mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of generating a 3D model for dental simulation, comprising: reading a STL file describing the surface of a 3D object as a mesh of triangles having a volume , whereby said 3D object represents a tooth; generating a voxel grid encompassing the 3D object, wherein the voxel grid contains a plurality of voxels ; identifying a subset of voxels of the plurality of voxels which are located within the volume of the 3D object, wherein identifying the subset comprises raster scanning each grid line of the voxel grid to identify points on the grid lines which intersect with the surface triangles of the 3D object and identifying said subset of voxels using the facet normals of the surface triangles. generating a triangulated surface mesh using said intersection points, wherein the triangulated surface mesh surrounds the subset of voxels and defines the outer surface of the 3D model ; assigning a density value to each voxel in the subset of voxels, wherein the subset of voxels defines the solid volume of the 3D model, wherein different voxels in the subset of voxels have different density values ;loading the 3D model into a dental simulation machine. reading a STL file describing the surface of a 3D object as a mesh of triangles having a volume , whereby said 3D object represents a tooth; generating a voxel grid encompassing the 3D object, wherein the voxel grid contains a plurality of voxels ; identifying a subset of voxels of the plurality of voxels which are located within the volume of the 3D object, wherein identifying the subset comprises raster scanning each grid line of the voxel grid to identify points on the grid lines which intersect with the surface triangles of the 3D object and identifying said subset of voxels using the facet normals of the surface triangles. generating a triangulated surface mesh using said intersection points, wherein the triangulated surface mesh surrounds the subset of voxels and defines the outer surface of the 3D model ; assigning a density value to each voxel in the subset of voxels, wherein the subset of voxels defines the solid volume of the 3D model, wherein different voxels in the subset of voxels have different density values ;loading the 3D model into a dental simulation machine.
An optically diffusive plastic comprising: 40 to 94.9 mass% of a polymer resin matrix; 5 to 50 mass% of a glass filler; and 0.1 to 10 mass% of a light diffusing component; wherein the difference between refractive index of the polymer resin matrix and refractive index of the glass filler is 0.002 to 0.02; wherein a 1 mm thick sample of the optically diffusive plastic comprises DLD value of greater than or equal to 1° as measured by goniophotometry, and a total transmittance of greater than or equal to 40% for incident light having a wavelength of 360 nm to 750 nm in air as determined by ASTM D1003 Procedure A, using CIE standard illuminant D65, and at least one of wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023. 40 to 94.9 mass% of a polymer resin matrix; 5 to 50 mass% of a glass filler; and 0.1 to 10 mass% of a light diffusing component; wherein the difference between refractive index of the polymer resin matrix and refractive index of the glass filler is 0.002 to 0.02; wherein a 1 mm thick sample of the optically diffusive plastic comprises DLD value of greater than or equal to 1° as measured by goniophotometry, and a total transmittance of greater than or equal to 40% for incident light having a wavelength of 360 nm to 750 nm in air as determined by ASTM D1003 Procedure A, using CIE standard illuminant D65, and at least one of wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023. wherein a 3.2 mm thick sample of the optically diffusive plastic comprises a flexural modulus, measured at 23 °C, of greater than or equal to 2,500 MPa as determined by ASTM D790; and wherein a test sample of the optically diffusive plastic having a thickness of 1 mm, a width of 13.2 mm, and a length of 121 mm, is extended across a span of 60 mm exhibits a deflection of less than or equal to 10 mm when subjected to a load of 1 kgf applied by a load head having a 5 mm diameter and positioned in the center of the sample and center of the span in accordance to ASTM D5023.
Vehicle bumper, characterized in that it comprises at least one part made of elastic material having a curved frontal portion forming an internal cavity , the frontal portion having orifices that allow said cavity to communicate with the exterior of said elastic part, at least one cell of marking fluid being provided within the cavity, the cell or cells comprising an envelope made of a material and of dimensions such that the envelope of the cells ruptures when subjected to a given pressure, and in that it also comprises attachment means intended for attachment to said vehicle .
Winding device arranged for the fastening thereof to a structure of a watch including a case containing at least one barrel , a stem , movable with respect to said case , for controlling at least the hand-setting function, said winding device including a retractable and telescopically extendable bayonet push-piece , including, between a pipe arranged to be fastened to said case and a user-actuatable head which carries a control member , first elastic return means tending to move said head away from said pipe , said head being movable in translation with respect to the longitudinal axis of said pipe , between two extreme end positions, which are a stop position (PB), wherein said head is as close as possible to said case , and in which stop position (PB) said head has one rotational degree of freedom with respect to the longitudinal axis of said pipe , and an activated position (PA) which is a position of maximum elongation, more easily accessible to the user, and wherein said head is indexed in rotation with respect to said case in an indexed angular position, said head being capable of occupying, between said two stop (PB) and activated (PA) positions, a rest position (PR) wherein said head is capable of being immobilised longitudinally with respect to said pipe , in at least one angular locking position which is different from said indexed angular position, said push-piece , which is independent of said stem , being dedicated exclusively to the winding function and being arranged to indirectly drive at least the drum of a said barrel or a ratchet-wheel in order to wind a said barrel , said control member being movable linearly and arranged, upon a user action, for driving at least one movable rack against second elastic return means , said at least one rack being slidably mounted and guided by guide means or by at least two supports , and cooperating with a winding wheel set which meshes with an intermediate rack actuated by at least one return spring included in said second elastic return means .
A method of producing a sheet-shaped cell population with a high target cell purity, comprising: a step of changing a character of contaminating cells in a cell population including target cells and the contaminating cells; a step of removing the contaminating cells and/or collecting the target cells, on the basis of the changed character, and a step of culturing the target cell population into a sheet shape; wherein the contaminating cells are fibroblasts, the target cells are skeletal myoblasts, and wherein the step of changing the character of contaminating cells comprises conversion of fibroblasts into fat cells, megakaryocytes, platelets, hepatocyte-like cells, macrophage-like cells, neurons, or cardiac muscle cells. a step of changing a character of contaminating cells in a cell population including target cells and the contaminating cells; a step of removing the contaminating cells and/or collecting the target cells, on the basis of the changed character, and a step of culturing the target cell population into a sheet shape; wherein the contaminating cells are fibroblasts, the target cells are skeletal myoblasts, and wherein the step of changing the character of contaminating cells comprises conversion of fibroblasts into fat cells, megakaryocytes, platelets, hepatocyte-like cells, macrophage-like cells, neurons, or cardiac muscle cells.
A method performed by a receiver for estimating first large-scale channel properties associated to a first channel, wherein the first channel is associated to a first transmitter and second large-scale channel properties associated to a second channel, wherein the second channel is associated to a second transmitter, the method comprising: - receiving a first signal transmitted by the first transmitter and further receiving at least a second signal transmitted by the second transmitter, wherein the first and the second transmitters are synchronised to a common synchronisation reference, and wherein the first signal comprises a first reference signal and the second signal comprises a second reference signal; - jointly estimating the first large-scale channel properties and the second large-scale channel properties based on the first reference signal and the second reference signal; and - associating the jointly estimated first and second large-scale channel properties to the first channel associated to the first transmitter and to the second channel associated to the second transmitter, wherein the associated jointly estimated first and second large-scale channel properties are exploited to perform demodulation of data transmitted by the first transmitter and the second transmitter, and wherein the demodulation of the data transmitted by the first transmitter and the second transmitter is performed using the first reference signal. - receiving a first signal transmitted by the first transmitter and further receiving at least a second signal transmitted by the second transmitter, wherein the first and the second transmitters are synchronised to a common synchronisation reference, and wherein the first signal comprises a first reference signal and the second signal comprises a second reference signal; - jointly estimating the first large-scale channel properties and the second large-scale channel properties based on the first reference signal and the second reference signal; and - associating the jointly estimated first and second large-scale channel properties to the first channel associated to the first transmitter and to the second channel associated to the second transmitter, wherein the associated jointly estimated first and second large-scale channel properties are exploited to perform demodulation of data transmitted by the first transmitter and the second transmitter, and wherein the demodulation of the data transmitted by the first transmitter and the second transmitter is performed using the first reference signal.
A method for control of braking by means of at least one supplementary brake (290- 296) of a motor vehicle, comprising the steps of - choosing (s410) supplementary braking action by means of a manual control device , characterised by the steps of - continuously determining (s420) a total available supplementary brake torque (Mtot), - determining (s430) by means of said control device a chosen proportion (Mshare) of said total available supplementary brake torque (Mtot), - determining (s440) a supplementary brake torque (Mtot*) corresponding to said chosen proportion (Mshare), - using a prevailing vehicle speed as a basis for apportioning (s450) said supplementary brake torque determined (Mtot*) to least one chosen supplementary brake (290-296) in order to achieve the chosen supplementary braking action. - choosing (s410) supplementary braking action by means of a manual control device , characterised by the steps of - continuously determining (s420) a total available supplementary brake torque (Mtot), - determining (s430) by means of said control device a chosen proportion (Mshare) of said total available supplementary brake torque (Mtot), - determining (s440) a supplementary brake torque (Mtot*) corresponding to said chosen proportion (Mshare), - using a prevailing vehicle speed as a basis for apportioning (s450) said supplementary brake torque determined (Mtot*) to least one chosen supplementary brake (290-296) in order to achieve the chosen supplementary braking action.
A compound Cur-[G2]-OH with formula: for use in a method of sensitizing multiresistant tumors in humans by administering the compound prior to the administration of an anticancer therapy, wherein said anticancer therapy is a therapy based on the induction of oxidative stress and is a therapy with a chemotherapeutic agent.
Method for exchanging data between a server and a client in an industrial data network, wherein the server employs a first information model for information interchange, and wherein the client employs a second information model for information interchange, wherein - in a first step, performed by a converting unit, converting the first and the second information models in a first and a second machine-interpretable description, - in a second step, performed by a deducing unit, deducing similarities between elements of the first and the second machine-interpretable description, - in a third step, performed by a suggestion unit and based on the deduced similarities in text and in structure, proposing and implementing a mapping of at least one element of the first information model to an element of the second information model, and - in a fourth step, employing, by a gateway entity, the mapping for a data exchange between the server and the client . - in a first step, performed by a converting unit, converting the first and the second information models in a first and a second machine-interpretable description, - in a second step, performed by a deducing unit, deducing similarities between elements of the first and the second machine-interpretable description, - in a third step, performed by a suggestion unit and based on the deduced similarities in text and in structure, proposing and implementing a mapping of at least one element of the first information model to an element of the second information model, and - in a fourth step, employing, by a gateway entity, the mapping for a data exchange between the server and the client .
Pharmaceutical tablet composition comprising eltrombopag olamine as active ingredient and one or more pharmaceutically acceptable excipients including one or more reducing sugars, characterized in that the composition comprises or consists of a) eltrombopag olamine in a therapeutically effective amount, b) lactose as reducing sugar, and c) povidone as polymeric binder agent, with the proviso that in case the pharmaceutical tablet composition is obtained by granulation compression exhibiting an intragranular composition and an extragranular composition, the eltrombopag olamine, the reducing sugar and the polymeric binder agent are present in the same composition. a) eltrombopag olamine in a therapeutically effective amount, b) lactose as reducing sugar, and c) povidone as polymeric binder agent, with the proviso that in case the pharmaceutical tablet composition is obtained by granulation compression exhibiting an intragranular composition and an extragranular composition, the eltrombopag olamine, the reducing sugar and the polymeric binder agent are present in the same composition.
A dynamic beamforming method applicable to a base station, the method comprising: transmitting a first reference signal (S851); transmitting a first configuration message comprising a first oversampling rate of a first dimension associated with a two dimensional codebook and a first oversampling rate of a second dimension associated with the two dimensional codebook (S852); receiving a first information feedback of the first reference signal based on the first oversampling rate of the first dimension associated with the two dimensional codebook and the first oversampling rate of the second dimension associated with the two dimensional codebook in response to transmitting the first configuration message (S853); and transmitting a second configuration message comprising a second oversampling rate of the first dimension associated with the two dimensional codebook and a second oversampling rate of the second dimension associated with the two dimensional codebook after receiving the first information feedback of the first reference signal (S854), wherein the second oversampling rate of the first dimension is greater or less than the first oversampling rate of the first dimension. transmitting a first reference signal (S851); transmitting a first configuration message comprising a first oversampling rate of a first dimension associated with a two dimensional codebook and a first oversampling rate of a second dimension associated with the two dimensional codebook (S852); receiving a first information feedback of the first reference signal based on the first oversampling rate of the first dimension associated with the two dimensional codebook and the first oversampling rate of the second dimension associated with the two dimensional codebook in response to transmitting the first configuration message (S853); and transmitting a second configuration message comprising a second oversampling rate of the first dimension associated with the two dimensional codebook and a second oversampling rate of the second dimension associated with the two dimensional codebook after receiving the first information feedback of the first reference signal (S854), wherein the second oversampling rate of the first dimension is greater or less than the first oversampling rate of the first dimension.
A method for the generative production of a three-dimensional object from a material which can be solidified by cooling and which has a temperature-dependent viscosity, wherein the material which can be solidified by cooling is kept as a fluid in at least one material reservoir which has a nozzle with a nozzle opening (4.1), at a predetermined temperature and under a predetermined pressure, and the nozzle and an object carrier , on which the three-dimensional object is to be produced, are moved three-dimensionally relative to one another, partial volumes of the fluid being discharged onto the object carrier in a controllable manner through the nozzle opening (4.1) of the nozzle , wherein, for the purpose of the controlled discharge of the partial volumes of the fluid, the nozzle is heated independently of the material reservoir by at least one radiation-transmitting unit so that, by means of a temporally and/or power-controlled energy input by a laser radiation (6.1) from at least one laser radiation source , the temperature of a partial volume of the fluid is raised to a passage temperature above the predetermined temperature, at which the viscosity of the partial volume adjacent to the nozzle is so low that the partial volume is ejected through the nozzle opening (4.1) under the predetermined pressure.
Structure for fabricating integrated circuits (IC) which are intended to perform an electromagnetic lens function for a reconfigurable transmitarray antenna , the structure comprising: - a first wafer (W1), comprising a set of first active components (C1) which are configured to generate a phase shift, and having opposite first and second surfaces (W10, W11); - a first metal layer (M1), formed on the first surface (W10) of the first wafer (W1); - a first interconnect structure , formed on the second surface (W11) of the first wafer (W1), and electrically connected to the first active components (C1); the first interconnect structure comprising first biasing lines which are arranged to bias the first active components (C1); - a set of first planar antennas (A1), which is formed on the first interconnect structure so that each first planar antenna (A1) is electrically connected to the first active components (C1) and so that the first planar antennas (A1) are electrically insulated from one another; - a second wafer (W2), having opposite first and second surfaces (W20, W21); - a second metal layer (M2), formed on the first surface (W20) of the second wafer (W2); - a set of second planar antennas (A2), which is formed on the second surface (W21) of the second wafer (W2) so that the second planar antennas (A2) are electrically insulated from one another; the first and second wafers (W1, W2) being assembled via the first and second metal layers (M1, M2) so that the sets of first and second planar antennas (A1, A2) are aligned, the first and second metal layers (M1, M2) forming a ground plane (PM). - a first wafer (W1), comprising a set of first active components (C1) which are configured to generate a phase shift, and having opposite first and second surfaces (W10, W11); - a first metal layer (M1), formed on the first surface (W10) of the first wafer (W1); - a first interconnect structure , formed on the second surface (W11) of the first wafer (W1), and electrically connected to the first active components (C1); the first interconnect structure comprising first biasing lines which are arranged to bias the first active components (C1); - a set of first planar antennas (A1), which is formed on the first interconnect structure so that each first planar antenna (A1) is electrically connected to the first active components (C1) and so that the first planar antennas (A1) are electrically insulated from one another; - a second wafer (W2), having opposite first and second surfaces (W20, W21); - a second metal layer (M2), formed on the first surface (W20) of the second wafer (W2); - a set of second planar antennas (A2), which is formed on the second surface (W21) of the second wafer (W2) so that the second planar antennas (A2) are electrically insulated from one another;