mhurhangee/ep-ind-claims huggingface dataset:
An antibody comprising: a) a heavy chain comprising a variant heavy chain constant domain of a parent heavy chain constant domain, wherein said variant heavy chain constant domain comprises an amino acid sequence selected from the group consisting of: SEQ ID NOS: 7, 52, 53; and b) a light chain comprising a variant light chain constant domain of a parent light chain constant domain, wherein the variant light chain constant domain comprises an amino acid sequence according to SEQ ID NO: 8. a) a heavy chain comprising a variant heavy chain constant domain of a parent heavy chain constant domain, wherein said variant heavy chain constant domain comprises an amino acid sequence selected from the group consisting of: SEQ ID NOS: 7, 52, 53; and b) a light chain comprising a variant light chain constant domain of a parent light chain constant domain, wherein the variant light chain constant domain comprises an amino acid sequence according to SEQ ID NO: 8.
Method for operating an electric machine, wherein an inverter of the electrical machine is actuated by means of pulse width modulation, wherein a pulse duty factor for the pulse width modulation is determined from a voltage value (d) that is dependent on the desired rotational speed as well as a time-dependent angle value (α), wherein a ratio of a desired voltage (U s) to an intermediate circuit voltage (U z) is used as the voltage value (d), characterised in that the angle value (α) is added up, wherein a product of the desired rotational speed (ω s) and a time difference (Δt) is used as summand and a difference between a first angle (γ) and a second angle (y') is used as an additional summand, wherein the first angle (γ) is determined from the desired rotational speed (ω s) and a field attenuation value (φ) and the second angle (y') corresponds to the previous value of the first angle (γ) or is determined from measured phase currents (I U, I V) through the inverter.
A layered material comprising: (i) a first layer comprising polyvinylbutyral and a polyester, wherein the polyvinylbutyral is cross-linked with the polyester, and (ii) a second layer comprising an adhesive, wherein the first layer comprises irradiation-treated areas, and wherein the irradiation is laser irradiation. (i) a first layer comprising polyvinylbutyral and a polyester, wherein the polyvinylbutyral is cross-linked with the polyester, and (ii) a second layer comprising an adhesive, wherein the first layer comprises irradiation-treated areas, and wherein the irradiation is laser irradiation.
An apparatus, comprising: a vibration member; a rear cover at a rear surface of the vibration member; a first vibration device at a first rear region of the rear cover; and a second vibration device at a second rear region of the rear cover; characterised in that the rear cover comprises a left region and a right region with respect to a center line, wherein the left region comprises first to sixteenth regions in a matrix sequence from a left uppermost end to a right lowermost end, and the right region comprises first to sixteenth regions in a matrix sequence from a right uppermost end to a left lowermost end; wherein the first vibration device is at least one of the sixth to eighth regions and tenth to twelfth regions; wherein the second vibration device is at least one of the first region, the second region, the fifth region, the sixth region, the ninth region, the tenth region, the thirteenth region, and the fourteenth region; and wherein the first vibration device and the second vibration device are arranged to be adjacent to each other diagonally. a vibration member; a rear cover at a rear surface of the vibration member; a first vibration device at a first rear region of the rear cover; and a second vibration device at a second rear region of the rear cover; characterised in that the rear cover comprises a left region and a right region with respect to a center line, wherein the left region comprises first to sixteenth regions in a matrix sequence from a left uppermost end to a right lowermost end, and the right region comprises first to sixteenth regions in a matrix sequence from a right uppermost end to a left lowermost end; wherein the first vibration device is at least one of the sixth to eighth regions and tenth to twelfth regions; wherein the second vibration device is at least one of the first region, the second region, the fifth region, the sixth region, the ninth region, the tenth region, the thirteenth region, and the fourteenth region; and wherein the first vibration device and the second vibration device are arranged to be adjacent to each other diagonally.
Venturi device for delivering oxygen or an air/oxygen mixture comprising: - a main body comprising an inner compartment and a venturi nozzle arranged in said inner compartment, - a rear member comprising an oxygen inlet for providing oxygen and at least one air inlet for providing air, and a mixing chamber for mixing therein oxygen and air provided by said oxygen inlet and said at least one air inlet, said rear member being mobile with respect to the main body between at least: o a closed position wherein the rear member provides oxygen to the venturi nozzle, and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle, said air/oxygen mixture being obtained in the mixing chamber, characterized in that the rear member is mobile with respect to the main body according to a helicoidal motion for allowing a user to manually select a desired open or closed position. - a main body comprising an inner compartment and a venturi nozzle arranged in said inner compartment, - a rear member comprising an oxygen inlet for providing oxygen and at least one air inlet for providing air, and a mixing chamber for mixing therein oxygen and air provided by said oxygen inlet and said at least one air inlet, said rear member being mobile with respect to the main body between at least: o a closed position wherein the rear member provides oxygen to the venturi nozzle, and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle, said air/oxygen mixture being obtained in the mixing chamber, o a closed position wherein the rear member provides oxygen to the venturi nozzle, and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle, said air/oxygen mixture being obtained in the mixing chamber,
A method of making a magnetic drive component for an elevator system, the method comprising: inserting a plurality of metal teeth into a metal tube, the teeth respectively having a first portion received directly against an inside surface of the tube, the teeth respectively having a second portion and a third portion spaced apart and projecting inwardly toward a center of the tube; and securing the plurality of teeth to the tube; characterized in that: each of the teeth have a generally helical configuration and the plurality of teeth within the tube define a plurality of helical paths along the length of the tube; and receiving a rotatable magnetic drive member within the interior of the tube, wherein: the rotatable magnetic drive member has an associated motor received within the interior of the tube; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube; and the magnetic drive member includes a plurality of magnets (76, 78) arranged in a helical pattern. inserting a plurality of metal teeth into a metal tube, the teeth respectively having a first portion received directly against an inside surface of the tube, the teeth respectively having a second portion and a third portion spaced apart and projecting inwardly toward a center of the tube; and securing the plurality of teeth to the tube; each of the teeth have a generally helical configuration and the plurality of teeth within the tube define a plurality of helical paths along the length of the tube; and receiving a rotatable magnetic drive member within the interior of the tube, wherein: the rotatable magnetic drive member has an associated motor received within the interior of the tube; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube; and the magnetic drive member includes a plurality of magnets (76, 78) arranged in a helical pattern. the rotatable magnetic drive member has an associated motor received within the interior of the tube; a brake is associated with the rotatable magnetic drive member and configured to fit within the interior of the tube; and the magnetic drive member includes a plurality of magnets (76, 78) arranged in a helical pattern.
A storage device of a battery cell (10; 20), the storage device comprising: a chamber (400; 410) configured to accommodate storage cases (1000; 1000a; 1000b) of the battery cell (10; 20), the storage cases comprising: a case (100; 110) configured to accommodate a battery cell (10; 20); and a discharge unit (200; 210) configured to be electrically connected to the case (100; 110) and disposed outside the case (100; 110) to discharge the battery cell (10; 20), wherein the case (100; 110) comprises: an upper case (101; 111) of a hollow structure with one opened side; a lower case (102; 112) having a hollow structure in which a side facing an opening of the upper case (101; 111) is opened, and exhaust units (500; 510) configured to be formed on at least one portion selected from the group consisting of an upper surface, a lower surface and a side surface of the chamber and discharge gas generated from the battery cell (10; 20) to an outside, wherein the chamber (400; 410) has a through portion formed at one side thereof, and a discharge unit (200; 210) of the storage case is drawn out of the chamber (400; 410) through the through portion. a case (100; 110) configured to accommodate a battery cell (10; 20); and a discharge unit (200; 210) configured to be electrically connected to the case (100; 110) and disposed outside the case (100; 110) to discharge the battery cell (10; 20), wherein the case (100; 110) comprises: an upper case (101; 111) of a hollow structure with one opened side; a lower case (102; 112) having a hollow structure in which a side facing an opening of the upper case (101; 111) is opened, and exhaust units (500; 510) configured to be formed on at least one portion selected from the group consisting of an upper surface, a lower surface and a side surface of the chamber and discharge gas generated from the battery cell (10; 20) to an outside, wherein the chamber (400; 410) has a through portion formed at one side thereof, and a discharge unit (200; 210) of the storage case is drawn out of the chamber (400; 410) through the through portion. an upper case (101; 111) of a hollow structure with one opened side; a lower case (102; 112) having a hollow structure in which a side facing an opening of the upper case (101; 111) is opened, and exhaust units (500; 510) configured to be formed on at least one portion selected from the group consisting of an upper surface, a lower surface and a side surface of the chamber and discharge gas generated from the battery cell (10; 20) to an outside, wherein the chamber (400; 410) has a through portion formed at one side thereof, and a discharge unit (200; 210) of the storage case is drawn out of the chamber (400; 410) through the through portion.
Electromechanical actuation assembly of an electromechanical brake (B1; B2) - with an electromechanical actuator having a downstream first mechanical drive transmission unit, - with a reversible power storage device having a downstream second mechanical drive transmission unit and - with a coupling device which can be rotated about an axis of rotation, which coupling device couples a mechanical actuation transmission unit on the one hand to a drive of the first mechanical drive transmission unit and on the other hand to a drive of the second mechanical drive transmission unit, wherein the second mechanical drive transmission unit is embodied such that it introduces a drive torque (M eccentr) dependent on the angle of rotation (ω) of the coupling device in a non-linear manner into the coupling device, and wherein the second mechanical drive transmission unit has an element transferring tensile forces, in particular a cable, as a drive, which element is actively connected by means of a connection to a power store of the power storage device in order to introduce the stored power of the power store into the second mechanical drive transmission unit, characterised in that the stored power of the power store acts in parallel to the axis of rotation of the coupling device and at least one deflection element with a deflection radius (r) is provided to deflect the element transferring tensile forces, which deflection element is pivotably mounted about a pivot axis, which runs in parallel to the axis of rotation. - with an electromechanical actuator having a downstream first mechanical drive transmission unit, - with a reversible power storage device having a downstream second mechanical drive transmission unit and - with a coupling device which can be rotated about an axis of rotation, which coupling device couples a mechanical actuation transmission unit on the one hand to a drive of the first mechanical drive transmission unit and on the other hand to a drive of the second mechanical drive transmission unit,
A gallium nitride crystal, wherein Δd/d(ave) below is 4×10 -5 or less Δd / d ave = d max − d min / d ave (where d(max), d(min) and d(ave) are respectively maximum, minimum and average values of the lattice plane spacing of the plane, as measured in the direction of crystal growth, being the c-axis, at 100 μm intervals).
Arrangement for transferring slaughtered poultry between conveying lines in a poultry processing plant, comprising at least one rotary device (10, 11) for conveying slaughtered poultry in a suspended state along a curved conveying path with a plurality of suspension mounts, each designed to hold a poultry body by both legs, a linear motor conveying device with a guide rail comprising a linear drive, forming a circulating conveying path with a plurality of runners each arranged to be separately controllable and movable along the guide rail by means of the linear drive, and holding elements, designed to accommodate one poultry leg at a time, wherein in each case one of the holding elements is arranged on each of the runners, and wherein the rotary device (10, 11) and the linear motor conveying device are arranged in such a manner that the curved conveying path at least partially overlaps with a curved portion of the circulating conveying path in a transfer region for transferring the slaughtered poultry between the conveying lines. at least one rotary device (10, 11) for conveying slaughtered poultry in a suspended state along a curved conveying path with a plurality of suspension mounts, each designed to hold a poultry body by both legs, a linear motor conveying device with a guide rail comprising a linear drive, forming a circulating conveying path with a plurality of runners each arranged to be separately controllable and movable along the guide rail by means of the linear drive, and holding elements, designed to accommodate one poultry leg at a time, wherein in each case one of the holding elements is arranged on each of the runners, and wherein the rotary device (10, 11) and the linear motor conveying device are arranged in such a manner that the curved conveying path at least partially overlaps with a curved portion of the circulating conveying path in a transfer region for transferring the slaughtered poultry between the conveying lines.
Method for joining a reinforcement sleeve onto a rotor of an electric motor, wherein the method comprises: providing the reinforcement sleeve and the rotor, wherein the reinforcement sleeve has a cylindrical inner periphery, characterized in that the reinforcement sleeve has a cylindrical inner periphery which is undersized with respect to a cylindrical outer periphery of the rotor; and the method further comprises: attaching at least two vacuum cups onto an outer lateral surface of the reinforcement sleeve, such that the vacuum cups adhere to the outer lateral surface of the reinforcement sleeve in a reversibly detachable manner on account of a vacuum generated between the vacuum cup and the outer lateral surface; and joining the reinforcement sleeve onto the rotor, in that the rotor is pressed into the reinforcement sleeve in a pressing direction, wherein forces acting in the pressing direction are transferred from the vacuum cups to the reinforcement sleeve. providing the reinforcement sleeve and the rotor, wherein the reinforcement sleeve has a cylindrical inner periphery, characterized in that the reinforcement sleeve has a cylindrical inner periphery which is undersized with respect to a cylindrical outer periphery of the rotor; and the method further comprises: attaching at least two vacuum cups onto an outer lateral surface of the reinforcement sleeve, such that the vacuum cups adhere to the outer lateral surface of the reinforcement sleeve in a reversibly detachable manner on account of a vacuum generated between the vacuum cup and the outer lateral surface; and joining the reinforcement sleeve onto the rotor, in that the rotor is pressed into the reinforcement sleeve in a pressing direction, wherein forces acting in the pressing direction are transferred from the vacuum cups to the reinforcement sleeve. attaching at least two vacuum cups onto an outer lateral surface of the reinforcement sleeve, such that the vacuum cups adhere to the outer lateral surface of the reinforcement sleeve in a reversibly detachable manner on account of a vacuum generated between the vacuum cup and the outer lateral surface; and joining the reinforcement sleeve onto the rotor, in that the rotor is pressed into the reinforcement sleeve in a pressing direction, wherein forces acting in the pressing direction are transferred from the vacuum cups to the reinforcement sleeve.
An impregnation unit configured to receive at least first and second spreaded fiber layers (901, 902) and to disperse the first and second spreaded fiber layers (901, 902) into a matrix material, the impregnation unit comprising: an extruder configured to supply a sheet or film of the matrix material between the first and second spreaded fiber layers (901, 902), the extruder being configured to supply the sheet or film of matrix material to an upper surface of the second spreaded fiber layer to form a coated spreaded fiber layer; a first pressing element disposed downstream of the extruder, the first pressing element having a convex surface configured to press the first spreaded fiber layer into the matrix material; and a second pressing element disposed downstream of the extruder, the second pressing element having a convex surface configured to press the second spreaded fiber layer into the matrix material, wherein the second pressing element is disposed downstream of the first pressing element, so that the first spreaded fiber layer is brought into contact with the coated spreaded fiber layer and pressed into the matrix material by passing over the first pressing element, and so that the coated spreaded fiber layer is pressed into the matrix material by passing over the second pressing element. an extruder configured to supply a sheet or film of the matrix material between the first and second spreaded fiber layers (901, 902), the extruder being configured to supply the sheet or film of matrix material to an upper surface of the second spreaded fiber layer to form a coated spreaded fiber layer; a first pressing element disposed downstream of the extruder, the first pressing element having a convex surface configured to press the first spreaded fiber layer into the matrix material; and a second pressing element disposed downstream of the extruder, the second pressing element having a convex surface configured to press the second spreaded fiber layer into the matrix material, wherein the second pressing element is disposed downstream of the first pressing element, so that the first spreaded fiber layer is brought into contact with the coated spreaded fiber layer and pressed into the matrix material by passing over the first pressing element, and so that the coated spreaded fiber layer is pressed into the matrix material by passing over the second pressing element.
A method of enhancing the activity of a dehydrogenation catalyst promoted with an alkali metal during a catalytic dehydrogenation reaction, comprising: forming a first solution by utilizing an apparatus for adding an alkali metal salt to steam; the apparatus having a first conduit capable of transporting a first stream of the alkali metal salt, the first conduit having at least one opening through which the first stream can exit the first conduit; a second conduit in fluid communication with the first conduit, wherein the second conduit is capable of transporting a second stream comprising steam, wherein as the first stream exits the first conduit it is dissipated into the second stream forming the first solution containing alkali metal salt of the first stream in solution with the steam of the second stream; and bringing the first solution into contact with the dehydrogenation catalyst the apparatus further comprising a diffuser located adjacent to the opening of the first conduit to dissipate the first stream into the second stream and with the portion of the first conduit containing the opening being disposed within the second conduit in a substantially concentric arrangement with the first stream and the second stream contacting in a con-current flow pattern. forming a first solution by utilizing an apparatus for adding an alkali metal salt to steam; the apparatus having a first conduit capable of transporting a first stream of the alkali metal salt, the first conduit having at least one opening through which the first stream can exit the first conduit; a second conduit in fluid communication with the first conduit, wherein the second conduit is capable of transporting a second stream comprising steam, wherein as the first stream exits the first conduit it is dissipated into the second stream forming the first solution containing alkali metal salt of the first stream in solution with the steam of the second stream; and bringing the first solution into contact with the dehydrogenation catalyst the apparatus further comprising a diffuser located adjacent to the opening of the first conduit to dissipate the first stream into the second stream and with the portion of the first conduit containing the opening being disposed within the second conduit in a substantially concentric arrangement with the first stream and the second stream contacting in a con-current flow pattern.
Opening and closing system for an item of furniture which has at least one movable furniture part and a movement fitting, wherein the opening and closing system has an ejection apparatus with a loadable mechanical force store and a tensioning apparatus for loading the mechanical force store, wherein the tensioning apparatus is supplied with energy by an electrical energy storage device, and wherein the ejection apparatus is designed, when the mechanical energy store is unlocked, to move the movable furniture part into a partially open position, wherein the movement fitting comprises a retraction apparatus and a damping apparatus which is provided to move the movable furniture part in a damped manner from a further partially open position which lies within a predetermined effective range into a closed position, characterized in that the partially open position of the movable furniture part achieved by the ejection apparatus lies within the predetermined effective range of the retraction apparatus.