mhurhangee/ep-ind-claims huggingface dataset:
An unbalance arrangement for a compactor roller of a soil compactor, comprising: - a first unbalance mass unit (34; 34a) rotatable around an unbalance axis of rotation and having a first centre of mass (M 1) eccentric with respect to the unbalance axis of rotation, - a second unbalance mass unit (36; 36a) rotatable around the unbalance axis of rotation and having a second centre of mass (M 2) eccentric with respect to the unbalance axis of rotation, - an unbalance drive (42; 42a) for jointly driving the first unbalance mass unit (34; 34a) and the second unbalance mass unit (36, 36a) to rotate around the unbalance axis of rotation, - a phase position adjustment unit (46; 46a) for adjusting a phase position of the first centre of mass (M 1) with respect to the second centre of mass (M 2) around the unbalance axis of rotation, wherein the phase position adjustment unit (46; 46a) comprises a spur gear arrangement (68; 68a) in the torque transmission path between the unbalance drive (42; 42a) and the first unbalance mass unit (34; 34a) or the second unbalance mass unit (36; 36a), wherein the spur gear arrangement (68; 68a) comprises a gear input spur gear (66; 66a) drivable by the unbalance drive (42; 42a) to rotate around a gear axis of rotation, a gear output spur gear (70; 70a) rotatable around the gear axis of rotation, characterized in that the spur gear arrangement (68; 68a) comprises a group of gear adjustment spur gears (78, 80; 78a, 80a) in meshing engagement with the gear input spur gear (66; 66a) and the gear output spur gear (70; 70a), wherein the gear adjustment spur gears (78, 80; 78a, 80a) are rotatably supported on an adjustment spur gear carrier (82; 82a), and wherein the adjustment spur gear carrier (82; 82a) is rotatable with respect to the gear input spur gear (66; 66a) and the gear output spur gear (70; 70a) around the gear axis of rotation. - a first unbalance mass unit (34; 34a) rotatable around an unbalance axis of rotation and having a first centre of mass (M 1) eccentric with respect to the unbalance axis of rotation, - a second unbalance mass unit (36; 36a) rotatable around the unbalance axis of rotation and having a second centre of mass (M 2) eccentric with respect to the unbalance axis of rotation, - an unbalance drive (42; 42a) for jointly driving the first unbalance mass unit (34; 34a) and the second unbalance mass unit (36, 36a) to rotate around the unbalance axis of rotation, - a phase position adjustment unit (46; 46a) for adjusting a phase position of the first centre of mass (M 1) with respect to the second centre of mass (M 2) around the unbalance axis of rotation,
A multimedia device with a remote control, that comprises - a first microprocessor, - a first hardware device for identifying the remote control, - a second hardware device for detecting biometric data of a person, and - a transmitting device for transmitting data, and with a multimedia apparatus that comprises - a receiving device for receiving the data, a memory (11, 12) and a second microprocessor, characterized in that the first hardware device is a SIM card on which the following data is stored: - a first pair of digital codes (PubK 1, PrivK 1), - a second pair of digital codes (PubK 2, PrivK 2), - a personal identification code, and - personal data of at least one user, that the memory of the multimedia apparatus holds the following data stored after a first initialization: - only one code (PrivK 1) of the first pair of digital codes, - only one code (PubK 2) of the second pair of digital codes, - biometric data and personal data of a user, as well as the personal identification code encoded with the only one code (PubK 2) of the second pair of digital codes, that the second hardware device reads in biometric data of the user upon an established connection between the remote control and the multimedia apparatus, adds to them the personal identification code and the other code (PrivK 2) of the second pair of digital codes, encodes a data packet formed in this manner with the other code (PubK 1) of the first pair of digital codes and transmits the data set encoded in this manner to the multimedia device, that the multimedia device decodes the received, encoded data set with the stored one code (PrivK 1) of the first pair of digital codes, extracts from it the other code (PrivK 2) of the second pair of digital codes, the personal identification cod and the biometric data, extracts from the memory the encoded biometric data, the encoded personal data and the encoded personal identification code and decodes them with the other code (PrivK 2) of the second pair of digital codes, compares the received, decoded personal identification code and the decoded, stored personal identification code with one another and upon agreement compares the received, decoded biometric data and the stored, decoded biometric data with each other and only clears the multimedia apparatus upon agreement. - a first microprocessor, - a first hardware device for identifying the remote control, - a second hardware device for detecting biometric data of a person, and - a transmitting device for transmitting data, and with a multimedia apparatus that comprises - a receiving device for receiving the data, - a first pair of digital codes (PubK 1, PrivK 1), - a second pair of digital codes (PubK 2, PrivK 2), - a personal identification code, and - personal data of at least one user, - only one code (PrivK 1) of the first pair of digital codes, - only one code (PubK 2) of the second pair of digital codes, - biometric data and personal data of a user, as well as the personal identification code encoded with the only one code (PubK 2) of the second pair of digital codes,
An incontinence data capture and management system comprising: a data logger (1a, 1b, 1c) configured to be detachably attached to or located in the vicinity of an absorbent article; a data link (13, 14, 15) between the data logger and a data collection hub; and a user interface for permitting an operator to access the data collection hub from a remote location, the data logger being configured to transmit a data package to the data collection hub at predetermined intervals, the data package including a unique device identifier of the data logger, characterized in that: the data logger is marked with a user-friendly identifier (A01, A02, A03) for identifying the data logger, and the data collection hub includes a correlation means for correlating the user-friendly identifier of a data logger with the unique device identifier of that data logger, the user-friendly identifier being shorter than the unique device identifier. a data logger (1a, 1b, 1c) configured to be detachably attached to or located in the vicinity of an absorbent article; a data link (13, 14, 15) between the data logger and a data collection hub; and a user interface for permitting an operator to access the data collection hub from a remote location, the data logger being configured to transmit a data package to the data collection hub at predetermined intervals, the data package including a unique device identifier of the data logger, characterized in that: the data logger is marked with a user-friendly identifier (A01, A02, A03) for identifying the data logger, and the data collection hub includes a correlation means for correlating the user-friendly identifier of a data logger with the unique device identifier of that data logger, the user-friendly identifier being shorter than the unique device identifier. the data logger is marked with a user-friendly identifier (A01, A02, A03) for identifying the data logger, and the data collection hub includes a correlation means for correlating the user-friendly identifier of a data logger with the unique device identifier of that data logger, the user-friendly identifier being shorter than the unique device identifier.
A combined antimicrobial, heparin and anticoagulant composition for treating and preventing infection and flow reduction in blood catheters comprising a locking solution of: a. at least one taurinamide derivative; b. a biologically acceptable acid and a biologically acceptable salt of said acid in a combination that brings the pH of the combination into a range of from about 3.5 to about 6.5; and c. low concentration heparin, in the range of 50 to 2500 units per mL locking solution, wherein the heparin concentration is sufficient to prevent reactions of the taurinamide derivative with stagnant blood but low enough that expulsion and/or spillage of the solution into a patient's bloodstream carries a low risk of patient haemorrhage. a. at least one taurinamide derivative; b. a biologically acceptable acid and a biologically acceptable salt of said acid in a combination that brings the pH of the combination into a range of from about 3.5 to about 6.5; and c. low concentration heparin, in the range of 50 to 2500 units per mL locking solution, wherein the heparin concentration is sufficient to prevent reactions of the taurinamide derivative with stagnant blood but low enough that expulsion and/or spillage of the solution into a patient's bloodstream carries a low risk of patient haemorrhage.
A capsule endoscopic system comprising a docking device (120, 220, 320, 420, 520, 620, 720, 820, 920, 930, 1120) and a capsule device (110, 200, 400, 500, 600, 700, 800, 900, 1100, 1400), the capsule device (110, 200, 400, 500, 600, 700, 800, 900, 1100, 1400) comprising a battery (118, 211, 418, 614), an archival memory to store first data captured inside a body lumen by the capsule device, a light source (116, 216, 316, 618), and a capsule housing (210, 410, 610) that encloses the battery, the archival memory and the light source (116, 216, 316, 618) in a sealed environment, the capsule device (110, 200, 400, 500, 600, 700, 800, 900, 1100, 1400) comprising: a secondary coil (111, 214, 414, 514, 612) enclosed in the capsule housing; wherein the battery is located close to a first end and the secondary coil is located close to an opposite second end of the capsule device in a longitudinal direction of the capsule device; and the docking device (120, 220, 320, 420, 520, 620, 720, 820, 920, 930, 1120) for receiving the first data from the capsule device, wherein the docking device comprises: a primary coil (122, 221, 322, 422, 522, 622, 722, 1122) to generate an alternating magnetic field, characterized in that the magnetic field is coupled to the secondary coil to supply power to the capsule device wirelessly when the capsule device is outside a live body and is docked in the docking device, and the primary coil generates higher magnetic field at the opposite second end than the first end of the capsule device when the capsule device is outside the live body and is docked in the docking device; wherein the light source (116, 216, 316, 618) is located centrally on a longitudinal axis of the capsule device (110, 200, 400, 500, 600, 700, 800, 900, 1100, 1400), and the docking device (120, 220, 320, 420, 520, 620, 720, 820, 920, 930, 1120) further comprises a light receiver (125, 225, 326, 626, 1134), wherein the light source (116, 216, 316, 618) and the light receiver (125, 225, 326, 626, 1134) are adapted to wirelessly transmit the first data from the capsule device to the docking device when the capsule device is outside the live body and is docked in the docking device. a secondary coil (111, 214, 414, 514, 612) enclosed in the capsule housing; wherein the battery is located close to a first end and the secondary coil is located close to an opposite second end of the capsule device in a longitudinal direction of the capsule device; and a primary coil (122, 221, 322, 422, 522, 622, 722, 1122) to generate an alternating magnetic field, characterized in that the magnetic field is coupled to the secondary coil to supply power to the capsule device wirelessly when the capsule device is outside a live body and is docked in the docking device, and the primary coil generates higher magnetic field at the opposite second end than the first end of the capsule device when the capsule device is outside the live body and is docked in the docking device; wherein the light source (116, 216, 316, 618) is located centrally on a longitudinal axis of the capsule device (110, 200, 400, 500, 600, 700, 800, 900, 1100, 1400), and
A frame sealant comprising 1-5 wt% of porous glass microspheres treated with a safe gas, the gas comprises 3-5% by volume of the porous glass microspheres.
A user terminal configured to communicate with a plurality of cell groups, each group being formed with one or more cells, the user terminal comprising: a receiving section configured to receive from a secondary cell, SCell a downlink control information; and a control section configured to select at least one cell from cells which are configured in each cell group and to which resources for transmitting uplink control information is able to be allocated, and to control the cell in which to transmit the uplink control information, wherein the cell in which to transmit the uplink control information is a secondary cell, SCell, wherein, the downlink control information includes information indicative of cross-carrier scheduling, which configures the control section to determine a resource to transmit the uplink control information based on a first or a second different DCI parameter, respectively, depending on whether a SCell from which the user terminal has received the downlink control information and the SCell from which to transmit the uplink control information are same or not. a receiving section configured to receive from a secondary cell, SCell a downlink control information; and a control section configured to select at least one cell from cells which are configured in each cell group and to which resources for transmitting uplink control information is able to be allocated, and to control the cell in which to transmit the uplink control information, wherein the cell in which to transmit the uplink control information is a secondary cell, SCell, wherein, the downlink control information includes information indicative of cross-carrier scheduling, which configures the control section to determine a resource to transmit the uplink control information based on a first or a second different DCI parameter, respectively, depending on whether a SCell from which the user terminal has received the downlink control information and the SCell from which to transmit the uplink control information are same or not.
An offset amount calibrating method for a surface texture measuring machine including: a stage on which an object is mounted; a contact-type detector being provided with a stylus that is brought into contact with a surface of the object; an image probe that captures an image of the surface of the object; a relative movement mechanism that relatively moves the stage against the contact-type detector and the image probe and moves the contact-type detector and the image probe against the stage; and a controller that controls an operation of the relative movement mechanism and executes processing on measurement data obtained by the contact-type detector and image data obtained by the image probe, the method obtaining an offset amount between the contact-type detector and the image probe, the method comprising: setting on the stage a calibration chart that includes not less than two non-parallel linewidth patterns (81A to 81D, 82A to 82D) being disposed relative to a reference position (o) of the calibration chart and each having a known width (w) and a level difference; capturing an image of the linewidth patterns (81A to 81D, 82A to 82D) of the calibration chart by the image probe to obtain the reference position (o) of the calibration chart; measuring at least two of the linewidth patterns (81A to 81D, 82A to 82D) of the calibration chart by the contact-type detector to obtain the reference position (o) of the calibration chart; and calculating a difference between the reference position (o) obtained by using the image probe and the reference position (o) obtained by using the contact-type detector to obtain the offset amount, wherein the calibration chart includes at least one of a rhombic linewidth pattern formed by combining in a rhombic shape the linewidth patterns (81A to 81D) and a cross-shaped linewidth pattern formed by combining in a cross the linewidth patterns (82A to 82D). setting on the stage a calibration chart that includes not less than two non-parallel linewidth patterns (81A to 81D, 82A to 82D) being disposed relative to a reference position (o) of the calibration chart and each having a known width (w) and a level difference; capturing an image of the linewidth patterns (81A to 81D, 82A to 82D) of the calibration chart by the image probe to obtain the reference position (o) of the calibration chart; measuring at least two of the linewidth patterns (81A to 81D, 82A to 82D) of the calibration chart by the contact-type detector to obtain the reference position (o) of the calibration chart; and calculating a difference between the reference position (o) obtained by using the image probe and the reference position (o) obtained by using the contact-type detector to obtain the offset amount, wherein the calibration chart includes at least one of a rhombic linewidth pattern formed by combining in a rhombic shape the linewidth patterns (81A to 81D) and a cross-shaped linewidth pattern formed by combining in a cross the linewidth patterns (82A to 82D).
Vehicle comprising a chassis, a drive axle and a driven axle each linked to wheels, and a primary motor driving in rotation said drive axle which comprises a system comprising: - a drive hydraulic apparatus having an intake orifice and an outlet orifice, - a driven hydraulic apparatus having an intake orifice and an outlet orifice, the outlet of the drive hydraulic apparatus being connected to the intake of the driven hydraulic apparatus by a supply line, and the outlet of the driven hydraulic apparatus being connected to the intake of the drive hydraulic apparatus by a return line, - the drive axle and the driven axle being respectively coupled to the drive hydraulic apparatus and the driven hydraulic apparatus the drive hydraulic apparatus and the driven hydraulic apparatus having a fixed displacement, the system further comprising a bypass line connected on the one hand to the supply line and on the other and to the return line, said bypass line comprising at least one means (61, 62, 66, 71, 73) configured to automatically ensure a transfer of flow between the supply line and the return line, characterised in that the system, in order to modulate a ratio of speeds of rotation between the drive hydraulic apparatus and the driven hydraulic apparatus, comprises a restriction configured to automatically ensure a transfer of flow between the supply line and the return line, or a flow limiter configured in order to automatically ensure a transfer of flow between the supply line and the return line, or at least one pressure limiter configured to automatically ensure a transfer of flow between the supply line and the return line. - a drive hydraulic apparatus having an intake orifice and an outlet orifice, - a driven hydraulic apparatus having an intake orifice and an outlet orifice, the outlet of the drive hydraulic apparatus being connected to the intake of the driven hydraulic apparatus by a supply line, and the outlet of the driven hydraulic apparatus being connected to the intake of the drive hydraulic apparatus by a return line, - the drive axle and the driven axle being respectively coupled to the drive hydraulic apparatus and the driven hydraulic apparatus the drive hydraulic apparatus and the driven hydraulic apparatus having a fixed displacement, the system further comprising a bypass line connected on the one hand to the supply line and on the other and to the return line, said bypass line comprising at least one means (61, 62, 66, 71, 73) configured to automatically ensure a transfer of flow between the supply line and the return line, characterised in that the system, in order to modulate a ratio of speeds of rotation between the drive hydraulic apparatus and the driven hydraulic apparatus, comprises a restriction configured to automatically ensure a transfer of flow between the supply line and the return line, or a flow limiter configured in order to automatically ensure a transfer of flow between the supply line and the return line, or at least one pressure limiter configured to automatically ensure a transfer of flow between the supply line and the return line.
Use of a polymeric carrier material provided with polyelectrolytes fixed thereon, adapted for the adsorption of mono- or bivalent metal cations for bonding mono- or bivalent metal cations from an aqueous solution.
An antagonist antibody or fragment thereof that binds to human OX40 comprising a heavy chain CDR1 comprising the amino acid sequence of SEQ ID NO: 1, and a heavy chain CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and a heavy chain CDR3 comprising the amino acid sequence of SEQ ID NO: 3; and comprising a light chain CDR1 comprising the amino acid sequence of SEQ ID NO: 4, and a light chain CDR2 comprising the amino acid sequence of SEQ ID NO: 5 and a light chain CDR3 comprising the amino acid sequence of SEQ ID NO: 6.