mhurhangee/ep-ind-claims huggingface dataset:
A rolling bearing assembly for a rotational shaft with an oil passage, comprising: a bearing housing; and a rolling bearing that is housed in the bearing housing and that rotatably supports the rotational shaft in which the oil passage is formed, wherein the rolling bearing includes: an inner ring (24L, 24R) that is attached on the rotational shaft; an outer ring that is fixed on the bearing housing; a retainer (26L, 26R) that is arranged between the inner ring (24L, 24R) and the outer ring; and a plurality of rolling elements (28L, 28R) that is equiangularly supported by the retainer (26L, 26R), the rolling bearing assembly for the rotational shaft with the oil passage further comprising a bearing oil passage that connects an oil passage formed in the bearing housing and the oil passage formed in the rotational shaft, the bearing oil passage characterised in that at least a portion of said passage is defined by a flange portion (26LA, 26RA) that is formed at the retainer (26L, 26R) such that the flange portion (26LA, 26RA) is configured to contact an axial side face of the inner ring (24L, 24R) and an axial side face of the outer ring. a bearing housing; and a rolling bearing that is housed in the bearing housing and that rotatably supports the rotational shaft in which the oil passage is formed, wherein the rolling bearing includes: an inner ring (24L, 24R) that is attached on the rotational shaft; an outer ring that is fixed on the bearing housing; a retainer (26L, 26R) that is arranged between the inner ring (24L, 24R) and the outer ring; and a plurality of rolling elements (28L, 28R) that is equiangularly supported by the retainer (26L, 26R), the rolling bearing assembly for the rotational shaft with the oil passage further comprising a bearing oil passage that connects an oil passage formed in the bearing housing and the oil passage formed in the rotational shaft, the bearing oil passage characterised in that at least a portion of said passage is defined by a flange portion (26LA, 26RA) that is formed at the retainer (26L, 26R) such that the flange portion (26LA, 26RA) is configured to contact an axial side face of the inner ring (24L, 24R) and an axial side face of the outer ring. an inner ring (24L, 24R) that is attached on the rotational shaft; an outer ring that is fixed on the bearing housing; a retainer (26L, 26R) that is arranged between the inner ring (24L, 24R) and the outer ring; and a plurality of rolling elements (28L, 28R) that is equiangularly supported by the retainer (26L, 26R), the rolling bearing assembly for the rotational shaft with the oil passage further comprising a bearing oil passage that connects an oil passage formed in the bearing housing and the oil passage formed in the rotational shaft, the bearing oil passage characterised in that at least a portion of said passage is defined by a flange portion (26LA, 26RA) that is formed at the retainer (26L, 26R) such that the flange portion (26LA, 26RA) is configured to contact an axial side face of the inner ring (24L, 24R) and an axial side face of the outer ring.
An antibody-like binding protein that specifically binds the CA6 tumor-associated MUC1-sialoglycotope, wherein the antibody-like binding protein comprises two polypeptides consisting of the structures represented by the formulas and below: V L1 -L 1 -V L2 -C L V H1 -L 2 -V H2 -C H1 wherein: V L1 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V L2 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V H1 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; V H2 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; C L is an immunoglobulin light chain constant domain, such as a human IGKC immunoglobulin light chain constant domain; C H1 is an immunoglobulin C H1 heavy chain constant domain, such as a human immunoglobulin C H1 heavy chain constant domain; L 1 and L 2 are amino acid linkers; wherein the polypeptide of formula I comprises a sequence at least 80% identical to SEQ ID NO: 1 and the polypeptide of formula II comprises a sequence at least 80% identical to SEQ ID NO: 7; wherein the polypeptides of formula I and the polypeptides of formula II form a bivalent monospecific tandem immunoglobulin antibody-like binding protein; and wherein the antibody-like protein further comprises a chelator. V L1 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V L2 is an immunoglobulin light chain variable domain derived from the DS6 antibody; V H1 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; V H2 is an immunoglobulin heavy chain variable domain derived from the DS6 antibody; C L is an immunoglobulin light chain constant domain, such as a human IGKC immunoglobulin light chain constant domain; C H1 is an immunoglobulin C H1 heavy chain constant domain, such as a human immunoglobulin C H1 heavy chain constant domain; L 1 and L 2 are amino acid linkers;
A solid-state image pickup unit (1-1, 1-2, 1-3) comprising: a sensor substrate having a pixel region in which photoelectric conversion sections are formed in an array along the light reception surface of the sensor substrate; a circuit substrate including a drive circuit, wherein the circuit substrate and the sensor substrate are bonded together; an insulating layer provided on the light reception surface of the sensor substrate; a through hole via (23, 28) provided in a peripheral region located outside the pixel region to reach the drive circuit from the light reception surface of the sensor substrate; and a pad wiring line in the peripheral region, wherein the pad wiring line is directly laminated on the light reception surface side of the insulating layer, wherein the pad wiring line is directly laminated on the light reception surface of the through hole via (23, 28), and wherein the pad wiring line includes an electrode pad portion, characterized in that the through hole via (23, 28) penetrates the insulating layer, and the pad wiring line covers the through hole via (23, 28). a sensor substrate having a pixel region in which photoelectric conversion sections are formed in an array along the light reception surface of the sensor substrate; a circuit substrate including a drive circuit, wherein the circuit substrate and the sensor substrate are bonded together; an insulating layer provided on the light reception surface of the sensor substrate; a through hole via (23, 28) provided in a peripheral region located outside the pixel region to reach the drive circuit from the light reception surface of the sensor substrate; and a pad wiring line in the peripheral region, wherein the pad wiring line is directly laminated on the light reception surface side of the insulating layer, wherein the pad wiring line is directly laminated on the light reception surface of the through hole via (23, 28), and wherein the pad wiring line includes an electrode pad portion, characterized in that the through hole via (23, 28) penetrates the insulating layer, and the pad wiring line covers the through hole via (23, 28).
A method for cluster head selection in a communications network (1a, 1b), all steps of the method being performed by one and the same wireless device, the method comprising: receiving a respective beacon signal from two or more further wireless devices, each beacon signal comprising a cluster head capability metric; comparing the cluster head capability metrics received from the two or more wireless devices; and selecting one of the two or more further wireless devices as the cluster head of the wireless device based on the comparison. receiving a respective beacon signal from two or more further wireless devices, each beacon signal comprising a cluster head capability metric; comparing the cluster head capability metrics received from the two or more wireless devices; and selecting one of the two or more further wireless devices as the cluster head of the wireless device based on the comparison.
Locking cylinder with a core that is movable relative to a housing, with at least one pin tumbler protruding into a keyway of the core for sensing locking recesses of a key inserted into the keyway, with a driver pin guided in the housing and a core pin guided in the core, and with a spring element to bias the driver pin against the core pin, with a first small-diameter guide portion of the core as viewed from the keyway to guide a correspondingly-shaped first guide collar of the core pin and a second large-diameter guide portion of the core to guide a correspondingly-shaped second guide collar of the core pin, and with a tapered pointed end extending from the first guide collar to the end of the core pin protruding into the keyway characterized in that the first guide collar is separated from the first guide portion at the position of the core pin when the latter is completely pushed out of the keyway.
A directed-energy irradiating apparatus comprising: a microwave source; a free electron laser FEL apparatus configured to receive microwave from said microwave source, accelerate free electrons by using the microwave to irradiate a free electron laser FEL beam, generated by using the accelerated free electrons, to targets, and output the remaining microwave; and a high power microwave HPM apparatus configured to irradiate a high power microwave HPM beam, generated by using the remaining microwave outputted from said FEL apparatus, to each target. a microwave source; a free electron laser FEL apparatus configured to receive microwave from said microwave source, accelerate free electrons by using the microwave to irradiate a free electron laser FEL beam, generated by using the accelerated free electrons, to targets, and output the remaining microwave; and a high power microwave HPM apparatus configured to irradiate a high power microwave HPM beam, generated by using the remaining microwave outputted from said FEL apparatus, to each target.
A sheet-shaped mold position detection device for conveying and positioning a sheet-shaped mold on which a fine transfer pattern is formed, the sheet-shaped mold position detection device characterized by comprising a sheet-shaped mold position detector configured to detect a predetermined region of the sheet-shaped mold by detecting at least any of: a change of transmittance of light in the sheet-shaped mold; a change of reflectance of light in the sheet-shaped mold, wherein, in the sheet-shaped mold, there exist a transfer pattern forming area on which the fine transfer pattern is formed, and a transfer pattern non-forming area on which the fine transfer pattern is not formed, and the sheet-shaped mold position detector detects the predetermined region of the sheet-shaped mold by detecting a difference in the transmittance of the light or a difference in the reflectance of the light between the transfer pattern forming area and the transfer pattern non-forming area. a change of transmittance of light in the sheet-shaped mold; a change of reflectance of light in the sheet-shaped mold, wherein, in the sheet-shaped mold, there exist a transfer pattern forming area on which the fine transfer pattern is formed, and a transfer pattern non-forming area on which the fine transfer pattern is not formed, and the sheet-shaped mold position detector detects the predetermined region of the sheet-shaped mold by detecting a difference in the transmittance of the light or a difference in the reflectance of the light between the transfer pattern forming area and the transfer pattern non-forming area.
A motor control device, comprising: an inverter configured to convert a DC voltage into an AC voltage to output three-phase terminal voltages; a motor to be driven by being applied with the three-phase terminal voltages from the inverter to generate an assist torque for assisting a driver in steering; a three-phase voltage command value calculation unit (6a, 6b) configured to calculate three-phase voltage command values for controlling the motor to be in a set state; an offset voltage calculation unit (7, 7b, 7c, 7d) configured to calculate an offset voltage; and a modified three-phase voltage command value calculation unit configured to add the offset voltage equally to each phase of the three-phase voltage command values to output modified three-phase voltage command values, wherein the inverter is configured to output the three-phase terminal voltages based on comparison between each of the modified three-phase voltage command values and a PWM carrier wave, and wherein the offset voltage calculation unit is configured to periodically switch the offset voltage at a set time interval among n stored offset candidate voltages, n is a natural number of three or more, having different values to vary timings to turn on and timings to turn off the three-phase terminal voltages equally for all phases. an inverter configured to convert a DC voltage into an AC voltage to output three-phase terminal voltages; a motor to be driven by being applied with the three-phase terminal voltages from the inverter to generate an assist torque for assisting a driver in steering; a three-phase voltage command value calculation unit (6a, 6b) configured to calculate three-phase voltage command values for controlling the motor to be in a set state; an offset voltage calculation unit (7, 7b, 7c, 7d) configured to calculate an offset voltage; and a modified three-phase voltage command value calculation unit configured to add the offset voltage equally to each phase of the three-phase voltage command values to output modified three-phase voltage command values, wherein the inverter is configured to output the three-phase terminal voltages based on comparison between each of the modified three-phase voltage command values and a PWM carrier wave, and wherein the offset voltage calculation unit is configured to periodically switch the offset voltage at a set time interval among n stored offset candidate voltages, n is a natural number of three or more, having different values to vary timings to turn on and timings to turn off the three-phase terminal voltages equally for all phases.
An electromagnetic coupling device, operable to be coupled with one or more like coupling devices, the coupling device comprising: a device body; at least one tongue member protruding from the device body, the tongue member having one or more ferro-magnetic engagement means provided thereon; at least one tongue member receiving means provided on or defined by the device body; and at least one electromagnet provided substantially adjacent the receiving means; wherein the engagement means provided on the tongue member of a second electromagnetic coupling device may be accommodated within the receiving means of the device body, and wherein the at least one electromagnet is operable to apply a magnetic force and cause the engagement means of the tongue member of the said second electromagnetic coupling device to at least partially engage or disengage the receiving means and thereby substantially resist or prevent movement of the said tongue member within the receiving means. a device body; at least one tongue member protruding from the device body, the tongue member having one or more ferro-magnetic engagement means provided thereon; at least one tongue member receiving means provided on or defined by the device body; and at least one electromagnet provided substantially adjacent the receiving means;
A sickle drive (62A, 62B) for a plant cutting machine having a first sickle knife assembly supported for side to side reciprocating movement along a forward end of the machine, and a rotary power source for driving the sickle knife assembly, the sickle drive further comprising a rotatable first input element supported in a cavity in or below a floor for rotation about a generally upstanding first rotational axis, a first cam element supported in the cavity in connection with the first input element for rotation thereby, the first cam element including a radial facing cam surface (92, 94) extending about the first rotational axis which varies in radial distance therefrom, a first pivot arm having a first end and an opposite upwardly extending second end and configured for connection to the first knife assembly, and a first pivot shaft supporting the first pivot arm for sideward pivotal movement about an upstanding first pivotal axis, the first end of the first pivot arm including a cam follower configured and positioned in following relation to the first cam element such that rotation of the first cam element about the first rotational axis will move the first end radially relative to the first rotational axis to reciprocatingly pivot the first pivot arm sidewardly, and the first input element being connectable in rotatably driven relation to the power source, characterized by a rotatable second input element supported in the cavity in or below the floor for rotation about a generally upstanding second rotational axis, a second cam element supported in the cavity in connection with the second input element for rotation thereby, the second cam element including a radial facing cam surface (130, 132) extending about the second rotational axis which varies in radial distance therefrom, a second pivot arm having a first end and an opposite upwardly extending second end and configured for connection to a second knife assembly of the sickle, and a second pivot shaft supporting the second pivot arm for sideward pivotal movement about an upstanding second pivotal axis, the first end of the second pivot arm including a cam follower configured and positioned in following relation to the second cam element such that rotation of the second cam element about the first rotational axis will move the first end of the second pivot arm radially relative to the second rotational axis to reciprocatingly pivot the second pivot arm sidewardly, and the second input element being connectable in rotatably driven relation to the power source, wherein the first and second input elements (82, 120) are connected so as to be rotated in opposite directions by the power source.
A method executed by a computer (110; 120) in a network, comprising: receiving, at the computer (110; 120) and over the network, a file and a transcription request to alter contents of the file; associating the file with a file format; associating the transcription request with a function that will alter the contents of the file according to the transcription request; and executing the function on the file to alter the file format and to alter the contents of the file according to the transcription request, wherein the transcription request comprises a quality of service (QoS) request, in which a particular QoS is selected; and if (i) the QoS is medium, converting the file to an Extensible Markup Language file format; applying an XML watermark; converting the file to a DOC file; (ii) the QoS is high, using a PDF writer; applying an image watermark; converting the file to a DOC file; (iii) the QoS is calibrated, using a PDF writer; applying an image watermark; inserting printer calibration module. receiving, at the computer (110; 120) and over the network, a file and a transcription request to alter contents of the file; associating the file with a file format; associating the transcription request with a function that will alter the contents of the file according to the transcription request; and executing the function on the file to alter the file format and to alter the contents of the file according to the transcription request, wherein the transcription request comprises a quality of service (QoS) request, in which a particular QoS is selected; and if (i) the QoS is medium, converting the file to an Extensible Markup Language file format; applying an XML watermark; converting the file to a DOC file; (ii) the QoS is high, using a PDF writer; applying an image watermark; converting the file to a DOC file; (iii) the QoS is calibrated, using a PDF writer; applying an image watermark; (i) the QoS is medium, converting the file to an Extensible Markup Language file format; applying an XML watermark; converting the file to a DOC file; converting the file to an Extensible Markup Language file format; applying an XML watermark; converting the file to a DOC file; (ii) the QoS is high, using a PDF writer; applying an image watermark; converting the file to a DOC file; using a PDF writer; applying an image watermark; converting the file to a DOC file; (iii) the QoS is calibrated, using a PDF writer; applying an image watermark; using a PDF writer; applying an image watermark; inserting printer calibration module.
A signal amplification system comprising: - an input (Ve) through which an input signal is transmitted, - at least two different amplification means (101A and 101B), each amplification means being configured to amplify the input signal when the amplification means is activated, - at least one means of summing the amplified signals by the at least two amplification means, - an output (Vs) through which is transmitted the signal summed by the summing means, - dynamic means of activating/deactivating the amplifying means, the activation/deactivation means being configured to activate or deactivate one or more of the at least two amplification means depending on the bandspread of the input signal; characterised in that at least two of said amplification means have different bandwidths, at least one of said two amplification means is adapted to amplify signals the frequency bandspread of which has a width greater than or equal to one octave, and in that the summing means is an active distribution transformer. - an input (Ve) through which an input signal is transmitted, - at least two different amplification means (101A and 101B), each amplification means being configured to amplify the input signal when the amplification means is activated, - at least one means of summing the amplified signals by the at least two amplification means, - an output (Vs) through which is transmitted the signal summed by the summing means, - dynamic means of activating/deactivating the amplifying means, the activation/deactivation means being configured to activate or deactivate one or more of the at least two amplification means depending on the bandspread of the input signal; characterised in that at least two of said amplification means have different bandwidths, at least one of said two amplification means is adapted to amplify signals the frequency bandspread of which has a width greater than or equal to one octave, and in that the summing means is an active distribution transformer.
A sampling arrangement, comprising a sample concentration element configured to trap at least one analyte of interest by freezing; characterized by a sample release arrangement configured to provide a flow of gas, at room temperature on or around the sample concentration element in order to change the temperature thereof; wherein the sample release arrangement comprises a release gas preprocessing element; and a pump element configured to provide the gas flow on or around the sample concentration element; wherein the release gas preprocessing element comprises a drying element configured to reduce or remove humidity from the gas flow. a sample concentration element configured to trap at least one analyte of interest by freezing; characterized by a sample release arrangement configured to provide a flow of gas, at room temperature on or around the sample concentration element in order to change the temperature thereof; wherein the sample release arrangement comprises a release gas preprocessing element; and a pump element configured to provide the gas flow on or around the sample concentration element; wherein the release gas preprocessing element comprises a drying element configured to reduce or remove humidity from the gas flow.