mhurhangee/patent-ind-claim-en huggingface dataset:
Coiling device, wherein the coiling device comprises - a coiler having a coiling mandrel for coiling a metal strip which is fed in a feed direction (x) to the coiler , - a coiling swing arm having a rear pressure roller , a front pressure roller and a deflection plate , - a swing arm drive by means of which the coiling swing arm can be lined up with the coiling mandrel and driven away from the coiling mandrel , - an upper duct flap which is arranged upstream of the coiler as seen in the feed direction (x) for the purpose of guiding the metal strip to the coiler , and - a flap drive by means of which the upper duct flap can be positioned in such a way that, when the coiling swing arm is lined up with the coiling mandrel , said upper duct flap is arranged upstream of the front pressure roller of the coiling swing arm as seen in the feed direction (x), with the result that the metal strip is deflected around the coiling mandrel by the front pressure roller , the rear pressure roller and the deflection plate of the coiling swing arm , characterized in that , by means of the flap drive , the upper duct flap can alternatively be positioned in such a way that, when the coiling swing arm is lined up with the coiling mandrel , said upper duct flap is arranged between the coiling mandrel and the front pressure roller of the coiling swing arm , with the result that the metal strip is deflected around the coiling mandrel only by the rear pressure roller and the deflection plate of the coiling swing arm . - a coiler having a coiling mandrel for coiling a metal strip which is fed in a feed direction (x) to the coiler , - a coiling swing arm having a rear pressure roller , a front pressure roller and a deflection plate , - a swing arm drive by means of which the coiling swing arm can be lined up with the coiling mandrel and driven away from the coiling mandrel , - an upper duct flap which is arranged upstream of the coiler as seen in the feed direction (x) for the purpose of guiding the metal strip to the coiler , and - a flap drive by means of which the upper duct flap can be positioned in such a way that, when the coiling swing arm is lined up with the coiling mandrel , said upper duct flap is arranged upstream of the front pressure roller of the coiling swing arm as seen in the feed direction (x), with the result that the metal strip is deflected around the coiling mandrel by the front pressure roller , the rear pressure roller and the deflection plate of the coiling swing arm ,
Washing unit for washing empty containers for liquid like bottles or flasks, comprising a washing tunnel in which the containers are conveyed line by line by an internal conveying means for being cleaned and further rinsed, said washing tunnel having a washing zone where liquids with detergent or cleaning agents are used to clean the containers , and having also a final rinsing zone , disposed after the washing zone and where a rinsing liquid like water is used to rinse the containers , a sprinkling means for sprinkling said rinsing liquid on containers in said final rinsing zone , and a control unit for controlling the operation of at least the sprinkling means , at least one sensing unit for measuring the thermal effect of the sprinkling means on the containers and sending a corresponding information to the control unit , characterized in that said information can be taken into account by said control unit to pilot the operation of the sprinkling means by adjusting the flow of rinsing liquid, wherein the at least one sensing unit directly measures the temperature of the containers after the action of the rinsing liquid, in or after the final rinsing zone , and wherein the at least one sensing unit is located at an output zone of the washing tunnel , after the final rinsing zone , where the containers are withdrawn from the internal conveying device . a washing tunnel in which the containers are conveyed line by line by an internal conveying means for being cleaned and further rinsed, said washing tunnel having a washing zone where liquids with detergent or cleaning agents are used to clean the containers , and having also a final rinsing zone , disposed after the washing zone and where a rinsing liquid like water is used to rinse the containers , a sprinkling means for sprinkling said rinsing liquid on containers in said final rinsing zone , and a control unit for controlling the operation of at least the sprinkling means , at least one sensing unit for measuring the thermal effect of the sprinkling means on the containers and sending a corresponding information to the control unit , characterized in that said information can be taken into account by said control unit to pilot the operation of the sprinkling means by adjusting the flow of rinsing liquid, wherein the at least one sensing unit directly measures the temperature of the containers after the action of the rinsing liquid, in or after the final rinsing zone , and wherein the at least one sensing unit is located at an output zone of the washing tunnel , after the final rinsing zone , where the containers are withdrawn from the internal conveying device .
Method for determining a parameter of an optical equipment comprising an optical lens comprising permanent markings and being mounted in a spectacle frame, the method comprising: - an optical equipment positioning step, during which the optical equipment is positioned before a pattern in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position so as to acquire an image showing together the pattern seen through at least part of the optical lenses of the optical equipment in the first position and at least part of the spectacle frame of the optical equipment in the first position, the portable electronic device being equipped with measuring means selected from at least a stereo or 3D camera or telemeter, that are configured to determine the distance and orientation of the optical equipment, - a permanent marking detection step, during which the at least one permanent marking on the optical lens is detected by using the image acquired by the image acquisition module of the portable electronic device in the second position, - a position determining step during which the distance and the relative orientation between the image acquisition module and the optical equipment are determined using at least the measuring means of the portable electronic device, - a parameter determining step during which at least one parameter of the optical equipment is determined based on the position of the permanent marking. - an optical equipment positioning step, during which the optical equipment is positioned before a pattern in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position so as to acquire an image showing together the pattern seen through at least part of the optical lenses of the optical equipment in the first position and at least part of the spectacle frame of the optical equipment in the first position, the portable electronic device being equipped with measuring means selected from at least a stereo or 3D camera or telemeter, that are configured to determine the distance and orientation of the optical equipment, - a permanent marking detection step, during which the at least one permanent marking on the optical lens is detected by using the image acquired by the image acquisition module of the portable electronic device in the second position, - a position determining step during which the distance and the relative orientation between the image acquisition module and the optical equipment are determined using at least the measuring means of the portable electronic device, - a parameter determining step during which at least one parameter of the optical equipment is determined based on the position of the permanent marking.
An airborne virus protection and disinfection AIRVPD device comprising: a positive electrode ; a negative electrode in close proximity to, but spaced away from, the positive electrode to form an electrode fluid path between the positive and negative electrodes ; a high-voltage converter configured to deliver power to the positive and negative electrodes in order to trigger a redox reaction at each of the positive and negative electrodes such that the positive electrode attracts negatively charged particles and the negative electrode attracts positively charged particles; a chemical disinfecting unit comprising a sponge material associated with and extending along a length of at least one of the positive and negative electrodes , the sponge material capable of becoming impregnated with an antimicrobial capable of killing airborne viruses; and a housing encasing the positive and negative electrodes , the high-voltage converter , and the chemical disinfecting unit and comprising an inlet and an outlet in fluid communication with each other via the electrode fluid path ; wherein the housing is configured such that ionized air with charged droplets external to the AIRVPD device is able to flow: into the AIRVPD device through the inlet of the housing ; through the electrode fluid path for disinfection by the antimicrobial and for neutralization by the positive and negative electrodes ; and through the outlet of the housing and out of the AIRVPD device . a positive electrode ; a negative electrode in close proximity to, but spaced away from, the positive electrode to form an electrode fluid path between the positive and negative electrodes ; a high-voltage converter configured to deliver power to the positive and negative electrodes in order to trigger a redox reaction at each of the positive and negative electrodes such that the positive electrode attracts negatively charged particles and the negative electrode attracts positively charged particles; a chemical disinfecting unit comprising a sponge material associated with and extending along a length of at least one of the positive and negative electrodes , the sponge material capable of becoming impregnated with an antimicrobial capable of killing airborne viruses; and a housing encasing the positive and negative electrodes , the high-voltage converter , and the chemical disinfecting unit and comprising an inlet and an outlet in fluid communication with each other via the electrode fluid path ; wherein the housing is configured such that ionized air with charged droplets external to the AIRVPD device is able to flow: into the AIRVPD device through the inlet of the housing ; through the electrode fluid path for disinfection by the antimicrobial and for neutralization by the positive and negative electrodes ; and through the outlet of the housing and out of the AIRVPD device . into the AIRVPD device through the inlet of the housing ; through the electrode fluid path for disinfection by the antimicrobial and for neutralization by the positive and negative electrodes ; and through the outlet of the housing and out of the AIRVPD device .
A uranium oxide fuel pellet comprising an inner region and an outer rim region about the inner region , and that the fuel pellet is cylindrical and the inner region and outer rim region are coaxial cylindrical regions, characterized in that the outer rim region has an excess of oxygen in comparison to the inner region , wherein said excess oxygen in the outer rim region of the pellet is 5% extra O, by molar content, and wherein high burnup structure, HBS, formation will be suppressed or delayed.
Stretcher bridge for mounting above a reclining surface of a stretcher, having a base plate which, in the mounted state, is aligned parallel to the stretcher and has an upper side (O) and a lower side (U), wherein fastening recesses are formed in the base plate , wherein two lateral supports are pivotably mounted on mutually opposite side edges of the base plate , wherein the supports in the mounted state are aligned substantially perpendicular to the base plate , wherein the supports each have a support foot and a support shoe , wherein the support feet in the mounted state are releasably fixed in the support shoes , characterized in that the lower side of the support foot has a front insertion portion and a rear latching portion , which are both insertable into the support shoe .
A machine controller comprising a sensor module , an evaluation module and a control module , wherein the control module comprises means for activating and/or deactivating at least one driving means of a machine tool based on an incoming control signal, wherein further the sensor module comprises a converter, which converts a physical quantity acting on the sensor module into a proportional electrical parameter, wherein further the evaluation module is connected to the sensor module via a first signal connection and to the control module via a bidirectional second signal connection , wherein further the second signal connection is designed to be wireless, wherein the sensor module is arranged in or on a shoe, characterized in that the second signal connection is formed by a high frequency close range communication connection and that there is a wireless third signal connection based on ultrasound between the evaluation module and the control module , and that the evaluation module forms a signal profile from the detected electrical parameter by means of a potential and/or change analysis, the evaluation module comprises a storage means in which a reference signal profile is stored, the evaluation module further comprises a comparison module which compares the detected signal profile to the stored signal profile and, based thereon, generates the control signal and that the control module comprises a position detection and/or position determination module with at least two receivers , said position detection and/or position determination module being designed for determining the position of the evaluation module carried by the user in the working region by means of an analysis of the run time difference between the second and the third signal connection , wherein the control signal is performed only if the user triggering this control signal is within a defined working region.
Method for distortion-free coating of 3-dimensional workpieces with partially bidirectionally curved surfaces, the method comprising at least the steps: a) Provision of digital 2D data of a functional layer and digital 3D surface profile data of a workpiece to be coated; characterized in that the method comprises the steps of b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) projection of the line trains bounding the raster areas onto one or more trajectories above the relevant raster area, the projection being made along the normal vector of the respective trajectory; e) classifying the workpiece surface into areas suitable for undistorted coating comprising raster areas, wherein the maximum spacing of the projected raster lines max. X i , max. Y i of the rasters within these areas in at least one direction has a deviation of less than or equal to 5% compared to the distances of the raster lines on the workpiece surface X 0 , Y 0 ; and surface areas unsuitable for undistorted coating whose max. X i and max. Y i have a deviation of greater than 5%; f) applying a functional layer to at least part of the suitable surface area of the workpiece defined in step e). a) Provision of digital 2D data of a functional layer and digital 3D surface profile data of a workpiece to be coated; characterized in that the method comprises the steps of b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) projection of the line trains bounding the raster areas onto one or more trajectories above the relevant raster area, the projection being made along the normal vector of the respective trajectory; e) classifying the workpiece surface into areas suitable for undistorted coating comprising raster areas, wherein the maximum spacing of the projected raster lines max. X i , max. Y i of the rasters within these areas in at least one direction has a deviation of less than or equal to 5% compared to the distances of the raster lines on the workpiece surface X 0 , Y 0 ; and surface areas unsuitable for undistorted coating whose max. X i and max. Y i have a deviation of greater than 5%; f) applying a functional layer to at least part of the suitable surface area of the workpiece defined in step e).
An assembly of optical elements for the control of light, comprising in order from a first side of the assembly: - a light modulator configured to actively modulate a wavefront of light passing though the assembly, the light modulator comprising an electronic interface ; - a first polarization element configured to define a polarization of the light received from the light modulator ; - an optical element that has a region across which a value of a refractive index of the optical element varies for passively modulating the wavefront of the light received from the first polarization element ; - a second polarization element configured to define the polarization of the light received from the optical element . - a light modulator configured to actively modulate a wavefront of light passing though the assembly, the light modulator comprising an electronic interface ; - a first polarization element configured to define a polarization of the light received from the light modulator ; - an optical element that has a region across which a value of a refractive index of the optical element varies for passively modulating the wavefront of the light received from the first polarization element ; - a second polarization element configured to define the polarization of the light received from the optical element .
A method for determining blockages around a non-omnidirectional antenna (108; 208; 308) for use with a Low Earth Orbit, LEO, constellation (102 a-c; 202 a-e; 302 a-c), the method comprising: receiving System Information, SI, comprising ephemeris data for satellites in the LEO constellation; receiving a segment division that divides a ground about the antenna into segments (220 a-d); and determining a segment blocking information for the antenna by, for each of the satellites, calculating a current direction from the antenna to the respective satellite based on the respective satellite's ephemeris data, mapping the current direction into one of the segments , aiming the antenna in the current direction , attempting a signal lock with the satellite , and setting the segment blocking information indicating the mapped segment as blocked, when the signal lock is unsuccessful . receiving System Information, SI, comprising ephemeris data for satellites in the LEO constellation; receiving a segment division that divides a ground about the antenna into segments (220 a-d); and determining a segment blocking information for the antenna by, for each of the satellites, calculating a current direction from the antenna to the respective satellite based on the respective satellite's ephemeris data, mapping the current direction into one of the segments , aiming the antenna in the current direction , attempting a signal lock with the satellite , and setting the segment blocking information indicating the mapped segment as blocked, when the signal lock is unsuccessful . calculating a current direction from the antenna to the respective satellite based on the respective satellite's ephemeris data, mapping the current direction into one of the segments , aiming the antenna in the current direction , attempting a signal lock with the satellite , and setting the segment blocking information indicating the mapped segment as blocked, when the signal lock is unsuccessful .
A gallinaceous bird embryo into which cancer cells have been grafted within the tissues of the embryo, characterized in that : - the embryo is at a developmental stage between stage HH10 and stage HH25 at the time of the graft, - said cancer cells are not introduced into the lumen of the neural tube, - said cancer cells are not neuroblastoma cells not melanoma cells, - said cancer cells reproduce and form tumours in an implantation site within the embryo that is distinct from the grafting site, and - said gallinaceous bird is a chicken (gallus gallus) or a quail (Coturnix japonica). - the embryo is at a developmental stage between stage HH10 and stage HH25 at the time of the graft, - said cancer cells are not introduced into the lumen of the neural tube, - said cancer cells are not neuroblastoma cells not melanoma cells, - said cancer cells reproduce and form tumours in an implantation site within the embryo that is distinct from the grafting site, and - said gallinaceous bird is a chicken (gallus gallus) or a quail (Coturnix japonica).
A hybrid parallel power supply, comprising: a first power supply connected to a power rail and configured to supply current to a load device via the power rail , the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail ; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor ; and a second power supply configured to supply power at a third target voltage level to the operational amplifier . a first power supply connected to a power rail and configured to supply current to a load device via the power rail , the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail ; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor ; and a second power supply configured to supply power at a third target voltage level to the operational amplifier .