mhurhangee/patent-ind-claim-en huggingface dataset:
A method for digital coating three-dimensional workpiece surfaces, wherein the coating takes place by means of a relative movement of a print head relative to the surface of the workpiece and ejection of a coating agent from the print head towards the workpiece surface, comprising at least the method steps: a) Providing one or more identical workpieces with a three-dimensional workpiece surface profile; b) Determining a target trajectory of the print head over the area of the three-dimensional workpiece surface to be coated, the determination of the target trajectory comprising at least the location- and time-dependent control data for moving the print head on the target trajectory; c) Single or multiple movement of the print head by means of the control data of the target trajectory defined in process step b) and determination of the time- and location-resolved actual position of the print head along the actual trajectory by means of a sensor without ejection of a coating agent; d) Providing target printhead data corresponding to the target trajectory and adapting the target to actual printhead data, the adaptation of the printhead data comprising at least the time and/or location differences between the actual and target trajectories; and e) Moving the print head and coating the workpiece surface while ejecting a coating agent, whereby the print head is moved in accordance with the control data of the target trajectory from process step b) and the coating agent is ejected using the adapted actual print head data from process step d); whereby process step e) is carried out one or more times on identical workpieces, whereby no further adjustment of the control data of the target trajectory is carried out, irrespective of the other actual positions of the print head on the respective trajectories. a) Providing one or more identical workpieces with a three-dimensional workpiece surface profile; b) Determining a target trajectory of the print head over the area of the three-dimensional workpiece surface to be coated, the determination of the target trajectory comprising at least the location- and time-dependent control data for moving the print head on the target trajectory; c) Single or multiple movement of the print head by means of the control data of the target trajectory defined in process step b) and determination of the time- and location-resolved actual position of the print head along the actual trajectory by means of a sensor without ejection of a coating agent; d) Providing target printhead data corresponding to the target trajectory and adapting the target to actual printhead data, the adaptation of the printhead data comprising at least the time and/or location differences between the actual and target trajectories; and e) Moving the print head and coating the workpiece surface while ejecting a coating agent, whereby the print head is moved in accordance with the control data of the target trajectory from process step b) and the coating agent is ejected using the adapted actual print head data from process step d);
Apparatus for tracking a movable target , in particular tissue , the apparatus comprising at least one applicator for marking the target with at least one type of markers , and at least one tracking system which is adapted for monitoring at least the at least one type of markers , characterized in that the at least one applicator is adapted for generating a randomly distributed pattern of markers on the target , and for providing at least one type of markers by spraying the at least one type of markers on the target .
Combination of a hospital bed and a bed cover , wherein the hospital bed comprises a pedestal frame , a mattress support frame supported by the pedestal frame , a mattress supported by the mattress support frame and a headboard and a footboard provided on opposite ends of the mattress support frame , wherein the bed cover is made of a sheet like material and covers the footboard , the headboard , the mattress and the mattress support frame such that the bed cover extends from the top of the bed down past the mattress , and wherein the bed cover is provided with a fastening device along its periphery that releasably fastens the bed cover on the bed by cinching the periphery of the bed cover below the mattress support frame, such that the bed cover provides a barrier between at least the top part of the mattress support frame , the footboard , the headboard and the mattress on one side of the bed cover and the surroundings of the bed on the other side of the bed cover ; wherein the bed cover is dimensioned such that it spans the mattress and bedding from footboard to headboard, such that a central section of the bed cover stays free form the top of the mattress and a space is provided between the top of the mattress and the bedding provided thereupon and the bed cover; wherein the fastening device comprises a cinching cord provided along its contour, for cinching the periphery of the cover against and below the mattress support frame ; wherein the bed cover is a disposable cover made of paper, fiber material or artificial material, such as a flexible plastic composite foil material. the hospital bed comprises a pedestal frame , a mattress support frame supported by the pedestal frame , a mattress supported by the mattress support frame and a headboard and a footboard provided on opposite ends of the mattress support frame , wherein the bed cover is made of a sheet like material and covers the footboard , the headboard , the mattress and the mattress support frame such that the bed cover extends from the top of the bed down past the mattress , and wherein the bed cover is provided with a fastening device along its periphery that releasably fastens the bed cover on the bed by cinching the periphery of the bed cover below the mattress support frame, such that the bed cover provides a barrier between at least the top part of the mattress support frame , the footboard , the headboard and the mattress on one side of the bed cover and the surroundings of the bed on the other side of the bed cover ; wherein the bed cover is dimensioned such that it spans the mattress and bedding from footboard to headboard, such that a central section of the bed cover stays free form the top of the mattress and a space is provided between the top of the mattress and the bedding provided thereupon and the bed cover; wherein the fastening device comprises a cinching cord provided along its contour, for cinching the periphery of the cover against and below the mattress support frame ; wherein the bed cover is a disposable cover made of paper, fiber material or artificial material, such as a flexible plastic composite foil material.
A method for separation of fibers comprising the steps of: a) providing a mixture comprising cellulose fibers and non-cellulose fibers, b) reducing the cellulose chain length of the cellulose fibers so that the limiting viscosity number determined according to ISO 5351 is in the interval 200-900 ml/g, c) subjecting the mixture of fibers to mechanical treatment to break agglomerates of fibers into smaller pieces, d) adjusting the concentration of fibers in the mixture so that it is in the interval 0.1-4 wt% fibers calculated by weight, and e) subjecting the mixture to flotation to remove the non-cellulose fibers. a) providing a mixture comprising cellulose fibers and non-cellulose fibers, b) reducing the cellulose chain length of the cellulose fibers so that the limiting viscosity number determined according to ISO 5351 is in the interval 200-900 ml/g, c) subjecting the mixture of fibers to mechanical treatment to break agglomerates of fibers into smaller pieces, d) adjusting the concentration of fibers in the mixture so that it is in the interval 0.1-4 wt% fibers calculated by weight, and e) subjecting the mixture to flotation to remove the non-cellulose fibers.
A leveling foot device for leveling a structure, comprising a spring arranged to expand the device to fill a gap between the structure to be leveled and a surface, characterized in that the foot comprises: a. a base section , b. a hollow column extending upwardly from the base section , c. a spring arranged in the hollow column , d. a movable top piece arranged to engage with the hollow column , said top piece movable in the vertical direction, wherein said top piece has an internal cavity for receiving the hollow column when the top piece is pressed downward against the force of spring , e. the movable top piece is equipped with one or more side walls , said side walls having a lower angled surface , f. a generally U-shaped wedge device having two legs , the distance between the legs corresponding to the width of the hollow column , the upper surface of which legs are wedge shaped, having an angle that corresponds with the angle of the lower surface of the side walls , and g. locking means for locking the U-shaped wedge device into locked engagement with the hollow column , whereby, when under load, the top piece is pressed downward such that the angled lower surface of the side walls rest upon the angled upper surface of the legs of the U-shaped wedge device . a. a base section , b. a hollow column extending upwardly from the base section , c. a spring arranged in the hollow column , d. a movable top piece arranged to engage with the hollow column , said top piece movable in the vertical direction, wherein said top piece has an internal cavity for receiving the hollow column when the top piece is pressed downward against the force of spring , e. the movable top piece is equipped with one or more side walls , said side walls having a lower angled surface , f. a generally U-shaped wedge device having two legs , the distance between the legs corresponding to the width of the hollow column , the upper surface of which legs are wedge shaped, having an angle that corresponds with the angle of the lower surface of the side walls , and g. locking means for locking the U-shaped wedge device into locked engagement with the hollow column ,
A computer-implemented method of generating a 3D model of a real-world environment, comprising: creating a three-dimensional volume in a memory device for storing the model, the volume comprising a plurality of voxels ; receiving data describing a location and orientation of a capture device and a depth image of at least a portion of the environment output from the capture device , the depth image comprising a plurality of pixels, each indicating a distance from the capture device to a point in the environment; assigning a separate execution thread to each voxel in a plane of the volume ; each execution thread using the capture device location and orientation to determine a corresponding location in the depth image for its associated voxel, determining a factor relating to the distance between the associated voxel and the point in the environment at the corresponding location, and updating a stored value at the associated voxel using the factor; and each execution thread iterating through an equivalent voxel, where equivalent voxels have the same x,y coordinate, in each remaining plane of the volume and repeating the steps of determining the factor and updating the stored value for each voxel. creating a three-dimensional volume in a memory device for storing the model, the volume comprising a plurality of voxels ; receiving data describing a location and orientation of a capture device and a depth image of at least a portion of the environment output from the capture device , the depth image comprising a plurality of pixels, each indicating a distance from the capture device to a point in the environment; assigning a separate execution thread to each voxel in a plane of the volume ; each execution thread using the capture device location and orientation to determine a corresponding location in the depth image for its associated voxel, determining a factor relating to the distance between the associated voxel and the point in the environment at the corresponding location, and updating a stored value at the associated voxel using the factor; and each execution thread iterating through an equivalent voxel, where equivalent voxels have the same x,y coordinate, in each remaining plane of the volume and repeating the steps of determining the factor and updating the stored value for each voxel.
Adapter for holding a dental implant, comprising a first end , a second end , and a longitudinal axis comprising: - a surgical section , provided at the first end for connecting to a surgical device - an engagement section provided at the second end adapted to engage an insertion device - a support section for connecting to a dental implant retainer - wherein the surgical section on the side of the first end comprises force or torque transmission means for the surgical device and - wherein on the first end an attachment element for a removable connection to the dental implant is placed, wherein the support section comprising an at least partially non-circular shape and is arranged in a recess formed on the outer surface of the adapter , wherein the adapter is made of metal or a metal alloy or any combination of metals and/or metal alloys and the attachment element comprises at least two, preferably three, spring elements . - a surgical section , provided at the first end for connecting to a surgical device - an engagement section provided at the second end adapted to engage an insertion device - a support section for connecting to a dental implant retainer - wherein the surgical section on the side of the first end comprises force or torque transmission means for the surgical device and - wherein on the first end an attachment element for a removable connection to the dental implant is placed,
A cable adaptor case comprising: a cable tray configured to hold a plurality of cables; and an adaptor tray removably attached to the cable tray, wherein a back of the cable tray comprises a plurality of steps configured to hold the plurality of cables; a plurality of cable clips removably attached to the cable tray and configured to secure the plurality of cables to the cable tray; a lid removably attached to the cable tray, the lid being configured to snap into place and maintain compression of the plurality of cable clips; and wherein the adaptor tray comprises a plurality of adaptors configured to connect the plurality of cables. a cable tray configured to hold a plurality of cables; and an adaptor tray removably attached to the cable tray, wherein a back of the cable tray comprises a plurality of steps configured to hold the plurality of cables; a plurality of cable clips removably attached to the cable tray and configured to secure the plurality of cables to the cable tray; a lid removably attached to the cable tray, the lid being configured to snap into place and maintain compression of the plurality of cable clips; and wherein the adaptor tray comprises a plurality of adaptors configured to connect the plurality of cables.
A apparatus for controlled local heating a target surface of a substrate , the apparatus comprising a carrier having a carrier surface for carrying the substrate at a carried surface opposite the target surface, the carrier having a plurality of laterally distributed heating zones (30, 30a, 30b,..., 30n) which are thermally insulated from each other, the respective heating zones comprising respective resistive heating elements (32, 32a, 32b,..., 32n) and being thermally coupled to a heat sink , a controller to control a selective supply of electric energy to at least one of the respective resistive heating elements comprised in at least one of the plurality of laterally distributed heating zones, characterized in that the plurality of laterally distributed heating zones (30, 30a, 30b,..., 30n) are thermally insulated from each other in that the carrier defines slits that at least extend along portions of boundaries between mutually neighboring heating zones, the slits being in communication with an evacuation channel . a carrier having a carrier surface for carrying the substrate at a carried surface opposite the target surface, the carrier having a plurality of laterally distributed heating zones (30, 30a, 30b,..., 30n) which are thermally insulated from each other, the respective heating zones comprising respective resistive heating elements (32, 32a, 32b,..., 32n) and being thermally coupled to a heat sink , a controller to control a selective supply of electric energy to at least one of the respective resistive heating elements comprised in at least one of the plurality of laterally distributed heating zones, characterized in that the plurality of laterally distributed heating zones (30, 30a, 30b,..., 30n) are thermally insulated from each other in that the carrier defines slits that at least extend along portions of boundaries between mutually neighboring heating zones, the slits being in communication with an evacuation channel .
An instrument for laser surgery, comprising: a cladding having a first refractive index; a fiber optic core coaxially disposed within the cladding and having a second refractive index that is higher than the first refractive index, the proximal end of the fiber optic core being configured to operatively engage with a source of laser energy; the distal portion of the fiber optic core defining a fiber optic tip configured to extend outwardly from the cladding; and a plurality of refracting surfaces formed in the fiber tip around a longitudinal axis of the fiber optic tip, each refracting surface being formed at least at an angle relative to the longitudinal axis and configured to disperse the laser energy in a radial pattern; wherein each one of the plurality of refracting surfaces includes a concave lens defined in the fiber optic tip. a cladding having a first refractive index; a fiber optic core coaxially disposed within the cladding and having a second refractive index that is higher than the first refractive index, the proximal end of the fiber optic core being configured to operatively engage with a source of laser energy; the distal portion of the fiber optic core defining a fiber optic tip configured to extend outwardly from the cladding; and a plurality of refracting surfaces formed in the fiber tip around a longitudinal axis of the fiber optic tip, each refracting surface being formed at least at an angle relative to the longitudinal axis and configured to disperse the laser energy in a radial pattern; wherein each one of the plurality of refracting surfaces includes a concave lens defined in the fiber optic tip.
Gravity bending mould for bending glass panes, comprising a frame-like support surface that is suitable for arranging a glass pane (I) thereon and that has an outer edge and an inner edge wherein the support surface has an outer region facing the outer edge , an inner region facing the inner edge , and a central region between the outer region and the inner region , and wherein the outer region is planar and horizontal, the central region is inclined toward the inner edge and is planar or curved, and the inner region has a curvature in the opposite direction to the curvature of the glass pane (I), and wherein the inner region is more strongly curved than the central region .
An electrodeposited copper foil comprising a drum side and a deposited side; wherein both the drum side and the deposited side have a ten-point average roughness Rz lower than or equal to 2 μm, and wherein when the electrodeposited copper foil is subjected to a thermal gravimetric analysis (TGA), the electrodeposited copper foil exhibits a primary weight increase of 105 wt% when a primary temperature (T 105wt% ) is reached during the TGA, wherein the T 105wt% is in a range of 350 °C to 501 °C, and wherein the TGA comprises heating at a rate of 5 °C/min and an air flow at a rate of 95 mL/min. wherein both the drum side and the deposited side have a ten-point average roughness Rz lower than or equal to 2 μm, and wherein when the electrodeposited copper foil is subjected to a thermal gravimetric analysis (TGA), the electrodeposited copper foil exhibits a primary weight increase of 105 wt% when a primary temperature (T 105wt% ) is reached during the TGA, wherein the T 105wt% is in a range of 350 °C to 501 °C, and wherein the TGA comprises heating at a rate of 5 °C/min and an air flow at a rate of 95 mL/min.
A method of forming a laminate shell , comprising: • placing a laminate onto a hinged platen in a forming tool; • heating the laminate; • moving a first movable section and second movable section of the hinged platen toward a core of the forming tool, and decreasing a distance between the core and an intermediate section of the hinged platen, such that the laminate bends to form the shell; • cooling the shell; and • removing the shell from the forming tool wherein the laminate is formed by a method comprising: • feeding fiber structure and resin film to a heated belt to form layup; • increasing a temperature and the pressure to flow the resin into the fiber structure to form the laminate; and • cooling the laminate. • placing a laminate onto a hinged platen in a forming tool; • heating the laminate; • moving a first movable section and second movable section of the hinged platen toward a core of the forming tool, and decreasing a distance between the core and an intermediate section of the hinged platen, such that the laminate bends to form the shell; • cooling the shell; and • removing the shell from the forming tool • feeding fiber structure and resin film to a heated belt to form layup; • increasing a temperature and the pressure to flow the resin into the fiber structure to form the laminate; and • cooling the laminate.
Clutch/torsional vibration damper assembly for a hybrid drive train of a motor vehicle, having a torsional vibration damper which has two rotary parts which are connected to one another fixedly so as to rotate together, a first rotary part being prepared for being connected fixedly to an output shaft of an internal combustion engine so as to rotate with it, and a second rotary part being arranged such that it can be damped in a rotational movement relative to the first rotary part , a clutch device which is attached to the second rotary part by way of a first clutch constituent part which, in an engaged position of the clutch device , is connected fixedly to a second clutch constituent part so as to rotate with it, and a leaf spring unit which is attached in the second clutch constituent part in such a way that an additional axial pressing force for pressing the clutch constituent parts onto one another is introduced by way of the said leaf spring unit in a first rotational direction of the first clutch constituent part relative to the second clutch constituent part , characterized in that the first clutch constituent part has at least one friction disc which is received on a radial inner side of a sleeve region of the second rotary part fixedly so as to rotate with it and such that it can be displaced in the axial direction.