mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for configuring a radiation delivery device, the method comprising: providing a patient model, dosimetric constraints, delivery motion constraints, and delivery coordinate space of the radiation delivery device, wherein the delivery coordinate space is represented as a mesh with vertices connected by edges, where the vertices correspond to directions of a beam eye view, BEV, of the radiation delivery device, where each BEV has corresponding area elements resulting from beam collimation; characterised by the following steps: constructing BEV region connectivity manifolds from the patient model, the dosimetric constraints, the delivery coordinate space, and existing beam trajectories, wherein each of the BEV region connectivity manifolds represents connections between contiguous 2D target regions, wherein each of the 2D target regions is defined at each of the vertices of the delivery coordinate space; and selecting beam trajectories based on region connectedness information in the BEV region connectivity manifolds, the dosimetric constraints, the delivery motion constraints, and the existing beam trajectories. providing a patient model, dosimetric constraints, delivery motion constraints, and delivery coordinate space of the radiation delivery device, wherein the delivery coordinate space is represented as a mesh with vertices connected by edges, where the vertices correspond to directions of a beam eye view, BEV, of the radiation delivery device, where each BEV has corresponding area elements resulting from beam collimation; characterised by the following steps: constructing BEV region connectivity manifolds from the patient model, the dosimetric constraints, the delivery coordinate space, and existing beam trajectories, wherein each of the BEV region connectivity manifolds represents connections between contiguous 2D target regions, wherein each of the 2D target regions is defined at each of the vertices of the delivery coordinate space; and selecting beam trajectories based on region connectedness information in the BEV region connectivity manifolds, the dosimetric constraints, the delivery motion constraints, and the existing beam trajectories. constructing BEV region connectivity manifolds from the patient model, the dosimetric constraints, the delivery coordinate space, and existing beam trajectories, wherein each of the BEV region connectivity manifolds represents connections between contiguous 2D target regions, wherein each of the 2D target regions is defined at each of the vertices of the delivery coordinate space; and selecting beam trajectories based on region connectedness information in the BEV region connectivity manifolds, the dosimetric constraints, the delivery motion constraints, and the existing beam trajectories.
A method for marking a moving film without pre-applied eyespots or reference marks thereon, said method comprising: driving a film at a predetermined line speed; generating one or more continuous, periodic trigger signals based at least in part on the predetermined line speed, wherein the one or more continuous, periodic trigger signals correspond with one or more marking areas of the film to be marked thereon; generating marking signals based on the one or more continuous, periodic trigger signals; and marking the film based on the marking signals at substantially the one or more marking areas of the film, wherein the step of generating the one or more continuous, periodic trigger signals comprises, presenting recurring one or more reference marks (302; 402) on a reference device (300; 400), wherein the reference marks (302; 402) substantially correspond with the one or more marking areas of the film to be marked thereon; detecting the recurring one or more references marks (302; 402); and providing the one or more continuous, periodic trigger signals. driving a film at a predetermined line speed; generating one or more continuous, periodic trigger signals based at least in part on the predetermined line speed, wherein the one or more continuous, periodic trigger signals correspond with one or more marking areas of the film to be marked thereon; generating marking signals based on the one or more continuous, periodic trigger signals; and marking the film based on the marking signals at substantially the one or more marking areas of the film, wherein the step of generating the one or more continuous, periodic trigger signals comprises, presenting recurring one or more reference marks (302; 402) on a reference device (300; 400), wherein the reference marks (302; 402) substantially correspond with the one or more marking areas of the film to be marked thereon; detecting the recurring one or more references marks (302; 402); presenting recurring one or more reference marks (302; 402) on a reference device (300; 400), wherein the reference marks (302; 402) substantially correspond with the one or more marking areas of the film to be marked thereon; detecting the recurring one or more references marks (302; 402); and providing the one or more continuous, periodic trigger signals.
Transformer comprising: a coil former having a hollow middle portion extending along a longitudinal axis and enclosing a duct , a first end portion and a second end portion each positioned adjacent to the middle portion and opposing each other, wherein the first end portion comprises a cooling portion adapted for conduction cooling of the coil former , wherein the cooling portion comprises cooling ribs extending parallel to the longitudinal axis and, wherein the transformer further comprises a magnetic core component extending through the duct and forming a closed loop , wherein the magnetic core component has an end face positioned in proximity to the cooling ribs and being oriented perpendicular to the longitudinal axis , wherein the cooling ribs project parallel to the longitudinal axis to such an extent that they are level with the end face of the magnetic core component and, characterized in that the coil former consists of a material having a thermal conductivity in plane of at least 3 W m -1 K -1 and in that the middle portion has an outer diameter which varies along the longitudinal axis , such that the middle portion comprises a barrel-shaped shell surface . a coil former having a hollow middle portion extending along a longitudinal axis and enclosing a duct , a first end portion and a second end portion each positioned adjacent to the middle portion and opposing each other, wherein the first end portion comprises a cooling portion adapted for conduction cooling of the coil former , wherein the cooling portion comprises cooling ribs extending parallel to the longitudinal axis and, wherein the transformer further comprises a magnetic core component extending through the duct and forming a closed loop , wherein the magnetic core component has an end face positioned in proximity to the cooling ribs and being oriented perpendicular to the longitudinal axis , wherein the cooling ribs project parallel to the longitudinal axis to such an extent that they are level with the end face of the magnetic core component and, characterized in that the coil former consists of a material having a thermal conductivity in plane of at least 3 W m -1 K -1 and in that the middle portion has an outer diameter which varies along the longitudinal axis , such that the middle portion comprises a barrel-shaped shell surface .
Process for the production of a moulding material mould for a casting having a minimum strength, and casting metal, wherein - a granular moulding material is filled as moulding material into a moulding box , - the moulding material is compressed in the moulding box in a moulding installation above a model which stands on a model plate , wherein - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head ; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1 , s 2 ) into an end position for hardening or compacting the moulding material mould; and the second path length (s 1 , s 2 ) is changed by a controller as a function of a determined force at the end of a previous hardening or compaction of the moulding material of a previous mould, as a result of a change in at least one property of the non-compacted moulding material . - a granular moulding material is filled as moulding material into a moulding box , - the moulding material is compressed in the moulding box in a moulding installation above a model which stands on a model plate , wherein - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head ; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1 , s 2 ) into an end position for hardening or compacting the moulding material mould; and the second path length (s 1 , s 2 ) is changed by a controller as a function of a determined force at the end of a previous hardening or compaction of the moulding material of a previous mould, as a result of a change in at least one property of the non-compacted moulding material . - in a first step, the moulding box is moved by a pressing device over a first path length to a stop against a frame of a pressing head ; - in a second step, the pattern plate is moved from the pressing device over a second path length (s 1 , s 2 ) into an end position for hardening or compacting the moulding material mould;
A load restraint strip for securing a cargo within a cargo container, the load restraint strip comprising: a base layer ; a reinforcement layer fixed relative to the base layer; and an adhesive layer fixed relative to the reinforcement layer, wherein one of the base layer and the reinforcement layer is located between the adhesive layer and the other of the base layer and the reinforcement layer, characterized in that : the base layer comprises a stitchbond fabric extending throughout the base layer, and a material of the reinforcement layer is different from the stitchbond fabric. a base layer ; a reinforcement layer fixed relative to the base layer; and an adhesive layer fixed relative to the reinforcement layer, wherein one of the base layer and the reinforcement layer is located between the adhesive layer and the other of the base layer and the reinforcement layer, characterized in that : the base layer comprises a stitchbond fabric extending throughout the base layer, and a material of the reinforcement layer is different from the stitchbond fabric. the base layer comprises a stitchbond fabric extending throughout the base layer, and a material of the reinforcement layer is different from the stitchbond fabric.
A saddle stackable with another saddle of the perfected type for supporting elongated bodies in general, each saddle comprising a body having a quadrangular section on whose two opposite sides wedge-inserted coupling means are provided for stacking one saddle with another saddle , so as to have the reciprocal stacking of these saddles on a respective support, wherein said wedge-inserted coupling means consist of slides provided on one of said two opposite sides of said body , wherein the size and arrangement of the slides allow the same to be wedge-inserted inside corresponding seats provided on one of said two opposite sides of said body , said body has sides provided with deformable arms for withholding respective elongated bodies , the saddle has a modular structure, with extractable cable clamps assembled on said body , characterized in that said extractable cable clamps comprise cursors assembled on a base which in turn is provided with said deformable arms and said body is provided with grooves , positioned on the sides of said body and suitable for slidingly receiving said cursors of said extractable cable clamps it also provides - elastic flaps , positioned inside said seats and cooperating with relative housings , formed on said slides for blocking the stacked saddles when said slides provided on one of said opposite sides of said body of a saddle are wedge-inserted inside said corresponding seats provided on one of said opposite sides of said body of a contiguous saddle, - elastic flaps , positioned inside said body and cooperating with respective housings formed on said cursors for blocking the cursors of said extractable cable clamps inside the respective grooves of the body of the saddle . - elastic flaps , positioned inside said seats and cooperating with relative housings , formed on said slides for blocking the stacked saddles when said slides provided on one of said opposite sides of said body of a saddle are wedge-inserted inside said corresponding seats provided on one of said opposite sides of said body of a contiguous saddle, - elastic flaps , positioned inside said body and cooperating with respective housings formed on said cursors for blocking the cursors of said extractable cable clamps inside the respective grooves of the body of the saddle .
A computer implemented method for visualising a 3D dental restoration on a 2D image of the mouth of a patient, wherein the method comprises - obtaining a 3D dental model of at least a part of the patient's oral cavity - designing the 3D dental restoration , - obtaining the 2D image of the mouth of the patient, - estimating a virtual camera comprising at least one virtual camera property corresponding to at least one physical camera property of the physical camera used to obtain the 2D image, - viewing the 3D dental restoration using the virtual camera - determining the visible area of the 3D dental restoration, which is not overlapped by surrounding anatomic features when viewed with the virtual camera, - imaging the visible area of the 3D dental restoration with the 2D image , characterized therein that the visible area of the 3D dental restoration is imaged with the 2D image by projecting the visible area of the 3D dental restoration onto the 2D image . - obtaining a 3D dental model of at least a part of the patient's oral cavity - designing the 3D dental restoration , - obtaining the 2D image of the mouth of the patient, - estimating a virtual camera comprising at least one virtual camera property corresponding to at least one physical camera property of the physical camera used to obtain the 2D image, - viewing the 3D dental restoration using the virtual camera - determining the visible area of the 3D dental restoration, which is not overlapped by surrounding anatomic features when viewed with the virtual camera, - imaging the visible area of the 3D dental restoration with the 2D image , characterized therein that the visible area of the 3D dental restoration is imaged with the 2D image by projecting the visible area of the 3D dental restoration onto the 2D image .
An amorphous reduced graphene oxide (rGO) film for use in an implantable electronic device for neural interfacing, said film having a total thickness from 20 nm to 5 micrometer and comprising pores which have a diameter equal to or less than 10 nm.
A multi-channel parallel pretreatment device, comprising a magnetic separation and transfer device configured to perform separation and transfer of a magnetic particle reagent and a first drive device configured to drive the magnetic separation and transfer device to move, wherein the magnetic separation and transfer device comprises a second mounting bracket ; a mounting plate provided with piston rods ; and wherein the second mounting bracket is further provided thereon with a second drive device, which is configured to drive the mounting plate to linearly reciprocate in a vertical direction; characterized in that the second mounting bracket is provided therein with an injector chamber , the mounting plate is provided above a top of the injector chamber, the piston rods are connected to the injector chamber in a movable and sealing manner, the injector chamber is provided with loading heads , each of which is configured to load a tip head or a magnetic separation sleeve and has a hollow structure; and wherein free ends of the piston rods are fixedly connected to magnetic rods that are configured to adsorb magnetic beads in the magnetic particle reagent; and the second drive device is configured to drive the magnetic rods on the piston rods to pass through the loading heads. the second mounting bracket is provided therein with an injector chamber , the mounting plate is provided above a top of the injector chamber, the piston rods are connected to the injector chamber in a movable and sealing manner, the injector chamber is provided with loading heads , each of which is configured to load a tip head or a magnetic separation sleeve and has a hollow structure; and wherein free ends of the piston rods are fixedly connected to magnetic rods that are configured to adsorb magnetic beads in the magnetic particle reagent; and the second drive device is configured to drive the magnetic rods on the piston rods to pass through the loading heads.
A method for transmitting an uplink signal of a terminal in a communication system, the method comprising: receiving, from a base station, configuration information on a latency reduction mode by a higher layer signaling, the configuration information indicating the latency reduction mode is configured to the terminal; receiving, from the base station, downlink control information scheduling an uplink data; and transmitting, to the base station, the uplink data using an unlicensed band based on the downlink control information, wherein the latency reduction mode is a mode which can make transmission timing of the uplink data with respect to the downlink control information be equal to or faster than a normal mode, wherein the downlink control information includes a timing offset field indicating a timing offset among a plurality of timing offsets, wherein a subframe in which the uplink data is transmitted is determined as n+4+k, where n is a subframe in which the downlink control information is received, n+4 is a normal mode transmission timing, and k is the timing offset and wherein at least one specific value of the timing offset field corresponds to a difference value between the normal mode transmission timing and a latency reduction mode transmission timing for the latency reduction mode. receiving, from a base station, configuration information on a latency reduction mode by a higher layer signaling, the configuration information indicating the latency reduction mode is configured to the terminal; receiving, from the base station, downlink control information scheduling an uplink data; and transmitting, to the base station, the uplink data using an unlicensed band based on the downlink control information, wherein the latency reduction mode is a mode which can make transmission timing of the uplink data with respect to the downlink control information be equal to or faster than a normal mode, wherein the downlink control information includes a timing offset field indicating a timing offset among a plurality of timing offsets, wherein a subframe in which the uplink data is transmitted is determined as n+4+k, where n is a subframe in which the downlink control information is received, n+4 is a normal mode transmission timing, and k is the timing offset and wherein at least one specific value of the timing offset field corresponds to a difference value between the normal mode transmission timing and a latency reduction mode transmission timing for the latency reduction mode.
An information processing method, a software application being executed on a processor of a terminal and rendering being performed on a display of the terminal, to obtain a graphical user interface (GUI), the processor, the GUI, and the software application being implemented in a game system, the method comprising: performing rendering in the GUI, to obtain at least one virtual resource object, the virtual resource object comprising at least one user character object; deploying in such a manner that at least one character container object in at least one character selection area in the GUI comprises at least one window location; performing rendering, in a corresponding window location, on a character operation object associated with a second character object that belongs to a same group as the user character object; characterized by the method further comprising: when detecting a vision obtaining gesture on at least one character operation object in the character container object, generating and sending a first instruction, wherein the first instruction is configured to invoke a virtual lens associated with the at least one character operation object and control the virtual lens to capture a vision image; obtaining, in a process of detecting the vision obtaining gesture, the vision image captured by the virtual lens; and performing rendering in the GUI, to obtain the vision image, the obtained vision image being a vision image of the second character object that belongs to a same group as the user character object. performing rendering in the GUI, to obtain at least one virtual resource object, the virtual resource object comprising at least one user character object; deploying in such a manner that at least one character container object in at least one character selection area in the GUI comprises at least one window location; performing rendering, in a corresponding window location, on a character operation object associated with a second character object that belongs to a same group as the user character object; characterized by the method further comprising: when detecting a vision obtaining gesture on at least one character operation object in the character container object, generating and sending a first instruction, wherein the first instruction is configured to invoke a virtual lens associated with the at least one character operation object and control the virtual lens to capture a vision image; obtaining, in a process of detecting the vision obtaining gesture, the vision image captured by the virtual lens; and performing rendering in the GUI, to obtain the vision image, the obtained vision image being a vision image of the second character object that belongs to a same group as the user character object.
A cooking device comprising a cooking cavity wherein the foodstuffs to be cooked are placed; a body in the form of a box with the front side open which surrounds the cooking cavity ; a panel which is disposed on the body ; a steam generator which is disposed on the body ; a water tank which is disposed on the body and which enables water to be delivered to the steam generator by means of a water delivery line ; and an opening which is arranged on the panel and which provides access to the water tank , a delivery member which is provided on the water tank and which extends from the base of the water tank to the surface thereof, thus drawing the water in the water tank to be transferred to the water delivery line characterized by a housing which is provided on the base of the water tank so as to be aligned with the end of the delivery member provided on the water tank and wherein the water is filled so as to be drawn by the delivery member , wherein the housing is formed by designing one section of the base of the water tank lower than the rest.
A drug combination against acid-fast bacillus, comprising: an inhibitor for WecA or an ortholog thereof; and an inhibitor for MurX or an ortholog thereof; and, optionally, an RNA synthesis inhibitor, wherein the inhibitor for WecA or an ortholog thereof is used in combination with the inhibitor for MurX or an ortholog thereof and, optionally, the RNA synthesis inhibitor; wherein the inhibitor for WecA or an ortholog thereof contains a compound expressed by the following Structural Formula , and the inhibitor for MurX or an ortholog thereof contains a compound expressed by the following Structural Formula : wherein in Structural Formula , "Me" is a methyl group. an inhibitor for WecA or an ortholog thereof; and an inhibitor for MurX or an ortholog thereof; and, optionally, an RNA synthesis inhibitor,