mhurhangee/ep-ind-claims huggingface dataset:
Method of controlling a drive motor of a lift installation, wherein a lift cage can be moved along a travel path by the drive motor by way of a drive pulley and at least one flexible support means and stopped at stopping point positions of a plurality of stopping points, wherein a movement of the lift cage is detected by a lift control on the basis of signals of a rotary encoder coupled with a rotational movement of the drive motor or the drive pulley, before the start of travel of the lift cage a movement course in the form of a travel/speed profile (20.1, 20.2, 20.6, 20.7) for travel of the lift cage from a instantaneous lift cage position to a destination stopping point position is calculated, and anticipated slip between the drive pulley and the support means is included in the calculation of the travel/speed profile (20.1, 20.2, 20.6, 20.7) and during travel of the lift cage a rotational movement of the drive motor and thus of the drive pulley is controlled by the lift control in dependence on the calculated travel/speed profile (20.1, 20.2, 20.6, 20.7) and on signals of the rotary encoder.
A mounting aid means for producing a screw connection between an electric plug- or bushing part and a connecting body, having - a first section extending along a main axis of the mounting aid means and - a second section connecting along the main axis to the first section, which - with respect to the rotational movement about the main axis - is connected in a rotationally fixed manner to the first section, wherein the first section has an engagement surface for a torque wrench for a rotation about the main axis, characterized in that the second section has at least two accommodating regions (4, 6) for the positive-fit accommodation in each case of one contact element of the electric plug- or bushing part, wherein the accommodation regions (4, 6) in each case are formed by a wall region (5, 7), which extends about an axis (A1, A2) oriented parallel to the main axis, wherein the axes (A1, A2) of the wall regions (5, 7) do not coincide. - a first section extending along a main axis of the mounting aid means and - a second section connecting along the main axis to the first section, which - with respect to the rotational movement about the main axis - is connected in a rotationally fixed manner to the first section, wherein the first section has an engagement surface for a torque wrench for a rotation about the main axis,
An automatic lid boxing system which enables lids to be automatically filled into cardboard boxes conforming to the form of the lids, characterized in that said automatic lid boxing system comprises - a box arranging mould in which the cardboard boxes are placed in the gaps on the upper surface thereof, - a motion bearing to which the box arranging mould, in which the cardboard boxes are placed, is connected in a way to be able to move upward and downward, - a linear bearing system which allows the box arranging mould to move upward and downward, - a lid level adjustment tray which automatically adjusts the fall level of the lids which are cut and fall into the cardboard boxes. - a box arranging mould in which the cardboard boxes are placed in the gaps on the upper surface thereof, - a motion bearing to which the box arranging mould, in which the cardboard boxes are placed, is connected in a way to be able to move upward and downward, - a linear bearing system which allows the box arranging mould to move upward and downward, - a lid level adjustment tray which automatically adjusts the fall level of the lids which are cut and fall into the cardboard boxes.
A safety release system (S R) of a vehicle, wherein the safety release system (S R) is part of a side impact restraint protection system and arranged for releasing a connection between a first side safety structure and a connecting device of the side impact restraint protection system after a vehicle impact event, wherein the first side safety structure is arranged in connection to a first side door of the vehicle, and wherein the safety release system (S R) is configured for enabling opening of the first side door after the vehicle impact event, wherein the safety release system (S R) is arranged between the first side safety structure and the connecting device, wherein the connecting device is configured for releasably attaching the first side safety structure to a side impact restraint protection system member connected to a vehicle body structure, wherein the safety release system (S R) comprises a releasing mechanism and a releasing member detachable from each other, wherein the safety release system (S R) is configured for being arranged in a first state where the releasing mechanism and the releasing member are connected to each other and a second state where the releasing mechanism and the releasing member are disconnected from each other. wherein the safety release system (S R) is arranged between the first side safety structure and the connecting device, wherein the connecting device is configured for releasably attaching the first side safety structure to a side impact restraint protection system member connected to a vehicle body structure, wherein the safety release system (S R) comprises a releasing mechanism and a releasing member detachable from each other, wherein the safety release system (S R) is configured for being arranged in a first state where the releasing mechanism and the releasing member are connected to each other and a second state where the releasing mechanism and the releasing member are disconnected from each other.
A leak resistant compliant bushing comprising: a body having a first end, a second end, an outer surface and an inner surface defining a passage, the outer surface and the inner surface extending between the first end and the second end and defining an axial axis; a first plurality of channels extending into the body from the first end, each of the first plurality of channels including a terminal end that is spaced from the second end, each of the first plurality of channels including a first central axis that extends from the first end through the terminal end; and a second plurality of through-thickness channels extending into the body from the second end, each of the second plurality of channels extending between adjacent ones of the first plurality of channels and including a terminal end section that is spaced from the first end, each of the second plurality of channels including a second central axis that extends from the second end through the terminal end, characterised in that each of the first central axis and the second central axis extends across the body at a non-zero angle relative to the axial axis. a body having a first end, a second end, an outer surface and an inner surface defining a passage, the outer surface and the inner surface extending between the first end and the second end and defining an axial axis; a first plurality of channels extending into the body from the first end, each of the first plurality of channels including a terminal end that is spaced from the second end, each of the first plurality of channels including a first central axis that extends from the first end through the terminal end; and a second plurality of through-thickness channels extending into the body from the second end, each of the second plurality of channels extending between adjacent ones of the first plurality of channels and including a terminal end section that is spaced from the first end, each of the second plurality of channels including a second central axis that extends from the second end through the terminal end, characterised in that each of the first central axis and the second central axis extends across the body at a non-zero angle relative to the axial axis.
An integrated circuit, comprising: first, second, and third plane-like metal layers, wherein the second plane-like metal layer is located above the first plane-like metal layer and below the third plane-like metal layer; a first transistor having a first control terminal, a first terminal that communicates with said third plane-like metal layer and a second terminal that communicates with said first plane-like metal layer; a second transistor having a second control terminal, a third terminal that communicates with said first plane-like metal layer and a fourth terminal that communicates with said second plane-like metal layer; and a fourth plane-like metal layer being a top layer above the third plane-like metal layer that includes first, second and third contact portions that communicate with said third plane-like metal layer, said first plane-like metal layer and said second plane-like metal layer, respectively, wherein, in a plan view, said first and third contact portions have a base portion (204, 214) and wings (202, 212) that extend from said base portion, and wherein said second contact portions extend between said wings of said first and third contact portions in an interleaved manner without contacting said first and third contact portions, wherein said first, second and third contact portions each substantially cover approximately 1/3 an underlying area defined by said first and second transistors less an area between said first, second and third contact portions. first, second, and third plane-like metal layers, wherein the second plane-like metal layer is located above the first plane-like metal layer and below the third plane-like metal layer; a first transistor having a first control terminal, a first terminal that communicates with said third plane-like metal layer and a second terminal that communicates with said first plane-like metal layer; a second transistor having a second control terminal, a third terminal that communicates with said first plane-like metal layer and a fourth terminal that communicates with said second plane-like metal layer; and a fourth plane-like metal layer being a top layer above the third plane-like metal layer that includes first, second and third contact portions that communicate with said third plane-like metal layer, said first plane-like metal layer and said second plane-like metal layer, respectively, wherein, in a plan view, said first and third contact portions have a base portion (204, 214) and wings (202, 212) that extend from said base portion, and wherein said second contact portions extend between said wings of said first and third contact portions in an interleaved manner without contacting said first and third contact portions, wherein said first, second and third contact portions each substantially cover approximately 1/3 an underlying area defined by said first and second transistors less an area between said first, second and third contact portions.
A tank unit for supplying liquid from the outside of a liquid ejecting apparatus to the liquid ejecting apparatus, comprising: two or more liquid accommodating containers disposed in a row, wherein each of the liquid accommodating containers includes a liquid accommodating chamber for accommodating the liquid, which is formed by a container main body of a concave shape, one side face of which is open, and a film which is attached to the container main body so as to cover the opening, wherein: the container main body includes a facing wall surface portion which faces the film across the liquid accommodating chamber and has a wall surface larger than the opening, and two or more of the liquid accommodating containers are disposed such that the film of one liquid accommodating container is covered by the facing wall surface portion of the adjacent liquid accommodating container. two or more liquid accommodating containers disposed in a row, wherein each of the liquid accommodating containers includes a liquid accommodating chamber for accommodating the liquid, which is formed by a container main body of a concave shape, one side face of which is open, and a film which is attached to the container main body so as to cover the opening, wherein: the container main body includes a facing wall surface portion which faces the film across the liquid accommodating chamber and has a wall surface larger than the opening, and two or more of the liquid accommodating containers are disposed such that the film of one liquid accommodating container is covered by the facing wall surface portion of the adjacent liquid accommodating container. the container main body includes a facing wall surface portion which faces the film across the liquid accommodating chamber and has a wall surface larger than the opening, and two or more of the liquid accommodating containers are disposed such that the film of one liquid accommodating container is covered by the facing wall surface portion of the adjacent liquid accommodating container.
Use of a metal matrix made of silver, in which photocatalytically active titanium dioxide in the form of particles is incorporated, as a self-cleaning silver surface in the interior of a vehicle.
A method for manufacturing a fuel cell comprising: applying a sacrificial material periodically to a surface of an anode substrate, wherein at least some areas of the anode substrate have no sacrificial material; applying a first gas diffusion layer to the sacrificial material; applying a first catalyst material to the first gas diffusion layer; applying a polymere electrolyte material to the anode substrate and the first gas diffusion layer with the first catalyst material, wherein a first surface of the polymere electrolyte material is in operative association with the anode substrate and the first gas diffusion layer with the first catalyst material; applying a second catalyst material to the polymere electrolyte material on a second surface of the polymere electrolyte material, wherein a first surface of the second catalyst material is in contact with the second surface of the polymere electrolyte material; applying a second gas diffusion layer to the polymere electrolyte material with the second catalyst material; applying a cathode to the second gas diffusion layer with the second catalyst material; and removing the sacrificial material from the surface of the anode substrate to expose integrated gas channels for the anode substrate of a monolithically constructed fuel cell. applying a sacrificial material periodically to a surface of an anode substrate, wherein at least some areas of the anode substrate have no sacrificial material; applying a first gas diffusion layer to the sacrificial material; applying a first catalyst material to the first gas diffusion layer; applying a polymere electrolyte material to the anode substrate and the first gas diffusion layer with the first catalyst material, wherein a first surface of the polymere electrolyte material is in operative association with the anode substrate and the first gas diffusion layer with the first catalyst material; applying a second catalyst material to the polymere electrolyte material on a second surface of the polymere electrolyte material, wherein a first surface of the second catalyst material is in contact with the second surface of the polymere electrolyte material; applying a second gas diffusion layer to the polymere electrolyte material with the second catalyst material; applying a cathode to the second gas diffusion layer with the second catalyst material; and removing the sacrificial material from the surface of the anode substrate to expose integrated gas channels for the anode substrate of a monolithically constructed fuel cell.
An insert part and base plate for an orthodontic bracket; wherein a first edge of the base plate forms a region which is crimped by more than 180° and less than 360° in order to form a hinge bearing for receiving a flap, and a second edge of the base plate which is opposite to the first edge is crimped by 180° to form a crimped region which, with the aid of the insert part (250, 260), serves to centrally guide and/or retain an orthodontic arch wire (300 - 303); wherein the insert part (250, 260) can be interchangeably inserted into the base plate in order to guide and/or retain the arch wire (300 - 303); wherein the insert part (250, 260) has an extension (251, 261) the shape of which is such that it fits into a bent region of the second edge of the base plate in a positive locking and/or non-positive locking manner; wherein the insert part (250, 260) has a retaining extension which is formed opposite to the extension and which engages with the first edge of the base plate, when the insert part (250, 260) has been inserted.
A preparation comprising inactivated tumour cells or membrane portions thereof, wherein said cells or membrane portions are derived from a CTV-1 myeloid leukaemia cell line, for use in a method of treating cancer which comprises introducing into a patient said preparation, for priming NK cells of the patient in vivo.
A pipe connecting system comprising: a first pipe and a second pipe, each comprising a flared end (2a, 3a); a connecting block having a first side intended to receive the first pipe and the second pipe, and a second side opposite the first side and intended to receive a third pipe and a fourth pipe, wherein the connecting block comprises a first block part and a second block part made of plastics material and configured to be fastened to each other around the flared ends (2a, 3a) of the first pipe and second pipe; wherein one of said first block part and second block part comprises a plurality of hook-shaped lateral retaining portions configured to engage respective lateral edges of the other of said first block part and second block part in such a way as to fasten the first block part and the second block part to each other; wherein the first pipe and the second pipe each comprise a flanged portion (2b, 3b) arranged close to the respective flared end (2a, 3a); wherein the pipe connecting system further comprises a locking plate which comprises an engaging portion configured to engage simultaneously the flanged portions (2b, 3b) of the first pipe and second pipe, said connecting system being characterized in that the locking plate is made of metal material and is fixable to the connecting block by at least one screw to hold the first pipe and the second pipe between the connecting block and the locking plate. a first pipe and a second pipe, each comprising a flared end (2a, 3a); a connecting block having a first side intended to receive the first pipe and the second pipe, and a second side opposite the first side and intended to receive a third pipe and a fourth pipe, wherein the connecting block comprises a first block part and a second block part made of plastics material and configured to be fastened to each other around the flared ends (2a, 3a) of the first pipe and second pipe; wherein one of said first block part and second block part comprises a plurality of hook-shaped lateral retaining portions configured to engage respective lateral edges of the other of said first block part and second block part in such a way as to fasten the first block part and the second block part to each other; wherein the first pipe and the second pipe each comprise a flanged portion (2b, 3b) arranged close to the respective flared end (2a, 3a); wherein the pipe connecting system further comprises a locking plate which comprises an engaging portion configured to engage simultaneously the flanged portions (2b, 3b) of the first pipe and second pipe, said connecting system being characterized in that the locking plate is made of metal material and is fixable to the connecting block by at least one screw to hold the first pipe and the second pipe between the connecting block and the locking plate.
An image matching method, comprising: an extension step of extending an original reference image into one or more extended reference images, wherein the one or more extended reference images is obtained by deforming the original reference image; an image matching step of image-matching a detected image with candidate reference images that include the original reference image and the one or more extended reference images, wherein, the detected image is an image in a detected image sequence, the detected image sequence comprising images that are continuously detected; a homography matrix calculation step of calculating, based on a result of the image matching, a homography matrix between the detected image and matched original reference image or extended reference image; an imaging direction angle determination step of determining, based on the homography matrix, an imaging direction angle of the detected image; and a selection step of, in a case where image matching is performed on a next detected image in the detected image sequence, selecting, based on the imaging direction angle, one reference image that corresponds to the imaging direction angle in the candidate reference images as a reference image for image matching. an extension step of extending an original reference image into one or more extended reference images, wherein the one or more extended reference images is obtained by deforming the original reference image; an image matching step of image-matching a detected image with candidate reference images that include the original reference image and the one or more extended reference images, wherein, the detected image is an image in a detected image sequence, the detected image sequence comprising images that are continuously detected; a homography matrix calculation step of calculating, based on a result of the image matching, a homography matrix between the detected image and matched original reference image or extended reference image; an imaging direction angle determination step of determining, based on the homography matrix, an imaging direction angle of the detected image; and a selection step of, in a case where image matching is performed on a next detected image in the detected image sequence, selecting, based on the imaging direction angle, one reference image that corresponds to the imaging direction angle in the candidate reference images as a reference image for image matching.
Process for the production of 1,3-butadiene from a feedstock rich in ethanol, i.e. in which the ethanol represents more than 50% of the total weight of said feedstock, comprising at least: A) A stage of conversion of at least said feedstock rich in ethanol and of the ethanol effluent obtained from separation stage B to a conversion effluent comprising a majority of 1,3-butadiene, water and ethylene, and to a hydrogen effluent, operating at a pressure comprised between 0.1 and 1.0 MPa, at a temperature comprised between 300 and 500°C in the presence of at least one catalyst; B) A stage of separation of at least said conversion effluent obtained from A and the hydration effluent obtained from C to at least an ethanol effluent, a butadiene effluent, a water effluent and an ethylene effluent; C) A stage of hydration of the ethylene fed at least by said ethylene effluent and/or said water effluent both obtained from separation stage B, in order to produce a hydration effluent comprising ethanol, said hydration effluent then being recycled to the separation stage B. A) A stage of conversion of at least said feedstock rich in ethanol and of the ethanol effluent obtained from separation stage B to a conversion effluent comprising a majority of 1,3-butadiene, water and ethylene, and to a hydrogen effluent, operating at a pressure comprised between 0.1 and 1.0 MPa, at a temperature comprised between 300 and 500°C in the presence of at least one catalyst; B) A stage of separation of at least said conversion effluent obtained from A and the hydration effluent obtained from C to at least an ethanol effluent, a butadiene effluent, a water effluent and an ethylene effluent; C) A stage of hydration of the ethylene fed at least by said ethylene effluent and/or said water effluent both obtained from separation stage B, in order to produce a hydration effluent comprising ethanol, said hydration effluent then being recycled to the separation stage B.