaft can be coupled to a first transmission shaft by means of the first switching element and the first transmission shaft can be coupled to the internal gear of the planetary transmission by means of the second switching element and the first transmission shaft can be coupled to a second transmission shaft by means of the third switching element and the first transmission shaft can be coupled to a third transmission shaft by means of the fourth switching element and wherein the output shaft can be coupled to the third transmission shaft by means of the fifth switching element and the output shaft is coupled to the planet carrier of the planetary transmission wherein the second transmission shaft can be coupled to the sun gear of the planetary transmission by means of the sixth switching element, wherein the seventh switching element is configured to couple the second transmission shaft to a fixed point. at least a first, second, third, fourth, fifth, sixth and seventh switching element (SE1, SE2, SE3, SE4, SE5, SE6, SE7), and at least one planetary transmission, wherein the input shaft can be coupled to a first transmission shaft by means of the first switching element and the first transmission shaft can be coupled to the internal gear of the planetary transmission by means of the second switching element and the first transmission shaft can be coupled to a second transmission shaft by means of the third switching element and the first transmission shaft can be coupled to a third transmission shaft by means of the fourth switching element and wherein the output shaft can be coupled to the third transmission shaft by means of the fifth switching element and the output shaft is coupled to the planet carrier of the planetary transmission wherein the second transmission shaft can be coupled to the sun gear of the planetary transmission by means of the sixth switching element, wherein the seventh switching element is configured to couple the second transmission shaft to a fixed point.
A method for making multisegment articles, comprising the steps of - preparing a plurality of segments (1, 2, 3, 4) of different kinds; - assembling the segments (1, 2, 3, 4) of different kinds to make an alternating succession of first and second units (60, 70) advancing transversely to the longitudinal axis of the segments (1, 2, 3, 4) and wherein at least the first units are each made up of at least two segments (1, 2, 3, 4) of different kinds; - assembling the units (60, 70) in a single forming beam to form a single continuous rod defined by a predetermined sequence of segments (1, 2, 3, 4) of different kinds; wherein the step of assembling the segments (1, 2, 3, 4) of different kinds to make an alternating succession of first and second units (60, 70) is carried out in such a way that the segments (1, 2, 3, 4) of each of the aforesaid different kinds form part only of the first or the second unit (60, 70). - preparing a plurality of segments (1, 2, 3, 4) of different kinds; - assembling the segments (1, 2, 3, 4) of different kinds to make an alternating succession of first and second units (60, 70) advancing transversely to the longitudinal axis of the segments (1, 2, 3, 4) and wherein at least the first units are each made up of at least two segments (1, 2, 3, 4) of different kinds; - assembling the units (60, 70) in a single forming beam to form a single continuous rod defined by a predetermined sequence of segments (1, 2, 3, 4) of different kinds;
An occlusal pressure measuring device comprising: a sensor portion capable of measuring occlusal pressure; and a body which transmits information obtained from the sensor portion, wherein the sensor portion is a laminate of a plurality of layers; at least one of the plurality of layers is a pressure sensitive layer capable of detecting occlusal pressure; and at least one outermost layer of the sensor portion is a shape transfer layer which is deformed by the occlusal pressure and retains the deformation even when the occlusal pressure is removed. a sensor portion capable of measuring occlusal pressure; and a body which transmits information obtained from the sensor portion, wherein the sensor portion is a laminate of a plurality of layers; at least one of the plurality of layers is a pressure sensitive layer capable of detecting occlusal pressure; and at least one outermost layer of the sensor portion is a shape transfer layer which is deformed by the occlusal pressure and retains the deformation even when the occlusal pressure is removed.
A conveying device comprising: a first feeder that rotatably supports a roll sheet and feeds the roll sheet to a conveying path; a second feeder that feeds a cut sheet to the conveying path; a sensor that detects movement of a sheet in the conveying path; and a controller configured to determine whether a sheet fed to the conveying path is the roll sheet or the cut sheet based on a relationship between movement of the sheet fed to the conveying path and rotation of the roll sheet, characterized in that the controller is further configured to determine that the sheet fed to the conveying path is the roll sheet if the rotation of the roll sheet and the movement detected by the sensor occur in conjunction with each other when the roll sheet is rotated in a reverse direction of a feeding direction of the roll sheet, and wherein the controller determines, if the rotation and the movement do not occur in conjunction with each other, that the sheet fed to the conveying path is the cut sheet, and the controller sets a first mode for cutting the sheet fed to the conveying path when the controller determines that the sheet is the roll sheet and sets a second mode for not cutting the sheet fed to the conveying path when the controller determines that the sheet is the cut sheet. a first feeder that rotatably supports a roll sheet and feeds the roll sheet to a conveying path; a second feeder that feeds a cut sheet to the conveying path; a sensor that detects movement of a sheet in the conveying path; and a controller configured to determine whether a sheet fed to the conveying path is the roll sheet or the cut sheet based on a relationship between movement of the sheet fed to the conveying path and rotation of the roll sheet, characterized in that the controller is further configured to determine that the sheet fed to the conveying path is the roll sheet if the rotation of the roll sheet and the movement detected by the sensor occur in conjunction with each other when the roll sheet is rotated in a reverse direction of a feeding direction of the roll sheet, and wherein the controller determines, if the rotation and the movement do not occur in conjunction with each other, that the sheet fed to the conveying path is the cut sheet, and the controller sets a first mode for cutting the sheet fed to the conveying path when the controller determines that the sheet is the roll sheet and sets a second mode for not cutting the sheet fed to the conveying path when the controller determines that the sheet is the cut sheet.
An apparatus, comprising: an add-on supplemental door actuation module having an outer housing structured for engagement to a door closer device and having an actuator configured to be in force communication with the door closer device, wherein the add-on supplemental door actuation module is structured to activate an energy storage device of said add-on supplemental door actuation module to store an energy along a swing of a door when the door closer device is actuated in a first direction and structured to maintain the stored energy when the door closer device is actuated in a second direction until the door reaches a boost location wherein the stored energy is released to deliver a boost energy to the door to supplement the door closer device; the add-on supplemental door actuation module further comprising: a first reaction member and a second reaction member configured to be in contact with the actuator, the first reaction member configured to energize the energy storage device as a result of a first movement of the actuator in the first direction, the second reaction member configured to receive the boost energy from the energy storage device as a result of a second movement of the actuator in the second direction; a keeper structured to permit independent movement of the first reaction member and second reaction member during the first movement, and couple the first reaction member and the second reaction member to have sympathetic movement during the second movement, wherein the keeper comprises a latch and a catch, the latch being receivable by the catch to couple the first reaction member and second reaction member to provide the sympathetic movement during the second movement, and permit the independent movement of the first reaction member and second reaction member during the first movement. a first reaction member and a second reaction member configured to be in contact with the actuator, the first reaction member configured to energize the energy storage device as a result of a first movement of the actuator in the first direction, the second reaction member configured to receive the boost energy from the energy storage device as a result of a second movement of the actuator in the second direction; a keeper structured to permit independent movement of the first reaction member and second reaction member during the first movement, and couple the first reaction member and the second reaction member to have sympathetic movement during the second movement, wherein the keeper comprises a latch and a catch, the latch being receivable by the catch to couple the first reaction member and second reaction member to provide the sympathetic movement during the second movement, and permit the independent movement of the first reaction member and second reaction member during the first movement.
A percussive pulsed air device, comprising: an airflow generator controlling an amplitude of the percussive pulsed air; a pulse frequency control module controlling a frequency of the percussive pulsed air, the pulse frequency control module comprising a rotatable fan blade (20, 220) having at least one cutout portion (22, 222), the cutout portion allowing air to pass through the rotatable fan blade; and one or more ports (80a, 80b) for flowably coupling to a patient device, wherein the fan blade further comprises at least one dado channel arranged on one face of the blade to redirect airflow from the airflow generator, wherein the at least one dado channel is not a cutout portion allowing air to pass through the rotatable fan blade. an airflow generator controlling an amplitude of the percussive pulsed air; a pulse frequency control module controlling a frequency of the percussive pulsed air, the pulse frequency control module comprising a rotatable fan blade (20, 220) having at least one cutout portion (22, 222), the cutout portion allowing air to pass through the rotatable fan blade; and one or more ports (80a, 80b) for flowably coupling to a patient device, wherein the fan blade further comprises at least one dado channel arranged on one face of the blade to redirect airflow from the airflow generator, wherein the at least one dado channel is not a cutout portion allowing air to pass through the rotatable fan blade.
A method for producing an aqueous PU dispersion comprising the conversion of - of at least one respective alcohol from the group containing at least alcohol A, alcohol B, and alcohol C, - comprising at least one polyisocyanate having at least two isocyanate groups, comprising an NCO/OH ratio of greater than 1.1: 1 to 2.5: 1, with regard to the polyisocyanate on the one hand and the sum of the alcohols A, alcohols B, and alcohols C on the other hand, to produce a PU polymer, - wherein the alcohol A has at least two hydroxyl groups and an average molecular weight from 400 to 5000 g/mol (number average), - wherein the alcohol B has at least two hydroxyl groups and a polyalkylene oxide group containing ethylene oxide in the side chain and an average molecular weight from 400 to 6000 g/mol (number average), - wherein the alcohol C contains at least two hydroxyl groups and at least one phosphorous group, covalently bound, and the phosphorous group is selected from: a) at least one phosphonate group with the structure (O=)(-O-)(-O-)P-, b) at least one phosphinate group with the structure (O=)(-O-)P<, and c) mixtures of the above phosphinate group(s) a) and phosphonate group(s) b) and - the PU polymer is dispersed in water. - of at least one respective alcohol from the group containing at least alcohol A, alcohol B, and alcohol C, - comprising at least one polyisocyanate having at least two isocyanate groups, comprising an NCO/OH ratio of greater than 1.1: 1 to 2.5: 1, with regard to the polyisocyanate on the one hand and the sum of the alcohols A, alcohols B, and alcohols C on the other hand, - wherein the alcohol A has at least two hydroxyl groups and an average molecular weight from 400 to 5000 g/mol (number average), - wherein the alcohol B has at least two hydroxyl groups and a polyalkylene oxide group containing ethylene oxide in the side chain and an average molecular weight from 400 to 6000 g/mol (number average), - wherein the alcohol C contains at least two hydroxyl groups and at least one phosphorous group, covalently bound, and the phosphorous group is selected from: a) at least one phosphonate group with the structure (O=)(-O-)(-O-)P-, b) at least one phosphinate group with the structure (O=)(-O-)P<, and c) mixtures of the above phosphinate group(s) a) and phosphonate group(s) b) and a) at least one phosphonate group with the structure (O=)(-O-)(-O-)P-, b) at least one phosphinate group with the structure (O=)(-O-)P<, and c) mixtures of the above phosphinate group(s) a) and phosphonate group(s) b) and - the PU polymer is dispersed in water.