mhurhangee/ep-ind-claims huggingface dataset:
A ground gauge-changing structure with a gauge-changing bogie, the ground gauge-changing structure comprising a pair of support rails provided in parallel and a pair of first guide rails, a pair of gauge-changing guide rails, and a pair of second guide rails provided in sequence along interior sides of the pair of support rails; an unlocking section is provided between each of the first guide rails and each of the gauge-changing guide rails, and a locking section is provided between each of the gauge-changing guide rails and each of the second guide rails; an inner/exterior side of the unlocking section and an inner/exterior side of the locking section are respectively provided with a pushing and positioning device which applies a lateral thrust to a gauge-changing wheelset of a gauge-changing bogie passing through the unlocking section and the locking section; the gauge-changing wheelset comprises wheels, an axle, and locking mechanisms; an axle-box body is disposed at each of both ends of the axle; the locking mechanism comprises an inner sleeve, a rolling bearing, an outer sleeve and locking pins; characterized in that, an inner end surface of the axle-box body is provided with a through hole for allowing the outer sleeve to slide, inner stoppers are formed at a circumference of the through hole, an outer end cover is disposed on an outer end surface of the axle-box body, and outer stoppers are respectively disposed on both lower axial ends of the axle-box body; an end of the first guide rail facing the gauge-changing guide rail is configured as a downward-sloping first slope surface, and an end of the second guide rail facing the gauge-changing guide rail is configured as an upward-sloping second slope surface.
A yarn-forming element for a spinning station of an airjet spinning machine, wherein the yarn-forming element comprises on one front side an inlet opening as well as a draw-off channel for a yarn which begins in the area of the inlet opening and extends within the yarn-forming element along a longitudinal axis, and wherein the yarn-forming element comprises within the draw-off channel at least one twist stop element which at least partially narrows the cross-section of the draw-off channel, characterized in that the draw-off channel comprises a contour in the area of the twist-stop element, or elements, which contour deviates from the contour of a cylindrical or truncated cone-shaped borehole.
A method of forming a polymeric article suitable for use as an orthopedic implant, the method comprising: providing or recieiving particles of a polymer resin; exposing the particles of the polymer resin to a plasma, the plasma reacting with the particles of the polymer resin to bond one or more selected reactive groups to the particles; and molding a polymeric article from the polymer resin after exposing the polymer resin to the plasma. providing or recieiving particles of a polymer resin; exposing the particles of the polymer resin to a plasma, the plasma reacting with the particles of the polymer resin to bond one or more selected reactive groups to the particles; and molding a polymeric article from the polymer resin after exposing the polymer resin to the plasma.
Device for collecting biological material, characterized in that it comprises a rod having, at at least one end, a dry absorbent body in the form of flocked synthetic fibers having a surface of between 1 and 2 mm2, said absorbent body comprising surfactants and denaturing agents.
A cell-penetrating conjugate comprising: (i) a non-cell penetrating antibody; (ii) a phosphorothioate nucleic acid; and (iii) a non-covalent linker attaching said phosphorothioate nucleic acid to said non-cell penetrating antibody, said non-covalent linker comprising a biotin-binding domain non-covalently attached to a biotin domain; and wherein said phosphorothioate nucleic acid is independently from 10 to 30 nucleic acid residues in length, wherein said phosphorothioate nucleic acid enhances intracellular delivery of said non-cell penetrating antibody wherein said non-cell penetrating antibody penetrates a cell at least 2 fold less than the same antibody attached to said phosphorothioate nucleic acid, and wherein said non-cell penetrating antibody binds an intracellular target. (i) a non-cell penetrating antibody; (ii) a phosphorothioate nucleic acid; and (iii) a non-covalent linker attaching said phosphorothioate nucleic acid to said non-cell penetrating antibody, said non-covalent linker comprising a biotin-binding domain non-covalently attached to a biotin domain; and wherein said phosphorothioate nucleic acid is independently from 10 to 30 nucleic acid residues in length, wherein said phosphorothioate nucleic acid enhances intracellular delivery of said non-cell penetrating antibody wherein said non-cell penetrating antibody penetrates a cell at least 2 fold less than the same antibody attached to said phosphorothioate nucleic acid, and wherein said non-cell penetrating antibody binds an intracellular target.
A refiner segment for a refiner intended for defibrating lignocellulose-containing material, which refiner segment has a refining surface and is arrangeable to form a part of a refining surface of said refiner, said refiner segment having a feed edge and a discharge edge, the refining surface of the refiner segment being arranged between the feed edge and the discharge edge, and the refiner segment comprising a group of at least two first bars and at least three second bars, each of said at least two first and each of said at least three second bars having a first end (10-1, 20-1) in the direction of the feed edge and a second end (10-2, 20-2) in the direction of the discharge edge, wherein said at least two first bars and said at least three second bars are arranged in an interlaced manner in which said second ends of said first bars are either overlapping or aligned along a same line with said first ends of said second bars to form first grooves between said first bars corresponding to at least the width of the second bars, and to form second grooves between said second bars corresponding to at least the width of the first bars, and wherein at the first end of each of the second bars there is provided a guiding surface in form of a ramp ascending from the first end of said each of the second bars in the direction of the discharge edge to an upper surface of said each of the second bars, characterized in that at the second end of each of the first bars there is provided a guiding surface in form of a ramp descending from an upper surface of said each of the first bars in the direction of the discharge edge to the second end of said each of the first bars, and that said second ends of said first bars and said first ends of said second bars are arranged to form an equalization groove substantially across and perpendicular to said first and second bars (10, 20), wherein said equalization groove is configured to buffer and distribute a flow of material from at least one of said first grooves between said at least two first bars into one or more of said second grooves formed between said at least three second bars.
An isolated monoclonal antibody or antigen-binding antibody fragment that binds lysophosphatidic acid under physiological conditions and comprises at least one immunoglobulin heavy chain variable domain that comprises three heavy chain complementarity determining regions (CDRs) having the amino acid sequences of SEQ ID NOs: 56, 57, and 58 and one light chain variable domain that comprises three light chain CDRs having the amino acid sequences of SEQ ID NOs: 59, 60, and 61, wherein said monoclonal antibody or antigen-binding antibody fragment optionally is: a. selected from the group consisting of a chimeric antibody, a humanized antibody, a full-length antibody, an affinity matured antibody, or an antigen-binding fragment of any such antibody; and/or b. conjugated to a moiety selected from the group consisting of a polymer, a radionuclide, a chemotherapeutic agent, and a detection agent. a. selected from the group consisting of a chimeric antibody, a humanized antibody, a full-length antibody, an affinity matured antibody, or an antigen-binding fragment of any such antibody; and/or b. conjugated to a moiety selected from the group consisting of a polymer, a radionuclide, a chemotherapeutic agent, and a detection agent.
A control system, characterized in that the control system comprises: a control network in which slave devices (21, 22, 23) are linearly connected between a first controller and a second controller through first communication cables (31, 32, 33, 34), wherein the first controller and the second controller are connected through a second communication cable, wherein the first controller is configured to generate and manage a control frame for communication through the control network, and to transmit a diagnosis frame of the control network to the control network, and when the second controller receives the control frame, the second controller is configured to copy the received control frame and to perform loopback communication of the received control frame to the first controller side of the control network, or when the second controller receives the diagnosis frame, the second controller is configured to not perform the loopback communication of the received diagnosis frame to the first controller side of the control network, wherein the second controller is configured to execute the loopback communication for the first controller using the second communication cable. a control network in which slave devices (21, 22, 23) are linearly connected between a first controller and a second controller through first communication cables (31, 32, 33, 34), wherein the first controller and the second controller are connected through a second communication cable, wherein the first controller is configured to generate and manage a control frame for communication through the control network, and to transmit a diagnosis frame of the control network to the control network, and when the second controller receives the control frame, the second controller is configured to copy the received control frame and to perform loopback communication of the received control frame to the first controller side of the control network, or when the second controller receives the diagnosis frame, the second controller is configured to not perform the loopback communication of the received diagnosis frame to the first controller side of the control network, wherein the second controller is configured to execute the loopback communication for the first controller using the second communication cable.
A mobile station apparatus comprising: a receiving section configured to receive a paging indicator channel (PICH) from a base station apparatus; a random access channel generating unit configured to, when a group including the mobile station is being paged based on the paging indicator channel (PICH) transmitted from the base station apparatus, generate a random access channel (RACH) including information indicating a response to the paging indicator channel (PICH); and a transmitting unit configured to transmit the random access channel (RACH) to the base station apparatus, wherein the mobile station apparatus is configured to receive a paging -channel generated by the base station apparatus based on a detection result of said random access channel (RACH) and transmitted by the base station apparatus. a receiving section configured to receive a paging indicator channel (PICH) from a base station apparatus; a random access channel generating unit configured to, when a group including the mobile station is being paged based on the paging indicator channel (PICH) transmitted from the base station apparatus, generate a random access channel (RACH) including information indicating a response to the paging indicator channel (PICH); and a transmitting unit configured to transmit the random access channel (RACH) to the base station apparatus, wherein the mobile station apparatus is configured to receive a paging -channel generated by the base station apparatus based on a detection result of said random access channel (RACH) and transmitted by the base station apparatus.
An ambulation control apparatus for controlling a robot of the type having at least lower limbs (60L, 60R), upper limbs (50L, 50R), a trunk and loins so as to make it move on its two feet of the lower limbs in order to cause the ZMP to get to a target position, said apparatus comprising: a means for selecting the motion of the feet, that of the trunk and that of the upper limbs and the attitude and height of the loins in order to realize a requested action; a means for selecting the trajectory of the ZMP on the basis of the motion of the feet selected by said means; a means for obtaining an approximate non-strict solution for the motion of the loins for balancing the moment on the ZMP selected by said means by means of a non-strict model, the non-strict model reflecting the motion of the upper limbs, trunk, feet and loins selected by said means; a means for obtaining an approximate strict solution for the motion of the loins obtained by said means by means of a strict model for the moment on the ZMP selected by said means; a means for finalizing the solution for the motion of the loins when the moment obtained by said means is less than a predetermined admissible value; a means for modifying the moment on the ZMP of the non-strict model and inputting the modified value to said mean when the moment obtained by said means is more than the predetermined admissible value; and a means for realizing the motion of the loins on the basis of the obtained solution for the motion of the loins. a means for selecting the motion of the feet, that of the trunk and that of the upper limbs and the attitude and height of the loins in order to realize a requested action; a means for selecting the trajectory of the ZMP on the basis of the motion of the feet selected by said means; a means for obtaining an approximate non-strict solution for the motion of the loins for balancing the moment on the ZMP selected by said means by means of a non-strict model, the non-strict model reflecting the motion of the upper limbs, trunk, feet and loins selected by said means; a means for obtaining an approximate strict solution for the motion of the loins obtained by said means by means of a strict model for the moment on the ZMP selected by said means; a means for finalizing the solution for the motion of the loins when the moment obtained by said means is less than a predetermined admissible value; a means for modifying the moment on the ZMP of the non-strict model and inputting the modified value to said mean when the moment obtained by said means is more than the predetermined admissible value; and a means for realizing the motion of the loins on the basis of the obtained solution for the motion of the loins.
A cementing plug comprising, a hollow mandrel; one or more wiper elements coupled to the mandrel; a nose coupled to the hollow mandrel and movable between a retracted position and an extended position, wherein a portion of the nose is positioned within the mandrel when in the retracted position; wherein the portion of the nose is positioned outside the mandrel when in the extended position; and characterized in that an energy storage mechanism is coupled to the mandrel and nose, and wherein the energy storage mechanism stores the nose in the retracted positon when the energy storage mechanism is extended, and wherein the nose is in the extended position when the energy storage mechanism is contracted. a hollow mandrel; one or more wiper elements coupled to the mandrel; a nose coupled to the hollow mandrel and movable between a retracted position and an extended position, wherein a portion of the nose is positioned within the mandrel when in the retracted position; wherein the portion of the nose is positioned outside the mandrel when in the extended position; and characterized in that an energy storage mechanism is coupled to the mandrel and nose, and wherein the energy storage mechanism stores the nose in the retracted positon when the energy storage mechanism is extended, and wherein the nose is in the extended position when the energy storage mechanism is contracted. wherein a portion of the nose is positioned within the mandrel when in the retracted position; wherein the portion of the nose is positioned outside the mandrel when in the extended position; and characterized in that an energy storage mechanism is coupled to the mandrel and nose, and wherein the energy storage mechanism stores the nose in the retracted positon when the energy storage mechanism is extended, and wherein the nose is in the extended position when the energy storage mechanism is contracted.
A method for uplink, UL, data transmission in a wireless communication system, the method comprising: determining, by the UE, UL virtual resources allocated to the UE by an Evolved Node B, eNB, according to Downlink Control Information, DCI, used for scheduling UL physical resources sent from the eNB to the UE, wherein a first component carriers, CC, and a second CC having different frame structure configurations are configured for the UE; determining (503, 504), by the UE, the UL physical resources used for transmitting the UL data after frequency hopping processing in a preset frequency domain when determining that the UL data needs to be processed with frequency hopping processing according to the DCI, if the UL virtual resources allocated to the UE are located at UL sub-frames in a non-aggregation K of any wireless frame, and are located at the preset frequency domain; and transmitting, by the UE, the UL data to the eNB utilizing the determined UL physical resources which are processed with the frequency hopping processing and used for transmitting the UL data; wherein an aggregation K is formed in a type I UL sub-frame which indicates that the first CC and the second CC each have UL sub-frames in same sub-frame number, and a non-aggregation K is formed in a type II UL sub-frame which indicates that the first CC has an UL sub-frame and the second CC has a DL sub-frame in same sub-frame number; and wherein the preset frequency domain is an overlapping area of a Physical Uplink Control Channel, PUCCH, area of UL sub-frames in the aggregation K and a Physical Uplink Shared Channel, PUSCH, area of sub-frames in the non-aggregation K. determining, by the UE, UL virtual resources allocated to the UE by an Evolved Node B, eNB, according to Downlink Control Information, DCI, used for scheduling UL physical resources sent from the eNB to the UE, wherein a first component carriers, CC, and a second CC having different frame structure configurations are configured for the UE; determining (503, 504), by the UE, the UL physical resources used for transmitting the UL data after frequency hopping processing in a preset frequency domain when determining that the UL data needs to be processed with frequency hopping processing according to the DCI, if the UL virtual resources allocated to the UE are located at UL sub-frames in a non-aggregation K of any wireless frame, and are located at the preset frequency domain; and transmitting, by the UE, the UL data to the eNB utilizing the determined UL physical resources which are processed with the frequency hopping processing and used for transmitting the UL data;
An apparatus comprising: a first electrical isolator having a central passageway; a first electrically conductive tube having a flared end disposed around the first electrical isolator, the flared end comprising external threads; a second electrically conductive tube having an outer flange; a second electrical isolator disposed around the second electrically conductive tube and engaging the outer flange; and a nut disposed around the second electrically conductive tube and engaging the second electrical isolator, the nut comprising internal threads corresponding to the external threads of the flared end of the first electrically conductive tube, wherein the nut comprises a deformable rim adjacent to a secondary retention notch of the flared end of the first electrically conductive tube and configured to deform into engagement with the secondary retention notch. a first electrical isolator having a central passageway; a first electrically conductive tube having a flared end disposed around the first electrical isolator, the flared end comprising external threads; a second electrically conductive tube having an outer flange; a second electrical isolator disposed around the second electrically conductive tube and engaging the outer flange; and a nut disposed around the second electrically conductive tube and engaging the second electrical isolator, the nut comprising internal threads corresponding to the external threads of the flared end of the first electrically conductive tube, wherein the nut comprises a deformable rim adjacent to a secondary retention notch of the flared end of the first electrically conductive tube and configured to deform into engagement with the secondary retention notch.
A method for self-compensating an active matrix organic light emitting diode, AMOLED, display (702; 802; 1124), the method comprising: illuminating, using pixel circuitry, one or more pixels (302-316; 402-416) of the AMOLED display, wherein individual pixels are separated from other pixels by a gap; detecting, using at least one PIN diode circuit (350; 450; 500) formed at least partially within a gap between pixel circuits of respective pixels of the AMOLED display, a corresponding brightness, each PIN diode circuit being associated with multiple pixel circuits, and each PIN diode circuit including a PIN diode implemented as an AMOLED operable in a light sensing mode; using the detected brightness to ascertain a compensation factor; using the compensation factor to compute a calibrated brightness value; and using the calibrated brightness value to drive pixel circuitry associated with one or more pixels. illuminating, using pixel circuitry, one or more pixels (302-316; 402-416) of the AMOLED display, wherein individual pixels are separated from other pixels by a gap; detecting, using at least one PIN diode circuit (350; 450; 500) formed at least partially within a gap between pixel circuits of respective pixels of the AMOLED display, a corresponding brightness, each PIN diode circuit being associated with multiple pixel circuits, and each PIN diode circuit including a PIN diode implemented as an AMOLED operable in a light sensing mode; using the detected brightness to ascertain a compensation factor; using the compensation factor to compute a calibrated brightness value; and using the calibrated brightness value to drive pixel circuitry associated with one or more pixels.
A cooling element for a modular lighting device comprising a main body comprising - a circular bottom section on a lower end of the main body, and - a plurality of fins extending radially to match the diameter of the bottom section; each fin extending longitudinally from the bottom section to an upper end of the main body, the main body having a threaded outer surface such that the entire outer surface of the bottom section and the fins are threaded. - a circular bottom section on a lower end of the main body, and - a plurality of fins extending radially to match the diameter of the bottom section; each fin extending longitudinally from the bottom section to an upper end of the main body, the main body having a threaded outer surface such that the entire outer surface of the bottom section and the fins are threaded.