mhurhangee/patent-ind-claim-en huggingface dataset:
Linear transverse flux machine comprising a primary part and an total length secondary part, wherein the travel path of the linear transverse flux machine is obtained by aligning a plurality of secondary parts to form the total length secondary part, a secondary part is formed of a plurality of stacked planes of identical secondary part sheets , the layer planes extend parallel to the movement direction of the primary part, and each layer has protrusions in the layer plane, the protrusions of the individual secondary part sheet layers overlap so that they form poles of the secondary part, the secondary part sheets form poles whose pole shapes are concave , convex or pointed , the secondary part comprises neither permanent magnets nor coils, all secondary part sheets of a single secondary part have the same number of protrusions on one side as on the other side, the spacing of the protrusions is the same and the ends of the secondary part are formed in such a way that after application of further secondary parts the same spacing between the protrusions is again present, the primary part comprises a plurality of primary part sheets stacked on top of each other, permanent magnets , and one or more coils , a part of the primary part sheets have T-slots for adapting and mounting machine elements, and the secondary part sheets of the plurality of layers are formed of interconnected baked electrical sheets. the travel path of the linear transverse flux machine is obtained by aligning a plurality of secondary parts to form the total length secondary part, a secondary part is formed of a plurality of stacked planes of identical secondary part sheets , the layer planes extend parallel to the movement direction of the primary part, and each layer has protrusions in the layer plane, the protrusions of the individual secondary part sheet layers overlap so that they form poles of the secondary part, the secondary part sheets form poles whose pole shapes are concave , convex or pointed , the secondary part comprises neither permanent magnets nor coils, all secondary part sheets of a single secondary part have the same number of protrusions on one side as on the other side, the spacing of the protrusions is the same and the ends of the secondary part are formed in such a way that after application of further secondary parts the same spacing between the protrusions is again present, the primary part comprises a plurality of primary part sheets stacked on top of each other, permanent magnets , and one or more coils , a part of the primary part sheets have T-slots for adapting and mounting machine elements, and the secondary part sheets of the plurality of layers are formed of interconnected baked electrical sheets.
Apparatus for capturing optical image data of a patient supporting apparatus and for determining a location of at least one lateral boundary of the patient supporting apparatus on the basis of the image data, wherein the apparatus comprises a determining device designed for firstly determining a location of at least one partial segment of the patient supporting apparatus on the basis of the image data, and wherein the apparatus is designed to determine the location of the at least one lateral boundary of the patient supporting apparatus on the basis of the location of the at least one partial segment , and wherein the determining device is designed to determine safety information about a configuration of the patient supporting apparatus on the basis of the location of the at least one lateral boundary , and wherein furthermore the determining device is designed to output alerting information on the basis of the safety information if the configuration of the patient supporting apparatus falls below a threshold value for a safety level, wherein the safety level represents a measure of an average height of the lateral boundary above a lying surface over the at least one partial segment .
A method, comprising: modifying access rights for a Wi-Fi network in response to a condition , the access rights having a prior state in which at least one user is not enabled to access to the Wi-Fi network, wherein modifying the access rights for the Wi-Fi network allows the at least one user without a Wi-Fi subscription to access the Wi-Fi network to enable traffic between the at least one user and a mobile network to be offloaded to the Wi-Fi network; returning the access rights back to their prior state when the condition is no longer met; wherein the condition is cell congestion within the mobile network. modifying access rights for a Wi-Fi network in response to a condition , the access rights having a prior state in which at least one user is not enabled to access to the Wi-Fi network, wherein modifying the access rights for the Wi-Fi network allows the at least one user without a Wi-Fi subscription to access the Wi-Fi network to enable traffic between the at least one user and a mobile network to be offloaded to the Wi-Fi network; returning the access rights back to their prior state when the condition is no longer met;
High pressure water-jet cutting machine designed with a sensor with a sensing component and a switching means for a control system, wherein the sensor is fixed to the cutting head mounting and a sensing component located opposite the mounting is adjustable towards the latter as a movable annular element in order to determine the distance between the focussing tube and the workpiece surface and, by means of a lateral loading, which is substantially parallel to the workpiece surface, of the sensing component by the switching means of the sensor , a deactivation of the cutting head movement and/or a deactivation of the cutting jet formation can be triggered, characterised in that the control system controls a setting of an impact point of the cutting jet on the workpiece in a targeted manner by means of a cutting head , which is movable in three dimensions in a mounting, and the annular element of the sensing component is designed as an open element and has a recess of 60° to 80°.
A method of preparing a material suitable for injection moulding, extrusion and/or thermoforming, where at least one thermoplastic is mixed with another material, characterized in that a mixture of particles of at least one substance from the first group, comprising thermoplastics and the precursors thereof, having a particle size of up to 10 mm, with at least one substance from the second group, comprising lignocellulosic substances, having a particle size of up to 35 mm, and inorganic substances with a particle size of up to 15 mm is formed, wherein a dry matter ratio of substances of the first group to a total dry matter of substances of the second group is from 0.1 to 3, wherein the mutual ratio of dry matter of lignocellulosic substances and dry matter of inorganic substances from the second group ranges from 0 to 10, the total input moisture of the mixture being at most 70% of the total weight of the mixture; the mixture is fed together with a propellant gas in an amount of 0.4 m 3 of the propellant gas per kg of the mixture to 1.5 m 3 of the propellant gas per kg of the mixture to the centre of a working area arranged between two coaxial circular plates within a mechanical-thermal integrator, which are provided with mechanical force pulse means to the mixture particles, wherein the two circular plates of the mechanical-thermal integrator rotate against each other, the mechanical force pulse means on each rotating plate impact at least twice with each particle of the mixture, the first mechanical force pulse given to the particles being effected by a collision of the particle with the mechanical force pulse means moving at a speed of at least 40 m·s -1 , wherein each subsequent mechanical force pulse to the particles takes place at least at the same intensity of mechanical force pulse compared to the previous pulse, thus heating and at least separating the particles in the mixture of the treated material, wherein the collisions between particles of substances from the first group and that ones from the second group provide mixture homogenization to form a fine-grained agglomerate of particles of mixture material with a moisture content of up to 2% by weight.
A computer implemented method for performing atlas-based segmentation using deep learning, the method comprising: applying a deep learning model to a subject image , the deep learning model trained to generate deep learning segmentation data that identifies an anatomical feature in the subject image, wherein the deep learning model comprises a convolutional neural network; registering an atlas image to the subject image, the atlas image being associated with annotation data that identifies the anatomical feature in the atlas image, wherein the registering uses the deep learning segmentation data to improve a registration result between the atlas image and the subject image by applying the deep learning segmentation data to determine an initial registration estimation or a constraint based on the anatomical feature identified in the subject image; generating a mapped atlas from registering the atlas image to the subject image; and identifying the anatomical feature in the subject image using the mapped atlas. applying a deep learning model to a subject image , the deep learning model trained to generate deep learning segmentation data that identifies an anatomical feature in the subject image, wherein the deep learning model comprises a convolutional neural network; registering an atlas image to the subject image, the atlas image being associated with annotation data that identifies the anatomical feature in the atlas image, wherein the registering uses the deep learning segmentation data to improve a registration result between the atlas image and the subject image by applying the deep learning segmentation data to determine an initial registration estimation or a constraint based on the anatomical feature identified in the subject image; generating a mapped atlas from registering the atlas image to the subject image; and identifying the anatomical feature in the subject image using the mapped atlas.
A photosensitive composition comprising: synthetic nanocrystalline hydroxyapatite or octacalcium phosphate doped with a rare earth ion, wherein the synthetic nanocrystalline hydroxyapatite or octacalcium phosphate is fluoride ion-substituted and is further doped with aluminium ions; monetite; and brushite. synthetic nanocrystalline hydroxyapatite or octacalcium phosphate doped with a rare earth ion, wherein the synthetic nanocrystalline hydroxyapatite or octacalcium phosphate is fluoride ion-substituted and is further doped with aluminium ions; monetite; and brushite.
A Molding suitable for functional or decorative purposes on vehicles, suitable to be used on/for the outside surface on vehicle doors (D), having a translucent body consisting of at least one piece, comprising at least a lighting unit in said body , the body being suitable to be positioned on to the exterior of a door plate (DP) such as to radiate light in one direction, at least an outer cover that is formed at the front section of the body that allows a homogeneous distribution of light, and a light-blocking layer on at least the outer surface of the outer cover, that provides regional opacity by limiting the radiance of light that is initially radiated from said lighting unit , from being radiated from the surface of the body , characterized in that , the lighting unit comprises a light-blocking apparatus that is formed of at least one piece and is located on inner side of the body between the door plate (DP) and the lighting unit , and that enables to block light at a top section direction and in door plate (DP) direction, such that the radiation area created by the lighting unit is limited by means of the light-blocking apparatus thereby preventing light from being radiated in afore-mentioned two directions.
Spectacle case made of a material body having rigid rectangular front side (a) and rear side (b) having rounded corners (g), where the rectangular front side (a) and rear side (b) are separated by means of a flexible rectangular central surface (c), and are folded to one another along the folding lines (d) and (e), wherein the rear side (b) is provided with a notch (f) curved inwardly on the rear side (b) and coming into contact with the nose pads, and the rectangular central surface (c) has sides (h) which are made of helical springs or elastic materials with similar properties, thus fastening the spectacle case on the glasses, and the glasses temples are folded out of the spectacle case.
Weapon system having the following features a first weapon configured to fire a first munition within a first corridor ; a second weapon configured to fire a second ammunition within a second corridor , wherein the first corridor and the second corridor overlap in an area where a collision of the first and second munitions poses a threat to a carrier platform of the weapon system; characterized by an interrupter unit , wherein the interrupter unit is configured to prevent the second weapon from firing when the first weapon is firing. a first weapon configured to fire a first munition within a first corridor ; a second weapon configured to fire a second ammunition within a second corridor , wherein the first corridor and the second corridor overlap in an area where a collision of the first and second munitions poses a threat to a carrier platform of the weapon system; characterized by an interrupter unit , wherein the interrupter unit is configured to prevent the second weapon from firing when the first weapon is firing.
A method for producing a polythiol compound, the method comprising: reacting a halide represented by the following Formula with an alkali metal compound selected from the group consisting of an alkali metal sulfide and an alkali metal hydroxide to obtain a polyol compound selected from the group consisting of a polyol compound represented by Formula and a polyol compound represented by Formula , in Formula , X represents a halogen atom, reacting the polyol compound with thiourea to obtain an isothiuronium salt; hydrolyzing the isothiuronium salt to obtain a polythiol salt; and converting the polythiol salt into a polythiol to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula , a polythiol compound represented by Formula , a polythiol compound represented by Formula , and a polythiol compound represented by Formula , wherein a content of ammonium thiocyanate in the thiourea is 0.05% by mass or less. hydrolyzing the isothiuronium salt to obtain a polythiol salt; and converting the polythiol salt into a polythiol to obtain one or more polythiol compounds selected from the group consisting of a polythiol compound represented by Formula , a polythiol compound represented by Formula , a polythiol compound represented by Formula , and a polythiol compound represented by Formula , wherein a content of ammonium thiocyanate in the thiourea is 0.05% by mass or less.
An optical glass having refractive index (n d ) of from 1.71 to 2.00, density (d) of at most 5.0 g/cm 3 , a temperature T 2 at which the viscosity of the glass is logη=2 of from 750 to 1,200°C, and devitrification temperature of at most 1,300°C, and which contains, as represented by mol% based on oxides: TiO 2 : 0% to 21.5%, Nb 2 O 5 : 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2 , ZrO 2 , WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2 : 46% to 65%. density (d) of at most 5.0 g/cm 3 , a temperature T 2 at which the viscosity of the glass is logη=2 of from 750 to 1,200°C, and devitrification temperature of at most 1,300°C, and which contains, as represented by mol% based on oxides: TiO 2 : 0% to 21.5%, Nb 2 O 5 : 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2 , ZrO 2 , WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2 : 46% to 65%. TiO 2 : 0% to 21.5%, Nb 2 O 5 : 3% to 35%, at least one member selected from the group consisting of BaO, TiO 2 , ZrO 2 , WOs and Ln 2 O 3 (wherein Ln is at least one member selected from the group consisting of Y, La, Gd, Yb and Lu): 0% to 30%, and SiO 2 : 46% to 65%.
A computer implemented method for designing a 3D modeled object that represents a mechanical part, the 3D modeled object being defined by a B-Rep ( S ), the method comprising: • selecting a group of faces ( f 1 , f 2 , f 3 , f 4 ) of the B-Rep; • defining a trajectory ( W ( t )( f i ) t ∈ ) for each respective face ( f i ) of the group of faces; • computing, for each face of the group of faces, a respective swept volume ( A 1 ,R 2 ,R 3 ,A 4 ), the swept volume corresponding to the volume swept (U t ∈ W ( t )( f i )) by the respective face ( f i ) with respect to the trajectory; • assigning (S32-S36) a material removal label ( R ) or a material adding label ( A ) to each swept volume, according to the position of the swept volume at the respective face with respect to the interior of the 3D modeled object; • updating the B-Rep ( S' = ( S - M - ) U M + ) with a material removal volume and then a material adding volume, the material adding volume ( M + ) corresponding to the union (( A 1 - R 3 ) U ( A 4 - R 2 )) of all swept volumes having a material adding label, each respective swept volume having a material adding label being in the union subtracted by all swept volumes ( R 3 , R 2 ) having a material removal label and an end face ( f 2 1 , f 3 1 ) that collides with the respective swept volume having a material adding label, the material removal volume ( M - ) corresponding to the union (( R 2 - A 4 ) ∪ ( R 3 - A 1 )) of all swept volumes having a material removal label, each respective swept volume having a material removal label being in the union subtracted by all swept volumes ( A 1 , A 4 ) having a material adding label and a start face ( f 1 0 , f 4 0 ) that collides with the respective swept volume having a material removal label. • selecting a group of faces ( f 1 , f 2 , f 3 , f 4 ) of the B-Rep; • defining a trajectory ( W ( t )( f i ) t ∈ ) for each respective face ( f i ) of the group of faces; • computing, for each face of the group of faces, a respective swept volume ( A 1 ,R 2 ,R 3 ,A 4 ), the swept volume corresponding to the volume swept (U t ∈ W ( t )( f i )) by the respective face ( f i ) with respect to the trajectory; • assigning (S32-S36) a material removal label ( R ) or a material adding label ( A ) to each swept volume, according to the position of the swept volume at the respective face with respect to the interior of the 3D modeled object; • updating the B-Rep ( S' = ( S - M - ) U M + ) with a material removal volume and then a material adding volume,
Method for operating a controllable converter with an intermediate circuit capacitor , wherein the controllable converter is connected to a motor , wherein an additional power component (P add ) is transmitted via the controllable converter in dependence on an intermediate circuit voltage (U ZK ) applied to the intermediate circuit capacitor in such a way that the electric current produced for the additional power component counteracts oscillation of the intermediate circuit voltage (U ZK ) by means of the controllable converter , wherein the additional power component (P add ) is transmitted to the motor in the form of a pulsating additional torque by means of the controllable converter , wherein the intermediate circuit capacitor is embodied as a film capacitor, wherein the additional power component (P add ) is only transmitted if a periodic oscillation of the intermediate circuit voltage (U ZK ) is detected and this periodic oscillation lies in a predetermined frequency range, wherein the predetermined frequency range comprises a resonant frequency from the intermediate circuit capacitor and motor inductance of the motor .
A system for deployment and collection of road sticks in the roadside along a road, wherein the system is arranged on a wheel-going vehicle and comprises blister boxes for accommodation of numerous road sticks , and a stick-deployment device having means to pile one single road stick down into the ground while the wheel-going vehicle is in continuous motion, wherein the system comprises a loading frame arranged on the vehicle and having a loading platform , wherein the blister boxes are arranged on the loading platform , wherein the system further exhibits an elongate stick handling frame with a first clamp mounted to a rear end of the loading frame viewed in the driving direction, and a second clamp mounted to a forward end of the loading frame viewed in the driving direction, wherein the first and second clamp are attached pivotal to the loading frame about an axis parallel with the driving direction, wherein the stick handling frame further exhibits an elongate beam provided on the first and second clamps, the stick-deployment device being mounted to the beam and arranged to move back and forth along the stick handling frame with a slide and hold one of said sticks accommodated in the same in a fixed position above the ground while the wheel-going vehicle is in motion, wherein the stick handling frame further exhibits a stick fetching device mounted movable to the stick handling frame and arranged to exchange a road stick between a blister box on the loading frame and the stick-deployment device .
A steering control device that controls a steering system that includes an actuator to control operation of the actuator , the steering control device comprising: an angular speed control circuit that performs feedback control on the actuator in the case where a steering angle (θh) of the steering wheel reaches a steering limit of the steering angle (θh) and the steering wheel is moved back from the steering limit, the feedback control being performed such that an angular speed (ωh) of a rotational angle of a rotary shaft that is convertible into the steering angle (θh) coincides with a target angular speed (ωh*) that is a target value for the angular speed (ωh) and that is set in accordance with the rotational angle, the angular speed (ωh) being computed on the basis of the rotational angle, characterized in that the actuator generates torque to be applied to a steering wheel , and the steering control device further comprises a reaction force control circuit that controls the actuator so as to make it more difficult to steer the steering wheel forth toward the steering limit as the steering angle (θh) becomes closer to the steering limit. an angular speed control circuit that performs feedback control on the actuator in the case where a steering angle (θh) of the steering wheel reaches a steering limit of the steering angle (θh) and the steering wheel is moved back from the steering limit, the feedback control being performed such that an angular speed (ωh) of a rotational angle of a rotary shaft that is convertible into the steering angle (θh) coincides with a target angular speed (ωh*) that is a target value for the angular speed (ωh) and that is set in accordance with the rotational angle, the angular speed (ωh) being computed on the basis of the rotational angle, characterized in that the actuator generates torque to be applied to a steering wheel , and the steering control device further comprises a reaction force control circuit that controls the actuator so as to make it more difficult to steer the steering wheel forth toward the steering limit as the steering angle (θh) becomes closer to the steering limit.