mhurhangee/ep-ind-claims huggingface dataset:
Rotary laser comprising a housing, a laser beam device which is gimbal mounted in the housing and which, by means of a rotating head which is connected to the laser beam device in an axially and inclination-fixed manner, generates a laser beam which rotates about an axis of rotation extending in a Z-axis in a plane of rotation (X/Y plane), first and second levelling means (4, 5) for determining an inclination of the plane of rotation (X/Y plane) with respect to a horizontal plane when the housing is placed on a horizontal surface, a control device for driving servomotors (6, 7) of an adjusting device for adjusting the inclination of the laser beam device relative to the housing about an X-axis and a Y-axis in response to control inputs, and comprising a fastening portion which, in relation to the housing, is opposite the head in the direction of the axis of rotation, and relative to which the housing can be rotated into predetermined angular positions by the control device by means of a rotary drive about an axis of rotation which extends at least approximately in the same direction as the axis of rotation, characterised by third levelling means for determining an angle of inclination (α) of an inclination of an axial laser beam directed parallel to the axis of rotation with respect to the horizontal plane when the housing is brought into a lying position, in which the axis of rotation or the axis of the laser beam lies approximately in a horizontal, it being possible for the axial laser beam to be brought into a horizontal position by means of the servomotors, and comprising fourth levelling means for determining a roll angle (β) of the housing with respect to the axis of rotation when the axis of rotation is brought into a horizontal position.
A method for selectively receiving at a client device a scheduled update over a wireless communications system during a period of low activity of the client device, comprising: receiving a notification of a forthcoming update at a scheduled time; monitoring a time zone in which the client device is located and adjusting the scheduled time to correspond with the time zone; monitoring a current time associated with the client device, wherein the current time is adjusted for the time zone in which the client device is located; tuning in to receive the scheduled update over a digital broadcast connection if the current time matches the scheduled time and the client device is using less resources than a threshold level; and requesting a dedicated update over a unicast connection if the scheduled update was not received due to the client device being busy. receiving a notification of a forthcoming update at a scheduled time; monitoring a time zone in which the client device is located and adjusting the scheduled time to correspond with the time zone; monitoring a current time associated with the client device, wherein the current time is adjusted for the time zone in which the client device is located; tuning in to receive the scheduled update over a digital broadcast connection if the current time matches the scheduled time and the client device is using less resources than a threshold level; and requesting a dedicated update over a unicast connection if the scheduled update was not received due to the client device being busy.
A humanoid robot comprising two elements (11, 12; 132; 141, 142) connected by a spherical joint with three degrees of freedom in rotation, the joint being moved by three actuators (14, 16, 18), the first and the second of the actuators (16, 18) acting in parallel and the third of the actuators acting in series with the first and the second of the actuators (16, 18), characterised in that each of the three actuators (14, 16, 18) allows a single rotation according to one of the three degrees of freedom, respectively, and in that the first and the second of the actuators (16, 18) each comprise two single-acting cylinders (37, 38) each acting by pulling on one of the elements.
A pressurizing type hollow fiber membrane module comprising: at least two types of hollow fiber membranes having different inner diameters, comprising hollow fiber membranes A and B, a housing including a raw water inlet formed at a lower end of a sidewall thereof, a concentrated water outlet formed at an upper end of the sidewall thereof, and a treated water outlet formed at an upper end thereof such that treated water filtered through the hollow fiber membranes A and B is drained therethrough, wherein the hollow fiber membranes A and B are arranged inside the housing in a longitudinal direction of the housing, wherein the lower open ends of the hollow fiber membranes A and B are in fluid communication with each other, wherein the hollow fiber membranes A and B allow water to be filtered therethrough from outside the outer peripheral surfaces to respective hollows inside the hollow fiber membranes A and the hollow fiber membranes B, and wherein the hollow fiber membrane A has an inner diameter D A ranging from 0.4 mm to 1.2 mm, and the hollow fiber membrane B has an inner diameter D B larger than the inner diameter D A of the hollow fiber membrane A, and wherein a total membrane area ratio A/B of the hollow fiber membranes A and B is 2 or higher, here, the total membrane area means a total area of outer peripheral surfaces of the hollow fiber membranes. at least two types of hollow fiber membranes having different inner diameters, comprising hollow fiber membranes A and B, a housing including a raw water inlet formed at a lower end of a sidewall thereof, a concentrated water outlet formed at an upper end of the sidewall thereof, and a treated water outlet formed at an upper end thereof such that treated water filtered through the hollow fiber membranes A and B is drained therethrough, wherein the hollow fiber membranes A and B are arranged inside the housing in a longitudinal direction of the housing, wherein the lower open ends of the hollow fiber membranes A and B are in fluid communication with each other, wherein the hollow fiber membranes A and B allow water to be filtered therethrough from outside the outer peripheral surfaces to respective hollows inside the hollow fiber membranes A and the hollow fiber membranes B, and wherein the hollow fiber membrane A has an inner diameter D A ranging from 0.4 mm to 1.2 mm, and the hollow fiber membrane B has an inner diameter D B larger than the inner diameter D A of the hollow fiber membrane A, and wherein a total membrane area ratio A/B of the hollow fiber membranes A and B is 2 or higher, here, the total membrane area means a total area of outer peripheral surfaces of the hollow fiber membranes.
A multi-domain specific binding molecule comprising two or more VNAR domains which bind to the same or different epitopes of one or more specific antigens, further comprising a spacer sequence between the VNAR domains, wherein the spacer sequence has independent functionality which is exhibited in the binding molecule and wherein the spacer sequence is an immunoglobulin Fc region, wherein at least one of the VNAR domains is a TNF-alpha specific VNAR binding domain comprising an amino acid sequence selected from the group comprising SEQ ID 2, or 7.
A toner container, comprising: a container body in which toner is stored, including a pair of side walls that face one another across a specific distance; a first bearing portion (90A,90B) provided in an inner surface of at least one side wall of the pair of side walls; and a rotational member including a rotational shaft that is rotatably supported by the first bearing portion, wherein the first bearing portion (90A,90B) includes a first long groove (91A,91B) in which the rotational shaft is inserted, including a terminal end portion (113,913) on one end and an open portion on another end, and a projection protruding from a groove bottom surface that extends from the open portion to the terminal end portion (113,913) of the first long groove (91A,91B) characterized in that the projection is provided at a position in the groove bottom surface such that the rotational shaft can be loosely fitted between a lower end of the projection and the terminal end portion, and the projection is a plate-like member extending in a longitudinal direction of the first long groove (91A,91B) and having a smaller width than a groove width of the first long groove (91A,91B), and on an end portion on the open portion side of the plate-like member, an inclined surface that guides the rotational shaft to the terminal end portion (113,913) is formed. a container body in which toner is stored, including a pair of side walls that face one another across a specific distance; a first bearing portion (90A,90B) provided in an inner surface of at least one side wall of the pair of side walls; and a rotational member including a rotational shaft that is rotatably supported by the first bearing portion, wherein the first bearing portion (90A,90B) includes a first long groove (91A,91B) in which the rotational shaft is inserted, including a terminal end portion (113,913) on one end and an open portion on another end, and a projection protruding from a groove bottom surface that extends from the open portion to the terminal end portion (113,913) of the first long groove (91A,91B) characterized in that the projection is provided at a position in the groove bottom surface such that the rotational shaft can be loosely fitted between a lower end of the projection and the terminal end portion, and the projection is a plate-like member extending in a longitudinal direction of the first long groove (91A,91B) and having a smaller width than a groove width of the first long groove (91A,91B), and on an end portion on the open portion side of the plate-like member, an inclined surface that guides the rotational shaft to the terminal end portion (113,913) is formed.
Workstation, comprising - a work surface, - a vertical guide which is arranged above the work surface, - a holder which is connected to the vertical guide and on which a plurality of electronic display devices, in particular monitors, can be attached, and - a supply station which comprises at least one socket and/or at least one data or signal interface, wherein the holder is arrange spaced apart from the supply station, wherein the holder is height-adjustable relative to the work surface by means of the vertical guide, wherein a horizontal guide for depth-adjustment of the vertical guide is provided, and wherein the supply station is at least indirectly coupled with the vertical guide and is depth-adjustable together with this vertical guide relative to the work surface, wherein the vertical guide and the supply station are arranged on a base that is moveable along the horizontal guide, characterized in that the base is connected to the horizontal guide via a guide pin, and in that the guide pin is moved along a slot-shaped recess in the work surface. - a work surface, - a vertical guide which is arranged above the work surface, - a holder which is connected to the vertical guide and on which a plurality of electronic display devices, in particular monitors, can be attached, and - a supply station which comprises at least one socket and/or at least one data or signal interface,
Method for producing a sandwich panel with a reinforced foam core, comprising the following method steps: introducing a multiplicity of rod-shaped, thermoplastic reinforcing elements into a thermoplastic foam material in such a way that the reinforcing elements extend through the foam material from a first outer surface of the foam material to a second outer surface of the foam material, wherein end regions of the reinforcing elements protrude out of the first outer surface and the second outer surface; thermoforming the foam material with the reinforcing elements to afford a reinforced foam core, wherein the end regions of the reinforcing elements are formed onto the outer surfaces (3a, 3b) of the foam material as a result of the application of temperature and pressure and connected in a materially bonded manner to the foam material in a fused connection; and laminating a respective thermoplastic outer layer onto both sides of the reinforced foam core on the outer surfaces (3a, 3b) of the foam material with the application of temperature and pressure to form the sandwich panel, wherein the outer layers are connected in a materially bonded manner to the reinforced foam core in a fused connection. introducing a multiplicity of rod-shaped, thermoplastic reinforcing elements into a thermoplastic foam material in such a way that the reinforcing elements extend through the foam material from a first outer surface of the foam material to a second outer surface of the foam material, wherein end regions of the reinforcing elements protrude out of the first outer surface and the second outer surface; thermoforming the foam material with the reinforcing elements to afford a reinforced foam core, wherein the end regions of the reinforcing elements are formed onto the outer surfaces (3a, 3b) of the foam material as a result of the application of temperature and pressure and connected in a materially bonded manner to the foam material in a fused connection; and laminating a respective thermoplastic outer layer onto both sides of the reinforced foam core on the outer surfaces (3a, 3b) of the foam material with the application of temperature and pressure to form the sandwich panel, wherein the outer layers are connected in a materially bonded manner to the reinforced foam core in a fused connection.
A scleral prosthesis comprising: a first free end (104, 204, 304, 404, 504, 604, 704) and a second free end (102, 202, 302, 402, 502, 602, 702), each end wider than a middle portion of the scleral prosthesis; wherein multiple first portions (112a, 112b, 208a, 208b, 312a, 312b, 406a, 406b, 506a, 506b, 606a, 606b, 706a, 706b) form the first end of the scleral prosthesis, characterised in that the first portions are separated along at least half of a length of the scleral prosthesis and are configured to accept placement therebetween of an insert (408, 1202, 1302, 1352, 1402) configured to maintain a separation of the first portions. a first free end (104, 204, 304, 404, 504, 604, 704) and a second free end (102, 202, 302, 402, 502, 602, 702), each end wider than a middle portion of the scleral prosthesis; wherein multiple first portions (112a, 112b, 208a, 208b, 312a, 312b, 406a, 406b, 506a, 506b, 606a, 606b, 706a, 706b) form the first end of the scleral prosthesis, characterised in that the first portions are separated along at least half of a length of the scleral prosthesis and are configured to accept placement therebetween of an insert (408, 1202, 1302, 1352, 1402) configured to maintain a separation of the first portions.
An antibody or a fragment thereof specifically binding to placental growth factor and inhibiting binding of placental growth factor to the VEGFR1 receptor for use in the treatment of Philadelphia chromosome positive leukemia wherein the Philadelphia chromosome positive leukemia cannot be treated with a BCR-ABL inhibitor, and/or cannot be treated with a BCR-ABL inhibitor alone.
A method for a network node controlling a cell, comprising: communicating with a User Equipment, in the following also referred to as UE, in the cell via downlink and uplink transmissions, wherein the downlink and uplink transmissions are organized into radio frames and each radio frame contains multiple subframes and each subframe contains multiple symbols; and transmitting (1710, 1715), in the cell, a UE specific signal to the UE in at least one symbol of a first part of a downlink control region of a subframe of the multiple subframes and a common signal to the UE in at least one symbol of a second part of the downlink control region of the subframe of the multiple subframes, wherein the subframe of the multiple subframes contains the downlink control region and at least one data region, and the network node does not transmit the common signal to the UE in the first part of the downlink control region and wherein the common signal indicates resources in one or more first symbols of the at least one data region of the subframe and the UE specific signal indicates resources in one or more second symbols of the at least one data region of the subframe, wherein the one or more first symbols and the one or more second symbols of the at least one data region are completely or partially different. communicating with a User Equipment, in the following also referred to as UE, in the cell via downlink and uplink transmissions, wherein the downlink and uplink transmissions are organized into radio frames and each radio frame contains multiple subframes and each subframe contains multiple symbols; and transmitting (1710, 1715), in the cell, a UE specific signal to the UE in at least one symbol of a first part of a downlink control region of a subframe of the multiple subframes and a common signal to the UE in at least one symbol of a second part of the downlink control region of the subframe of the multiple subframes, wherein the subframe of the multiple subframes contains the downlink control region and at least one data region, and the network node does not transmit the common signal to the UE in the first part of the downlink control region and wherein the common signal indicates resources in one or more first symbols of the at least one data region of the subframe and the UE specific signal indicates resources in one or more second symbols of the at least one data region of the subframe, wherein the one or more first symbols and the one or more second symbols of the at least one data region are completely or partially different.
A solid composition wherein the composition comprises: (a) between 50 % and 95 % by weight axelopran sulfate, (b) between 5 % and 50 % by weight polyvinyl alcohol, (c) between 0 % and 45 % by weight polyethylene glycol 3350, and (d) between 0 % and 10 % by weight ascorbic acid. (a) between 50 % and 95 % by weight axelopran sulfate, (b) between 5 % and 50 % by weight polyvinyl alcohol, (c) between 0 % and 45 % by weight polyethylene glycol 3350, and (d) between 0 % and 10 % by weight ascorbic acid.
A radio transmission system comprising: a digital hybrid matrix configured to receive a plurality of digital input signals and generate a first plurality of combined signals corresponding to the plurality of digital input signals; a plurality of Volterra Engine linearizers configured to generate the plurality of digital input signals, each of these Volterra Engine linearizers coupled to an input of the digital hybrid matrix and configured to provide a respective digital input signal of the plurality of digital input signals to the digital hybrid matrix; a plurality of power amplifiers configured to receive the first plurality of combined signals, each of these power amplifiers coupled to an output of the digital hybrid matrix and configured to receive a respective combined signal of the first plurality of combined signals; an analog hybrid matrix having a plurality of inputs coupled to respective outputs of the power amplifiers and configured to receive a plurality of amplified signals corresponding to the first plurality of combined signals, each of these amplified signals having been amplified by a respective one of the plurality of power amplifiers, and further configured to generate a second plurality of combined signals corresponding to the plurality of amplified signals, and provide the second plurality of combined signals through a plurality of outputs; and a plurality of feedback loops coupled from the plurality of outputs of the analog hybrid matrix to the respective Volterra Engine linearizers and to the digital hybrid matrix. a digital hybrid matrix configured to receive a plurality of digital input signals and generate a first plurality of combined signals corresponding to the plurality of digital input signals; a plurality of Volterra Engine linearizers configured to generate the plurality of digital input signals, each of these Volterra Engine linearizers coupled to an input of the digital hybrid matrix and configured to provide a respective digital input signal of the plurality of digital input signals to the digital hybrid matrix; a plurality of power amplifiers configured to receive the first plurality of combined signals, each of these power amplifiers coupled to an output of the digital hybrid matrix and configured to receive a respective combined signal of the first plurality of combined signals; an analog hybrid matrix having a plurality of inputs coupled to respective outputs of the power amplifiers and configured to receive a plurality of amplified signals corresponding to the first plurality of combined signals, each of these amplified signals having been amplified by a respective one of the plurality of power amplifiers, and further configured to generate a second plurality of combined signals corresponding to the plurality of amplified signals, and provide the second plurality of combined signals through a plurality of outputs; and a plurality of feedback loops coupled from the plurality of outputs of the analog hybrid matrix to the respective Volterra Engine linearizers and to the digital hybrid matrix.
A computer-implemented method for processing seismic data, comprising: (a) receiving a plurality of image partitions of a migrated seismic image (402,502,602,702); (b) stacking the plurality of image partitions such that a first image is generated (c) aligning the plurality of image partitions based at least partially on the first image (510,608,710), wherein aligning comprises adjusting at least one of the plurality of image partitions and generating a displacement field (511,610,712); (d) based at least in part on the displacement field, stacking the plurality of aligned image partitions to generate a second image (514,614,716); and (e) causing the second image to be displayed (519,618,716); (f) assessing the quality of the second image over the quality of the first image (406,620); and characterized in that it further comprises (g) iterating steps (c) to (f) by setting the second image as the first image and setting the plurality of aligned image partitions as the plurality of image partitions until that the second image is determined to have a higher quality than the first image (408,509,624,722). (a) receiving a plurality of image partitions of a migrated seismic image (402,502,602,702); (b) stacking the plurality of image partitions such that a first image is generated (c) aligning the plurality of image partitions based at least partially on the first image (510,608,710), wherein aligning comprises adjusting at least one of the plurality of image partitions and generating a displacement field (511,610,712); (d) based at least in part on the displacement field, stacking the plurality of aligned image partitions to generate a second image (514,614,716); and (e) causing the second image to be displayed (519,618,716); (f) assessing the quality of the second image over the quality of the first image (406,620); and characterized in that it further comprises (g) iterating steps (c) to (f) by setting the second image as the first image and setting the plurality of aligned image partitions as the plurality of image partitions until that the second image is determined to have a higher quality than the first image (408,509,624,722).