mhurhangee/ep-ind-claims huggingface dataset:
Device in particular soft-forming device, for attaching edging strips to the narrow side of a plate-shaped workpiece (2, 2') of wood or wood substitutes, wherein the device comprises the following: a machine control unit; a supply device which is configured to supply an edging strip into an edging strip application device (50, 60) which is governed by the machine control unit; at least two edging strip application devices (50, 60) which are each configured to activate an edging strip supplied by the supply device by means of applying adhesive or glue to the joining side or by smelting on the joining side, and then pressing it against the narrow side of the workpiece (2, 2') in particular by means of at least one pressing roller (51, 61) and a movement device which is configured to move workpieces (2, 2') in at least one direction relative to the edging strip application devices (50, 60), characterised in that the device comprises an edging strip magazine for stocking and/or supplying a plurality of edging strips, from which the supply device removes edging strips, and the supply device comprises a branching means and edging strip supply paths (42, 43) arranged between the branching means and each edging strip application device (50, 60), wherein the branching means is designed to guide an edging strip, which comes from the edging strip magazine and is supplied to the supply device, to an edging strip supply path (42, 43) which is predetermined by the machine control unit. a machine control unit; a supply device which is configured to supply an edging strip into an edging strip application device (50, 60) which is governed by the machine control unit; at least two edging strip application devices (50, 60) which are each configured to activate an edging strip supplied by the supply device by means of applying adhesive or glue to the joining side or by smelting on the joining side, and then pressing it against the narrow side of the workpiece (2, 2') in particular by means of at least one pressing roller (51, 61) and a movement device which is configured to move workpieces (2, 2') in at least one direction relative to the edging strip application devices (50, 60), characterised in that the device comprises an edging strip magazine for stocking and/or supplying a plurality of edging strips, from which the supply device removes edging strips, and the supply device comprises a branching means and edging strip supply paths (42, 43) arranged between the branching means and each edging strip application device (50, 60), wherein the branching means is designed to guide an edging strip, which comes from the edging strip magazine and is supplied to the supply device, to an edging strip supply path (42, 43) which is predetermined by the machine control unit.
A pitch-controlled wind turbine comprising a rotor including one or more pitchable blades, and detection means for detecting edgewise oscillations in one or more of said blades, control means for changing the pitch angle of one or more of said blades, characterized in that the control means is configured to change the pitch angle of the blades by turning the blades in a direction making the blade chord more parallel with the direction of the relative wind if said detection means detects edgewise oscillations in one or more of said blades, hereby damping or eliminating said edgewise oscillations and wherein said detection means are one or more sensors.
A continuous system comprising: at least one carrier system (10-12, 60-65, 100-105) comprising at least two connecting elements; several transport systems arranged one after the other in the transport direction (z-direction) within a transport plane (x-z-plane), wherein the transport systems each have a cylindrical cam being axially parallel with respect to the transport direction, wherein the cylindrical cams have a central region having a first diameter d 1 and at least a second diameter d 2 at the ends of the cylindrical cams, wherein d 2 < d 1, wherein the distance between two successive central regions of the cylindrical cams is smaller than the distance between the at least two connecting elements of a carrier system (10-12, 60-65, 100-105), wherein in the central region, the cylindrical cams have a helical groove or a helically curved web, and the connecting elements of the carrier system (10-12, 60-65, 100-105) engage interlockingly with the groove of the cylindrical cam or encompass the curved web, wherein the transport systems comprise at least one processing chamber with at least two vacuum locks for a vacuum operation of the processing chamber, wherein the processing chamber comprises an inner chamber wall, wherein the processing chamber comprises a recess in which the cylindrical cam is arranged, wherein a distance a of the cylindrical cam axis relative to the inner chamber wall lies in the range of d 2 /2 < a < d 1 /2, and at least one drive unit for driving the cylindrical cams. at least one carrier system (10-12, 60-65, 100-105) comprising at least two connecting elements; several transport systems arranged one after the other in the transport direction (z-direction) within a transport plane (x-z-plane), wherein the transport systems each have a cylindrical cam being axially parallel with respect to the transport direction, wherein the cylindrical cams have a central region having a first diameter d 1 and at least a second diameter d 2 at the ends of the cylindrical cams, wherein d 2 < d 1, wherein the distance between two successive central regions of the cylindrical cams is smaller than the distance between the at least two connecting elements of a carrier system (10-12, 60-65, 100-105), wherein in the central region, the cylindrical cams have a helical groove or a helically curved web, and the connecting elements of the carrier system (10-12, 60-65, 100-105) engage interlockingly with the groove of the cylindrical cam or encompass the curved web, wherein the transport systems comprise at least one processing chamber with at least two vacuum locks for a vacuum operation of the processing chamber, wherein the processing chamber comprises an inner chamber wall, wherein the processing chamber comprises a recess in which the cylindrical cam is arranged, wherein a distance a of the cylindrical cam axis relative to the inner chamber wall lies in the range of d 2 /2 < a < d 1 /2, and at least one drive unit for driving the cylindrical cams.
A vacuum blender comprising: a blender body including a container support case, an outer container seated on the container support case, a grinding blade, and a blade driving unit rotating the grinding blade; an inner container unit including an inner container which is disposed in the outer container and in which the grinding blade is positioned, and an inner container driving unit rotating the inner container; and a vacuum unit installed in the container support case and configured so that a blending operation for an object to be blended accommodated in the inner container is performed in a vacuum state, wherein the outer container is opened and closed by an outer container cover, the inner container is opened and closed by an inner container cover, and the inner container cover is rotatably assembled to the outer container cover, and a blade rotation shaft of the blade driving unit is installed to be axially rotated in a hollow formed in an inner container rotation shaft of the inner container driving unit, such that the blade rotation shaft and the inner container rotation shaft are axially rotated independently of each other, characterized in that an intermediate rotation shaft unit connecting the blade driving unit and the grinding blade to each other and connecting the inner container driving unit and the inner container to each other is installed in the outer container. a blender body including a container support case, an outer container seated on the container support case, a grinding blade, and a blade driving unit rotating the grinding blade; an inner container unit including an inner container which is disposed in the outer container and in which the grinding blade is positioned, and an inner container driving unit rotating the inner container; and a vacuum unit installed in the container support case and configured so that a blending operation for an object to be blended accommodated in the inner container is performed in a vacuum state, wherein the outer container is opened and closed by an outer container cover, the inner container is opened and closed by an inner container cover, and the inner container cover is rotatably assembled to the outer container cover, and a blade rotation shaft of the blade driving unit is installed to be axially rotated in a hollow formed in an inner container rotation shaft of the inner container driving unit, such that the blade rotation shaft and the inner container rotation shaft are axially rotated independently of each other, characterized in that an intermediate rotation shaft unit connecting the blade driving unit and the grinding blade to each other and connecting the inner container driving unit and the inner container to each other is installed in the outer container.
An orthodontic device-setting tool comprising: a fitting section including a fitting surface that is configured to cover and fit on at least one of an incisal margin, a dental cusp and an occlusal surface of a tooth; a foundation section including a back surface that is configured to adhere closely to a labial/buccal surface or a lingual surface of the tooth, and a front face opposing the back surface, said front face allowing an orthodontic device to be anchored in the front face; and a connecting section that connects the fitting section and the foundation section, wherein the orthodontic device-setting tool includes a frame section that protrudes from the front face of the foundation section, and can fit with the orthodontic device; characterized in that: a shape of the frame section is a shape surrounding the outer edges of the foundation section. a fitting section including a fitting surface that is configured to cover and fit on at least one of an incisal margin, a dental cusp and an occlusal surface of a tooth; a foundation section including a back surface that is configured to adhere closely to a labial/buccal surface or a lingual surface of the tooth, and a front face opposing the back surface, said front face allowing an orthodontic device to be anchored in the front face; and a connecting section that connects the fitting section and the foundation section, wherein the orthodontic device-setting tool includes a frame section that protrudes from the front face of the foundation section, and can fit with the orthodontic device; characterized in that: a shape of the frame section is a shape surrounding the outer edges of the foundation section.
A computer program product comprising program code means for causing a data processing system to perform a method for planning, visualizing, and/ or optimizing a dental restorative work on at least a part of the teeth of a patient when said program code means are executed on the data processing system, said method comprising: providing a facial 3D digital model of at least a part of a face of the patient with at least a part of the patient's pre-prepared teeth being visible and/ or exposed; obtaining at least one 3D digital model of at least a part of prepared teeth, where the prepared teeth have been prepared by dental restorative work; aligning the 3D model of the prepared teeth with the visible teeth in the 3D facial model; and designing at least one dental restoration 3D digital model based on the 3D model of the prepared teeth and at least partly based on the 3D facial model. providing a facial 3D digital model of at least a part of a face of the patient with at least a part of the patient's pre-prepared teeth being visible and/ or exposed; obtaining at least one 3D digital model of at least a part of prepared teeth, where the prepared teeth have been prepared by dental restorative work; aligning the 3D model of the prepared teeth with the visible teeth in the 3D facial model; and designing at least one dental restoration 3D digital model based on the 3D model of the prepared teeth and at least partly based on the 3D facial model.
An electrode for a plasma arc torch comprising: an electrically conductive body having a central axis, a first end and a second end, the conductive body configured to be moveable along the central axis within a swirl ring, the second end of the conductive body configured to receive an emissive element; and a contact element in electrical communication with the first end of the conductive body, the contact element comprising: a proximal end having a head portion having a torch body contact surface configured to receive a torch current from a torch body within the torch, a distal end having a distal portion comprising a neck portion, and a contact surface located between the head portion and the neck portion and configured to provide the torch current to the first end of the conductive body; characterised by the proximal end of the contact element having a feature at an outer circumference of the head portion configured to secure the contact element at an end of the swirl ring, the proximal end of the contact element and the feature creating a surface having a diameter greater than an inner diameter of the swirl ring. an electrically conductive body having a central axis, a first end and a second end, the conductive body configured to be moveable along the central axis within a swirl ring, the second end of the conductive body configured to receive an emissive element; and a contact element in electrical communication with the first end of the conductive body, the contact element comprising: a proximal end having a head portion having a torch body contact surface configured to receive a torch current from a torch body within the torch, a distal end having a distal portion comprising a neck portion, and a contact surface located between the head portion and the neck portion and configured to provide the torch current to the first end of the conductive body; characterised by the proximal end of the contact element having a feature at an outer circumference of the head portion configured to secure the contact element at an end of the swirl ring, the proximal end of the contact element and the feature creating a surface having a diameter greater than an inner diameter of the swirl ring.
Contact element made of an electrically conductive contact material for producing an electrically conductive connection, with a plug-side end for plugging together with a complementary mating-contact element, in particular a socket, and a conductor-side end on which an electrical conductor can be fastened, wherein a plug-side cross-width of the contact element is greater than a conductor-side cross-width, wherein at least one fold-over layer of the contact material is present at the plug-side end, and a multilayer region of the contact material which is made from at least two contact layers is formed at the plug-side end by way of the fold-over layer, and wherein at least one projecting locking arm extends from the plug-side end in the direction of the conductor-side end, wherein the locking arm has a base at its plug-side end and a free locking arm end at the conductor-side end, and with a reinforcement region which extends behind the multilayer region in the direction of the conductor-side end, wherein the reinforcement region is formed from at least two reinforcement layers, characterized in that the reinforcement region comprises at least one securing element for preventing the locking arm from bending towards the contact element.
A method for controlling an automatic gearbox of a vehicle provided with a power train and a speed control system having a programmable set speed, said method consisting in determining a gear to be engaged in said gearbox as a function of a maximum acceleration of said vehicle for a gear that is currently engaged in said gearbox, a current speed of said vehicle, a programmed set speed of said system, and an acceleration value requested by said system, the method including a step (ii) consisting in determining a set acceleration as a function of said acceleration value requested by the system, of a maximum set acceleration, itself a function of said maximum acceleration of the vehicle for the gear that is currently engaged in said gearbox, and of a comfort acceleration of said vehicle, said method being characterized in that in said step (ii) said comfort acceleration of the vehicle is determined as a function of said current speed of the vehicle and of said programmed set speed of the system.
Method for operating a rail-free land vehicle having an internal combustion engine and a transmission which is configured to select different transmission ratios and is coupled on the input side to an output shaft of the internal combustion engine by means of at least one clutch and is connected on the output side to the drive wheels of the land vehicle, wherein in a sailing mode of the land vehicle, in which the land vehicle rolls in a drive-free fashion with the internal combustion engine switched off and the clutch opened, the internal combustion engine is tow-started by closing the clutch, characterized in that the internal combustion engine constitutes the only drive assembly of the land vehicle, and in that the tow-starting comprises at least three method steps which occur in chronological succession, specifically: - a first method step in which the clutch is closed from its opened state, in a controlled fashion, with a first torque gradient at least until its clutch torque exceeds the drag torque of the internal combustion engine, - a second method step in which the clutch is controlled further with a second torque gradient which is less steep than the first torque gradient, at least until the rotational speed of the internal combustion engine exceeds a resonance rotational speed of a two-mass flywheel which two-mass flywheel is arranged between the clutch and the output shaft of the internal combustion engine, and - a third method step in which the clutch is closed completely in a closed-loop controlled fashion in such a way that the rotational speed of the internal combustion engine is approximated without discontinuity to the input-side rotational speed of the transmission. - a first method step in which the clutch is closed from its opened state, in a controlled fashion, with a first torque gradient at least until its clutch torque exceeds the drag torque of the internal combustion engine, - a second method step in which the clutch is controlled further with a second torque gradient which is less steep than the first torque gradient, at least until the rotational speed of the internal combustion engine exceeds a resonance rotational speed of a two-mass flywheel which two-mass flywheel is arranged between the clutch and the output shaft of the internal combustion engine, and - a third method step in which the clutch is closed completely in a closed-loop controlled fashion in such a way that the rotational speed of the internal combustion engine is approximated without discontinuity to the input-side rotational speed of the transmission.
Self-adhesive balancing weight (10, 20, 30) for a vehicle wheel having a top surface and a bottom surface, the bottom surface being an attachment surface with a self-adhesive tape, the bottom surface has a first curved section with a first radius, a second curved section with a second radius and a third curved section with a third radius, the self-adhesive tape is on the first curved section, on the second curved section and on the third curved section, the first radius is smaller than the second radius, and the first, second and third curved sections are convex shaped.
Process for filling tanks with pressurized gas, in particular pressurized hydrogen, via a filling station comprising at least one source (2, 3, 4) of pressurized gas and a fluid circuit for the transfer of the gas from the at least one source to the tanks, the circuit comprising a first end connected to the at least one gas source (2, 3, 4) and a second end provided with a transfer pipe intended to be joined in removable fashion to the tanks to be filled, the circuit comprising, positioned between the first end and the second end, a first isolation valve, a member for regulation of flow rate or pressure, and a second isolation valve, the process comprising the successive filling of a first tank and then of a second tank, the process comprising, between the filling of the first tank and the filling of the second tank, a leaktightness test on the second tank joined in leaktight fashion to the second end of the circuit, the leak test comprising placing the second tank under pressure via the opening of the second valve, at the end of the filling of the first tank, the first and second isolation valves being closed in order to trap a supply of pressurized gas in the circuit between these two valves (7, 11), characterized in that it comprises a measurement of the pressure of the supply of gas trapped in the circuit between these two valves (7, 11) and, when this measured pressure is greater than a predetermined threshold, the leak test on the second tank is carried out with the gas supply via the opening of the second valve and, when this measured pressure is lower than the predetermined threshold, the process comprises a stage of filling the circuit between the two valves (7, 11) with the gas source (2, 3, 4) via an opening of the first valve, a stage of closing of the first valve, and, when this measured pressure in the circuit between these two valves (7, 11) reaches or exceeds the predetermined threshold, the leak test on the second tank is subsequently carried out with the gas supply via the opening of the second valve.
A humanized antibody comprising a heavy chain variable region and a light chain variable region, wherein: the heavy chain variable region comprises an amino acid sequence as set forth in SEQ ID NO: 46; the light chain variable region comprises an amino acid sequence as set forth in SEQ ID NO: 66; and the humanized antibody binds amyloid beta oligomers. the heavy chain variable region comprises an amino acid sequence as set forth in SEQ ID NO: 46; the light chain variable region comprises an amino acid sequence as set forth in SEQ ID NO: 66; and the humanized antibody binds amyloid beta oligomers.