mhurhangee/ep-ind-claims huggingface dataset:
A power tool comprising; a sensorless motor; an inverter bridge configured to provide operating power to the sensorless motor; and a motor controller coupled to the inverter bridge, the motor controller configured to determine a first load point based on a user input, determine a first motor control technique corresponding to the first load point, wherein the first load point is one selected from the group consisting of a high speed low torque application, a high speed high torque application, a low speed low torque application, and a low speed high torque application, drive, using the inverter bridge, the sensorless motor based on the first motor control technique, determine a change from the first load point to a second load point; determine a second motor control technique corresponding to the second load point, and drive, using the inverter bridge, the sensorless motor based on the second motor control technique. a sensorless motor; an inverter bridge configured to provide operating power to the sensorless motor; and a motor controller coupled to the inverter bridge, the motor controller configured to determine a first load point based on a user input, determine a first motor control technique corresponding to the first load point, wherein the first load point is one selected from the group consisting of a high speed low torque application, a high speed high torque application, a low speed low torque application, and a low speed high torque application, drive, using the inverter bridge, the sensorless motor based on the first motor control technique, determine a change from the first load point to a second load point; determine a second motor control technique corresponding to the second load point, and drive, using the inverter bridge, the sensorless motor based on the second motor control technique. determine a first load point based on a user input, determine a first motor control technique corresponding to the first load point, wherein the first load point is one selected from the group consisting of a high speed low torque application, a high speed high torque application, a low speed low torque application, and a low speed high torque application, drive, using the inverter bridge, the sensorless motor based on the first motor control technique, determine a change from the first load point to a second load point; determine a second motor control technique corresponding to the second load point, and drive, using the inverter bridge, the sensorless motor based on the second motor control technique.
A fastening device for securing a plurality of elongated vehicle components (60, 62, 64) to a first side of a vehicle structural member, the fastening device comprising a first elongated strap member configured to form a loop around a first bundle of the elongated vehicle components, and a head member configured to be positioned on a second side of the vehicle structural member opposite the first side, wherein the head member is provided with a through hole configuration (26, 27, 28) for receipt of two portions of the first elongated strap member forming the loop and configured to allow tying of the first elongated strap member from the second side of the vehicle structural member, characterized in that the fastening device comprises a second elongated strap member configured to form a loop around a second bundle of the elongated vehicle components, that the head member through hole configuration (26, 27, 28) is configured for receipt of two portions of the second elongated strap member forming the loop, and that the head member is configured to allow tying of the second elongated strap member from the second side of the vehicle structural member.
A light control system comprising: first and second substrates each having an optical aperture (102, 202); at least one light control means provided with a magnetic rotary shaft member; a spacer arranged between the first substrate and the second substrate to provide a space that allows the light control means to move; drive means arranged on the first substrate, for causing the light control means to move with supply of current to a coil; command means for outputting a command signal indicating a direction of rotation of the light control means; detection means for detecting electromotive force generated in the coil; switch means for connecting the coil to the drive means in a driving state in which current is supplied to the coil and connecting the coil to the detection means in a non-driving state in which electromotive force generated in the coil is detected; determination means for determining a rotational state of the rotary shaft member, based on an output signal output from the detection means; and control means for outputting a command for causing the drive means to output a drive signal, based on an output signal output from the determination means. first and second substrates each having an optical aperture (102, 202); at least one light control means provided with a magnetic rotary shaft member; a spacer arranged between the first substrate and the second substrate to provide a space that allows the light control means to move; drive means arranged on the first substrate, for causing the light control means to move with supply of current to a coil; command means for outputting a command signal indicating a direction of rotation of the light control means; detection means for detecting electromotive force generated in the coil; switch means for connecting the coil to the drive means in a driving state in which current is supplied to the coil and connecting the coil to the detection means in a non-driving state in which electromotive force generated in the coil is detected; determination means for determining a rotational state of the rotary shaft member, based on an output signal output from the detection means; and control means for outputting a command for causing the drive means to output a drive signal, based on an output signal output from the determination means.
A method for the determination of the presence of an anti-drug antibody against an effector function suppressed human or humanized drug antibody (EFS-DA) in a sample comprising the following steps in the following order: - incubating a sample comprising mammalian blood serum with full length human Fcgamma receptor I or an Fc-region binding fragment thereof so that a complex between the ADA present in the sample and the human Fcgamma receptor I or the Fc-region binding fragment thereof forms, whereby the full length human Fcgamma receptor I or the Fc-region binding fragment thereof is conjugated to a detectable label, and - determining the complex formed in the previous step by the detectable label. - incubating a sample comprising mammalian blood serum with full length human Fcgamma receptor I or an Fc-region binding fragment thereof so that a complex between the ADA present in the sample and the human Fcgamma receptor I or the Fc-region binding fragment thereof forms, whereby the full length human Fcgamma receptor I or the Fc-region binding fragment thereof is conjugated to a detectable label, and - determining the complex formed in the previous step by the detectable label.
A liquid ejecting apparatus comprising: a carriage which can move an ejecting unit which ejects liquid onto a medium in a main scanning direction, wherein the carriage is provided with a capturing unit which captures mist generated along with ejecting of the liquid from the ejecting unit on at least one side of the ejecting unit in the main scanning direction, wherein the capturing unit includes a catching unit (61;161;261) which catches the mist, wherein the capturing unit extends along a sub-scanning direction which intersects the main scanning direction, and wherein a capturing port is provided on a face which faces the medium, characterized in that: the capturing unit includes a liquid guiding unit at a position which overlaps with the capturing port when planarly viewed, and between the capturing port and an inner face which faces the capturing port. a carriage which can move an ejecting unit which ejects liquid onto a medium in a main scanning direction, wherein the carriage is provided with a capturing unit which captures mist generated along with ejecting of the liquid from the ejecting unit on at least one side of the ejecting unit in the main scanning direction, wherein the capturing unit includes a catching unit (61;161;261) which catches the mist, wherein the capturing unit extends along a sub-scanning direction which intersects the main scanning direction, and wherein a capturing port is provided on a face which faces the medium, characterized in that: the capturing unit includes a liquid guiding unit at a position which overlaps with the capturing port when planarly viewed, and between the capturing port and an inner face which faces the capturing port.
A method for sharing an application between terminals, comprising: generating, by a first terminal according to an application that has been installed, a shared first application installation package of the application; sending, by the first terminal, the shared first application installation package to a second terminal, so that the second terminal installs the shared first application installation package; determining, by the first terminal, shared data of the application that has been installed, wherein the shared data is data that is from an application server and is required for the application to run; and sending, by the first terminal, the shared data to the second terminal, so that the second terminal uses the shared data when running the application that is shared, characterized in that said method further comprises: receiving, by the second terminal, the shared first application installation package, extracting verification information from the shared first application installation package, wherein the verification information is used to determine whether the shared first application installation package is from the application server, and determining, by the second terminal and according to the verification information extracted, whether the shared first application installation package is from the application server, and when the shared first application installation package is not from the application server, acquiring a second installation package of the application from the application server, and overwriting the shared first application installation package by using the second installation package, or when the shared first application installation package is from the application server, running the shared first application installation package. receiving, by the second terminal, the shared first application installation package, extracting verification information from the shared first application installation package, wherein the verification information is used to determine whether the shared first application installation package is from the application server, and determining, by the second terminal and according to the verification information extracted, whether the shared first application installation package is from the application server, and when the shared first application installation package is not from the application server, acquiring a second installation package of the application from the application server, and overwriting the shared first application installation package by using the second installation package, or when the shared first application installation package is from the application server, running the shared first application installation package.
Chiral metal complex compound of the formula wherein denotes either a broken bond (a) or a wedged bond (b) a) b) M is a metal selected from the manganese group or the iron group of the periodic system; PR 2 is wherein R 5 and R 6 independent of each other are C 1-4 -alkyl or aryl;; R 3 is CO, halogen or hydrogen and R 4 is CO, halogen or H-BH 3; and its stereoisomers in the form as a neutral complex or a complex cation with a suitable counter ion. a) b) M is a metal selected from the manganese group or the iron group of the periodic system; PR 2 is wherein R 5 and R 6 independent of each other are C 1-4 -alkyl or aryl;; R 3 is CO, halogen or hydrogen and R 4 is CO, halogen or H-BH 3;
A system for surgical tissue fixation, the system comprising: a fastener comprising: a first leg defining an axis and a first end configured for advancing axially within tissue through a first penetration site; a second leg defining an axis and a second end configured for advancing axially within the tissue through a second penetration site, the first and second leg axes defining a leg plane; and a base extending along a base surface and supporting the legs, the base having a bend protruding from the leg plane; and a deployment device configured to deploy the fastener, the deployment device comprising a handpiece, a clip pusher, and an anvil, wherein the anvil is configured to restrain the fastener and to cooperate with the clip pusher to deploy the fastener, characterised by the anvil having channels at angles that match the angles of the legs of the fastener relative to the base of the fastener, the channels being configured to restrain the fastener in cooperation with the pusher and the base being configured such that the base is deformed during the advancement of the legs (110, 112) through the penetration sites so that deployment of the fastener retains a proximation of tissue as present prior to the deployment and so that the legs (110, 112) maintain the base surface along the tissue surface after advancing the legs (110, 112). a fastener comprising: a first leg defining an axis and a first end configured for advancing axially within tissue through a first penetration site; a second leg defining an axis and a second end configured for advancing axially within the tissue through a second penetration site, the first and second leg axes defining a leg plane; and a base extending along a base surface and supporting the legs, the base having a bend protruding from the leg plane; and a first leg defining an axis and a first end configured for advancing axially within tissue through a first penetration site; a second leg defining an axis and a second end configured for advancing axially within the tissue through a second penetration site, the first and second leg axes defining a leg plane; and a base extending along a base surface and supporting the legs, the base having a bend protruding from the leg plane; and a deployment device configured to deploy the fastener, the deployment device comprising a handpiece, a clip pusher, and an anvil, wherein the anvil is configured to restrain the fastener and to cooperate with the clip pusher to deploy the fastener, characterised by the anvil having channels at angles that match the angles of the legs of the fastener relative to the base of the fastener, the channels being configured to restrain the fastener in cooperation with the pusher and the base being configured such that the base is deformed during the advancement of the legs (110, 112) through the penetration sites so that deployment of the fastener retains a proximation of tissue as present prior to the deployment and so that the legs (110, 112) maintain the base surface along the tissue surface after advancing the legs (110, 112).
An impact mill comprising a base portion upon which is disposed a rotor rotatably mounted in a bearing housing, said rotor having an upwardly aligned conical surface portion coaxial with the rotational axis, said impact mill provided with a mill casing within which is located a conical track assembly which surrounds said rotor to form a conical grinding path, said mill casing having a downwardly aligned cylindrical collar which may be axially adjusted to set a grinding gap between said rotor and said mill casing, said top surface of said rotor provided with a plurality of impact knives characterized in that these impact knives are complementary with a plurality of impact knives disposed on the inner housing surface of said mill casing (1 c).
Gas compression spring with a cylindrical housing, which comprises a wall, a bottom part and a cover part having an opening as well as a longitudinal axis, and with a piston which has an outer surface and an end face and is displaceable in the housing along the longitudinal axis, wherein a gas compression chamber is formed between the piston and the housing and wherein the gas compression spring has at least one sensor for detection of at least one physical variable, wherein means for determining the remaining service life of the gas compression spring from the values of the at least one physical variable detected by the at least one sensor, wherein the means have an evaluation unit in which the determination of the remaining service life of the gas compression spring takes place, wherein the evaluation unit has a store for storage of the values of the at least one physical variable detected by the at least one sensor as a function of time, characterised in that the evaluation unit is designed in such a way that the values of the at least one physical variable detected by the at least one sensor as a function of time are stored and are used for determination of the remaining service life, and wherein the evaluation unit is designed in such a way that the determination of the remaining service life takes place by comparison of the values of the at least one physical variable detected by the at least one sensor as a function of time with a characteristic field determined in long-term tests with gas compression springs and stored in the evaluation unit.
Process for producing effect paint systems on vehicle bodies and bodywork parts of metal, characterized in that an effect-imparting or colour- and effect-imparting coating material which consists of a matrix and discrete polymer particles, wherein after full or partial volatilization of the liquid phase, the matrix composed of the shell is formed by filming and the discrete polymer particles composed of the remaining cores of core/shell particles are arranged in distribution in the matrix, characterized in that the coating material is applied in a single operation by an atomizing process and then is completely or partially dried by full or partial volatilization of the liquid phase.
A method for recovery of initially not separated β-ACF from mother liquor remaining from the synthesis of ACF, comprising the following sequential steps: a) Evaporation to less than 1 % residual solvent of the mother liquor remaining from an initial synthesis of ACF, to increase the content of residual α/β-ACF from about 8 to 15 weight-% to about 25 to 45 weight-%, followed by distillation to about 60 to 80 weight-% and subsequent crystallization of β-ACF out of the distillate by adding a suitable solvent; b) Chemical conversion of α/β-ACF mixture remaining in the mother liquor of step a), to β-ACF by de-acetylation and subsequent re-acetylation, followed by crystallization of β-ACF by addition of a suitable solvent; c) Optional repetition of step a) and b) in a sequential (clockwise) cyclic process, and wherein the distillation method is selected from falling-film evaporation, molecular distillation, centrifugal molecular distillation or thin-film evaporation. a) Evaporation to less than 1 % residual solvent of the mother liquor remaining from an initial synthesis of ACF, to increase the content of residual α/β-ACF from about 8 to 15 weight-% to about 25 to 45 weight-%, followed by distillation to about 60 to 80 weight-% and subsequent crystallization of β-ACF out of the distillate by adding a suitable solvent; b) Chemical conversion of α/β-ACF mixture remaining in the mother liquor of step a), to β-ACF by de-acetylation and subsequent re-acetylation, followed by crystallization of β-ACF by addition of a suitable solvent; c) Optional repetition of step a) and b) in a sequential (clockwise) cyclic process, and
Screen unit for a printing device for printing three-dimensionally-shaped structures - in particular, on substrates, printed circuit boards, wafers, solar cells, carrier substrates, printing tables, carrier plates, sintering plates or the like - wherein the screen unit has a frame holding at least one printing screen and is designed to be accommodated in a screen receptacle of the printing device, to be filled with a printing compound, and to be subjected to the action of a squeegee for carrying out a printing process, characterized in that the screen unit has the squeegee and, in or on the frame, at least one holding device for the squeegee, which is in the form of an exchangeable squeegee, that the squeegee has a holding section and a squeegee section, wherein the holding device is designed to hold the squeegee only at the holding section, and that the holding device has a recess in which the squeegee section can be arranged without contact.
A tire comprising a tread portion provided with two circumferential grooves disposed one each side of the tire equator and extending continuously in the tire circumferential direction, and a shoulder land region defined on the axially outside of each of the two circumferential grooves and provided with oblique grooves inclined with respect to the tire axial direction, wherein the oblique grooves include first oblique grooves having axially inner ends, and second oblique grooves having axially inner ends positioned axially outside the axially inner ends of the first oblique grooves, each of the first oblique grooves is curved so as to have a vertex of curve being located on one of the groove edges at a position at which a distance between the groove edge and a straight line drawn between the axially inner end and an outer end of the first oblique groove is the largest, wherein the distance extends along an axis perpendicular to the straight line, and the vertexes of curve of the first oblique grooves are positioned axially outside the axially inner ends of the second oblique grooves, characterized in that the difference between the angle (θ3) with respect to the tire axial direction of the straight line of the first oblique groove and the angle (θ5) with respect to the tire axial direction of a straight line drawn between the axially inner end and an outer end of the second oblique groove is not more than 10 degrees. the oblique grooves include first oblique grooves having axially inner ends, and second oblique grooves having axially inner ends positioned axially outside the axially inner ends of the first oblique grooves, first oblique grooves having axially inner ends, and second oblique grooves having axially inner ends positioned axially outside the axially inner ends of the first oblique grooves, each of the first oblique grooves is curved so as to have a vertex of curve being located on one of the groove edges at a position at which a distance between the groove edge and a straight line drawn between the axially inner end and an outer end of the first oblique groove is the largest, wherein the distance extends along an axis perpendicular to the straight line, and the vertexes of curve of the first oblique grooves are positioned axially outside the axially inner ends of the second oblique grooves,