mhurhangee/patent-ind-claim-en huggingface dataset:
A method of cutting out a glass plate and positioning the cut-out glass plate, comprising the steps of: forming cut lines on an unworked plate glass with a preset work coordinate system in a cut line forming position with respect to the unworked plate glass ; applying an alignment mark onto at least two locations set in advance in the work coordinate system on each of a plurality of glass plates to be cut out from the unworked plate glass , before forming a plurality of cut-out glass plates cut out from the unworked plate glass along the cut lines ; forming the plurality of cut-out glass plates cut out from the plurality of glass plates to be cut out with the alignment mark , respectively applied thereto along the cut lines ; detecting the position of an actual alignment mark on each of the plurality of cut-out glass plates by performing imaging and image processing of the alignment mark with a camera installed by setting as a reference position a coordinate value of an alignment mark set in the work coordinate system, in a positioning position for positioning each of the plurality of cut-out glass plates with the alignment mark applied thereto and cut out; calculating an amount of positional deviation between the position of the actual alignment mark and the reference position; and correcting a position and an angle of each of the plurality of cut-out glass plates on the basis of the amount of positional deviation. forming cut lines on an unworked plate glass with a preset work coordinate system in a cut line forming position with respect to the unworked plate glass ; applying an alignment mark onto at least two locations set in advance in the work coordinate system on each of a plurality of glass plates to be cut out from the unworked plate glass , before forming a plurality of cut-out glass plates cut out from the unworked plate glass along the cut lines ; forming the plurality of cut-out glass plates cut out from the plurality of glass plates to be cut out with the alignment mark , respectively applied thereto along the cut lines ; detecting the position of an actual alignment mark on each of the plurality of cut-out glass plates by performing imaging and image processing of the alignment mark with a camera installed by setting as a reference position a coordinate value of an alignment mark set in the work coordinate system, in a positioning position for positioning each of the plurality of cut-out glass plates with the alignment mark applied thereto and cut out; calculating an amount of positional deviation between the position of the actual alignment mark and the reference position; and correcting a position and an angle of each of the plurality of cut-out glass plates on the basis of the amount of positional deviation.
A device for manufacturing a fibre composite component , which is or will be connected to an attachment element , for a rotor blade of a wind turbine , wherein the fibre composite component is or will be manufactured from at least one fibre material and at least one matrix material, wherein the attachment element is provided with a first region arranged outside the fibre composite component and a second region integrated into the fibre composite component , comprising a manufacturing mould for the fibre composite component with a recess , wherein the recess has a first region for receiving the first region of the attachment element , and a retention apparatus , by means of which flowable matrix material from the first region of the recess is or will be retained, characterised in that the recess has a second region for receiving the second region of the attachment element .
Voltage tap system for a fuse-holder base , having a specific application for voltage taps of fuse-holder bases with NH-type fuses, where the voltage tap system comprises: - a conductive element connected on one hand to a contact point for tapping the voltage of the fuse-holder base , and on the other hand to an electrical conductor or voltage tap output terminal; - a support in which the conductive element is mounted; and - an auxiliary protection element communicating the contact point for tapping the voltage with the electrical conductor or voltage tap output terminal; characterized in that the conductive element is provided with elastic properties, such that said conductive element is movable and deformable between an initial standby position and a working position in which the conductive element is in direct contact with the blades (2.1) of the fuse , wherein the conductive element is configured to be installed such that it takes up part of the path of the fuses , particularly their blades (2.1), such that when the fuse is inserted in its corresponding location of the fuse-holder base , the blades (2.1) of each fuse run into the conductive element , moving said conductive element and being in direct contact with the blades (2.1) of the fuse ; and wherein the conductive element is a metallic element provided with flexible properties which communicates an output connection of the fuse-holder base with the auxiliary protection element . - a conductive element connected on one hand to a contact point for tapping the voltage of the fuse-holder base , and on the other hand to an electrical conductor or voltage tap output terminal; - a support in which the conductive element is mounted; and - an auxiliary protection element communicating the contact point for tapping the voltage with the electrical conductor or voltage tap output terminal; characterized in that the conductive element is provided with elastic properties, such that said conductive element is movable and deformable between an initial standby position and a working position in which the conductive element is in direct contact with the blades (2.1) of the fuse , wherein the conductive element is configured to be installed such that it takes up part of the path of the fuses , particularly their blades (2.1), such that when the fuse is inserted in its corresponding location of the fuse-holder base , the blades (2.1) of each fuse run into the conductive element , moving said conductive element and being in direct contact with the blades (2.1) of the fuse ; and wherein the conductive element is a metallic element provided with flexible properties which communicates an output connection of the fuse-holder base with the auxiliary protection element .
An aircraft berth comprising: a frame ; a plurality of bowed slats ; and a mattress pad , wherein: the plurality of bowed slats are disposed in a plurality of densities; a first density in the plurality of densities correspond to one or more high support locations; a second density in the plurality of densities correspond to one or more low support locations; the first density is higher than the second density; wherein each of the plurality of bowed slats comprises a first section and a second section joined at a hinge ; the first section defines a hinge-proximal surface; the second section defines a hinge-proximal surface; and the first section hinge-proximal surface and the second section hinge-proximal surface are configured to interlock when fully extended to support a load on the bowed slat opposite the hinge. a frame ; a plurality of bowed slats ; and a mattress pad , wherein: the plurality of bowed slats are disposed in a plurality of densities; a first density in the plurality of densities correspond to one or more high support locations; a second density in the plurality of densities correspond to one or more low support locations; the first density is higher than the second density; wherein each of the plurality of bowed slats comprises a first section and a second section joined at a hinge ; the first section defines a hinge-proximal surface; the second section defines a hinge-proximal surface; and the first section hinge-proximal surface and the second section hinge-proximal surface are configured to interlock when fully extended to support a load on the bowed slat opposite the hinge. the plurality of bowed slats are disposed in a plurality of densities; a first density in the plurality of densities correspond to one or more high support locations; a second density in the plurality of densities correspond to one or more low support locations; the first density is higher than the second density; wherein each of the plurality of bowed slats comprises a first section and a second section joined at a hinge ; the first section defines a hinge-proximal surface; the second section defines a hinge-proximal surface; and the first section hinge-proximal surface and the second section hinge-proximal surface are configured to interlock when fully extended to support a load on the bowed slat opposite the hinge.
A method performed by a remote unit in communication with a network unit, the method comprising: determining whether a number of transmissions of a plurality of transmissions to the network unit has reached a predetermined threshold, wherein each transmission of the plurality of transmissions comprises a request for system information; and in response to the number of transmissions to the network unit reaching the predetermined threshold, performing an action, wherein the action is determining a type of system information being requested by the number of transmissions and inhibiting additional transmissions of the plurality of transmissions with the network unit based on the type of system information. determining whether a number of transmissions of a plurality of transmissions to the network unit has reached a predetermined threshold, wherein each transmission of the plurality of transmissions comprises a request for system information; and in response to the number of transmissions to the network unit reaching the predetermined threshold, performing an action, wherein the action is determining a type of system information being requested by the number of transmissions and inhibiting additional transmissions of the plurality of transmissions with the network unit based on the type of system information.
An ultrasound elastography imaging device comprising: an ultrasound scanner ; and a shear wave elastography processor configured to operate said ultrasound scanner to interrogate a medium of interest and form a preliminary elasticity-spatial-map comprising shear wave propagation delay values based, at least in part, on a result of the interrogating, characterized in that the shear wave elastography processor is further configured to determine a calibrated elasticity-spatial-map by taking a difference between a reference elasticity-spatial-map and the preliminary elasticity-spatial-map , wherein said reference elasticity-spatial-map comprises an array of different shear wave propagation delay values corresponding to a reference medium that is not, nor is located at, said medium of interest . an ultrasound scanner ; and a shear wave elastography processor configured to operate said ultrasound scanner to interrogate a medium of interest and form a preliminary elasticity-spatial-map comprising shear wave propagation delay values based, at least in part, on a result of the interrogating, characterized in that the shear wave elastography processor is further configured to determine a calibrated elasticity-spatial-map by taking a difference between a reference elasticity-spatial-map and the preliminary elasticity-spatial-map , wherein said reference elasticity-spatial-map comprises an array of different shear wave propagation delay values corresponding to a reference medium that is not, nor is located at, said medium of interest .
Covering device comprising at least three covering portions , wherein in a cross section of the covering device a first of the covering portions is arranged on a second of the covering portions by means of a first connecting region which is configured by a first cross-sectional end of the first covering portion , and has a second cross-sectional end which opposes the first cross-sectional end and has a second connecting region by which the first covering portion is arranged on a third covering portion , wherein the second connecting region of the first covering portion in cross section is arranged spaced apart from the second cross-sectional end of the first covering portion , characterized in that the first covering portion is arranged by means of the second connecting region on a cross-sectional end of the third covering portion which is equal to the first cross-sectional end of the first covering portion .
A superconducting magnet for magnetic resonance imaging (MRI) or spectroscopy (MRS), comprising: a plurality of discrete Niobium-Titanium superconductor coils arranged longitudinally spaced with respect to one another along a common central axis , the Niobium-Titanium superconductor coils being able to generate a first magnetic field when in use, the first magnetic field having high field regions of at least 5 Tesla radially inward of the discrete coils; at least two Niobium-Tin superconductor coils located along the common central axis, the Niobium-Tin superconducting coils being axially separated and each of which is located in a said high field region of the first magnetic field, the Niobium-Tin superconductor coils each being able to generate a respective second magnetic field when in use, which combines with the first magnetic field to produce a resultant magnetic field which is of higher field strength than that of the first magnetic field at a location on the common central axis, wherein there is a radial separation between each Niobium-Tin coil and a respective closest Niobium-Titanium coil to the respective Niobium-Tin coil, and there is an axial bore through the coils having a diameter of at least 150mm. a plurality of discrete Niobium-Titanium superconductor coils arranged longitudinally spaced with respect to one another along a common central axis , the Niobium-Titanium superconductor coils being able to generate a first magnetic field when in use, the first magnetic field having high field regions of at least 5 Tesla radially inward of the discrete coils; at least two Niobium-Tin superconductor coils located along the common central axis, the Niobium-Tin superconducting coils being axially separated and each of which is located in a said high field region of the first magnetic field, the Niobium-Tin superconductor coils each being able to generate a respective second magnetic field when in use, which combines with the first magnetic field to produce a resultant magnetic field which is of higher field strength than that of the first magnetic field at a location on the common central axis, wherein there is a radial separation between each Niobium-Tin coil and a respective closest Niobium-Titanium coil to the respective Niobium-Tin coil, and there is an axial bore through the coils having a diameter of at least 150mm.
A vehicle panel component comprising: a panel face divided into a plurality of sections , each of the plurality of sections made in shape of a polygon, the plurality of sections disposed adjacent to each other, wherein the each of the plurality of sections including a plurality of parallel lines disposed therewithin, the plurality of parallel lines (L) formed by a plurality of recesses and protrusions , and a pattern of the plurality of parallel lines (L) is different between adjacent sections of the plurality of sections , characterized in that one of each adjacent pair of an angle of the plurality of parallel lines (L) is different between the adjacent sections of the plurality of sections . a panel face divided into a plurality of sections , each of the plurality of sections made in shape of a polygon, the plurality of sections disposed adjacent to each other, wherein the each of the plurality of sections including a plurality of parallel lines disposed therewithin, the plurality of parallel lines (L) formed by a plurality of recesses and protrusions , and a pattern of the plurality of parallel lines (L) is different between adjacent sections of the plurality of sections , characterized in that one of each adjacent pair of an angle of the plurality of parallel lines (L) is different between the adjacent sections of the plurality of sections .
Method for operating a rail vehicle network in which a multiplicity of rail vehicles are traveling, wherein the rail vehicles determine their respective position in the rail vehicle network by creating position information (P, P21, P22, P23, P24), - in which each of the rail vehicles transmits its position information (P, P21, P22, P23, P24) to a track-side central apparatus , - in which the central apparatus forwards the received position information (P, P21, P22, P23, P24) to all of the rail vehicles in the rail vehicle network and - in which the rail vehicles each have a rail vehicle-specific collision monitoring apparatus that checks the received position information (P, P21, P22, P23, P24) with regard to a potential collision risk of a collision with one or more of the other rail vehicles and generates a collision warning signal (KWS) in the event of an established collision risk, - in which the rail vehicles transmit the collision warning signal (KWS) to the central apparatus in the event of an established collision risk and - in which the central apparatus forwards received collision warning signals (KWS) to at least the rail vehicles concerned by the collision risk. - in which each of the rail vehicles transmits its position information (P, P21, P22, P23, P24) to a track-side central apparatus , - in which the central apparatus forwards the received position information (P, P21, P22, P23, P24) to all of the rail vehicles in the rail vehicle network and - in which the rail vehicles each have a rail vehicle-specific collision monitoring apparatus that checks the received position information (P, P21, P22, P23, P24) with regard to a potential collision risk of a collision with one or more of the other rail vehicles and generates a collision warning signal (KWS) in the event of an established collision risk, - in which the rail vehicles transmit the collision warning signal (KWS) to the central apparatus in the event of an established collision risk and - in which the central apparatus forwards received collision warning signals (KWS) to at least the rail vehicles concerned by the collision risk.
A system to fill or drain a reservoir in a printer , comprising: a controller configured to set a transfer unit volume to a total capacity of a container divided by an integer greater than 1; a container sensor configured to sense the container connected to the printer ; and a pump configured to pump, in increments corresponding to the set transfer unit volume, at least one transfer unit of a printing agent from the container to the reservoir or from the reservoir to the container . a controller configured to set a transfer unit volume to a total capacity of a container divided by an integer greater than 1; a container sensor configured to sense the container connected to the printer ; and a pump configured to pump, in increments corresponding to the set transfer unit volume, at least one transfer unit of a printing agent from the container to the reservoir or from the reservoir to the container .
A balloon inflation/deflation system for use with an endoscope and comprising: balloon inflation functionality providing a predetermined open-loop inflation sequence comprising an automatic inflation sequence ; balloon deflation functionality ; and an inflated balloon pressure indicator (FP1); characterized in that the automatic inflation sequence includes at least one step of continuing balloon inflation over a predetermined time duration (Tl) once exceedance of a preset inflated balloon pressure has been indicated by the pressure measured in said inflated balloon pressure indicator (FP1). balloon inflation functionality providing a predetermined open-loop inflation sequence comprising an automatic inflation sequence ; balloon deflation functionality ; and an inflated balloon pressure indicator (FP1);
A spray gun comprising: a gun body having a front body portion ; and a spray cap assembly attached to the front body portion of the gun body, the spray cap assembly comprising: a nozzle assembly including: a nozzle piece configured to attach to the front body portion of the gun body; and an air flow guide surrounding the nozzle piece; and the spray cap assembly further comprising a spray cap that interfaces with the air flow guide and is positioned over the nozzle assembly; wherein the air flow guide is configured to engage with the nozzle piece so that the air flow guide is prevented from moving past the nozzle piece; and characterized in that the nozzle assembly further includes a spring removably attached to the air flow guide, the spring configured to force engagement between the air flow guide and the spray cap. a gun body having a front body portion ; and a spray cap assembly attached to the front body portion of the gun body, the spray cap assembly comprising: a nozzle assembly including: a nozzle piece configured to attach to the front body portion of the gun body; and an air flow guide surrounding the nozzle piece; and the spray cap assembly further comprising a spray cap that interfaces with the air flow guide and is positioned over the nozzle assembly; wherein the air flow guide is configured to engage with the nozzle piece so that the air flow guide is prevented from moving past the nozzle piece; and characterized in that the nozzle assembly further includes a spring removably attached to the air flow guide, the spring configured to force engagement between the air flow guide and the spray cap. a nozzle assembly including: a nozzle piece configured to attach to the front body portion of the gun body; and an air flow guide surrounding the nozzle piece; and a nozzle piece configured to attach to the front body portion of the gun body; and an air flow guide surrounding the nozzle piece; and the spray cap assembly further comprising a spray cap that interfaces with the air flow guide and is positioned over the nozzle assembly; wherein the air flow guide is configured to engage with the nozzle piece so that the air flow guide is prevented from moving past the nozzle piece; and characterized in that the nozzle assembly further includes a spring removably attached to the air flow guide, the spring configured to force engagement between the air flow guide and the spray cap.
A process for the treatment of by-products derived from the extraction or virgin olive oil comprising a first preparation process comprising the steps of: storing the alperujo from the oil extraction process: separating the solid and liquid phases of the stored alperujo; granulometric grading in which the wet solid mass obtained in the phase separation step is deagglomerated until the resulting particles have a diameter of less than 6 mm; and surface treatment with dry fatty olive pomace fines; said processe omprising an indirect step of drying in a drying column arranged for drying by heat exchange with a transverse airflow to evaporate the water present in the particles of the solid wet mass obtained In the previous stages until achieving a maximum moisture content of 10% by weight of the mass; and and said process also comprising a step of screening configured to separate the dry fatty olive pomace fines with a granulometry of less than 0 5 mm. storing the alperujo from the oil extraction process: separating the solid and liquid phases of the stored alperujo; granulometric grading in which the wet solid mass obtained in the phase separation step is deagglomerated until the resulting particles have a diameter of less than 6 mm; and surface treatment with dry fatty olive pomace fines; said processe omprising an indirect step of drying in a drying column arranged for drying by heat exchange with a transverse airflow to evaporate the water present in the particles of the solid wet mass obtained In the previous stages until achieving a maximum moisture content of 10% by weight of the mass; and and said process also comprising a step of screening configured to separate the dry fatty olive pomace fines with a granulometry of less than 0 5 mm.