mhurhangee/ep-ind-claims huggingface dataset:
A method for printing three-dimensionally a part, comprising a succession of steps during each of which a solid or honeycomb layer of the part to be obtained is produced, each of these steps comprising passing a thermoplastic filament through a heating element to liquefy it, then passing the liquefied thermoplastic filament through at least one nozzle having an outlet cross-section, then depositing the liquefied thermoplastic filament coming out of said at least one nozzle and simultaneously moving said at least one nozzle along a determined path, the entirety of which corresponds to the layer of the part to be obtained, wherein, during at least one step of producing a layer by filling, use is made of a said at least one nozzle, an outlet segment of which has an outlet cross-section that can vary between a first, maximum cross-section and a second, minimum cross-section, and in that the cross-section of at least one portion of said outlet segment of said at least one nozzle is made to vary along at least one portion (32a, 32b) of the determined path, characterized in that it comprises an initial step of producing a layer, prior to said at least one step of producing a layer by filling, during which said at least one nozzle having its second minimum cross-section is used to deposit an outline of said layer, so as to construct an outer wall delimiting the layer. wherein, during at least one step of producing a layer by filling, use is made of a said at least one nozzle, an outlet segment of which has an outlet cross-section that can vary between a first, maximum cross-section and a second, minimum cross-section, and in that the cross-section of at least one portion of said outlet segment of said at least one nozzle is made to vary along at least one portion (32a, 32b) of the determined path, characterized in that it comprises an initial step of producing a layer, prior to said at least one step of producing a layer by filling, during which said at least one nozzle having its second minimum cross-section is used to deposit an outline of said layer, so as to construct an outer wall delimiting the layer.
Lighting apparatus comprising a blue LED chip having maximum peak at a wavelength of 420 to 480 nm and a phosphor-containing resin layer disposed in front of the blue LED chip in its emission direction, wherein the phosphor-containing resin layer comprises a LuAG phosphor having the following compositional formula: Lu 3 Al 5 O 12: Ce 3+ and a Ce activation rate in relation to Lu of up to 2 mol%, and a complex fluoride phosphor having the following compositional formula: A 2 (B 1-x Mn x)F 6 wherein A is at least one element selected from the group consisting of Li, Na, K, and Cs; B is at least one element selected from the group consisting of Si, Ti, Nb, Ge, and Sn; and x is a positive number satisfying 0.001 ≤ x ≤ 0.1, and the LuAG phosphor and the complex fluoride phosphor are added and dispersed in a resin, and wherein in the emission spectrum from the lighting apparatus the ratio S1/S2 is at least 0.5 and up to 0.9, S1 being the intensity of the broad emission peak near wavelength 460 to 620 nm and S2 being the intensity of the emission peak of the emission line spectrum near 630 nm, and the Δuv value of the emission color is in the range -0.03 to +0.03. wherein A is at least one element selected from the group consisting of Li, Na, K, and Cs; B is at least one element selected from the group consisting of Si, Ti, Nb, Ge, and Sn; and x is a positive number satisfying 0.001 ≤ x ≤ 0.1, and the LuAG phosphor and the complex fluoride phosphor are added and dispersed in a resin, and wherein in the emission spectrum from the lighting apparatus the ratio S1/S2 is at least 0.5 and up to 0.9, S1 being the intensity of the broad emission peak near wavelength 460 to 620 nm and S2 being the intensity of the emission peak of the emission line spectrum near 630 nm, and the Δuv value of the emission color is in the range -0.03 to +0.03.
A wind farm, comprising: at least two first-direction wind power generation units (A1 to A3, A'1', A'2', B1 to B3, B'1', B'2', C1 to C3) that are spaced apart from each other at a predetermined interval and have blades that rotate in a same rotational direction; and at least one second-direction wind power generation unit (A'1, A1', A'2, A2', B'1, B1', B'2, B2', C1', C2') that is located adjacent to and between the first-direction wind power generation units (A1 to A3, A'1', A'2', B1 to B3, B'1', B'2', C1 to C3); wherein each of the wind power generation units further comprises a controller configured to individually control a rotational speed of the blades of the wind power generation unit, to determine a control mode or a normal mode of the respective wind power generation unit and to control the rotational speed of the blades to be decelerated when the respective wind power generation unit is determined to be in the control mode; characterized in that the least one second-direction wind power generation unit (A'1, A1', A'2, A2', B'1, B1', B'2, B2', C1', C2') has blades that rotate in an opposite direction to the rotational direction of the first-direction wind power generation units (A1 to A3, A'1', A'2', B1 to B3, B'1', B'2', C1 to C3); and at least one wind power generating unit of the first-direction and second-direction wind power generation units includes a vibration sensor that senses vibration of rotating blades; wherein the controller of each of the wind power generation units is configured to individually control the rotational speed of the blades of the respective wind power generation unit according to a degree of vibration measured by the vibration sensor, and to determine the control mode when the degree of vibration is more than a predetermined value, and determine the normal mode when the degree of vibration is less than the predetermined value. at least two first-direction wind power generation units (A1 to A3, A'1', A'2', B1 to B3, B'1', B'2', C1 to C3) that are spaced apart from each other at a predetermined interval and have blades that rotate in a same rotational direction; and at least one second-direction wind power generation unit (A'1, A1', A'2, A2', B'1, B1', B'2, B2', C1', C2') that is located adjacent to and between the first-direction wind power generation units (A1 to A3, A'1', A'2', B1 to B3, B'1', B'2', C1 to C3);
An apparatus for use with a spark plug, a battery and a cylinder head cover having a cylindrical bore with a key (110, 112, 114) projecting radially inward of the bore, the apparatus comprising: an ignition coil having a low voltage terminal configured for connection with the battery, a high voltage terminal configured for connection with the spark plug, windings interconnecting the terminals, and a case for the windings and the terminals; wherein the case has a cylindrical portion with a central axis, a rotational locator surface and an insertion guide groove configured to receive the key in the bore; wherein the groove has a helical section configured to receive the key (110, 112, 114) when the case is in a first rotational orientation, and the helical section is further configured for the rotational locator surface to move into abutment with the key upon rotation of the case from the first rotational orientation to a second rotational orientation. an ignition coil having a low voltage terminal configured for connection with the battery, a high voltage terminal configured for connection with the spark plug, windings interconnecting the terminals, and a case for the windings and the terminals; wherein the case has a cylindrical portion with a central axis, a rotational locator surface and an insertion guide groove configured to receive the key in the bore; wherein the groove has a helical section configured to receive the key (110, 112, 114) when the case is in a first rotational orientation, and the helical section is further configured for the rotational locator surface to move into abutment with the key upon rotation of the case from the first rotational orientation to a second rotational orientation.
A process for preparing a polymeric foam article, the process comprising: a. providing a first polymeric foam comprising at least one weight percent of an infrared absorbing agent relative to the entire first foam weight prepared using a blowing agent comprising carbon dioxide; and b. providing a second polymeric foam; and c. affixing the first and second foams together in a layered orientation to produce a polymeric foam article having a thickness of at least 50 millimeters that is dimensionally stable wherein the first and second foams each have a primary surface and the primary surface of the first foam is affixed to the primary surface of the second foam; wherein at least 50% of the primary surfaces of the first and second foam that are adhered to one another are free of surface skin. a. providing a first polymeric foam comprising at least one weight percent of an infrared absorbing agent relative to the entire first foam weight prepared using a blowing agent comprising carbon dioxide; and b. providing a second polymeric foam; and c. affixing the first and second foams together in a layered orientation to produce a polymeric foam article having a thickness of at least 50 millimeters that is dimensionally stable wherein the first and second foams each have a primary surface and the primary surface of the first foam is affixed to the primary surface of the second foam; wherein at least 50% of the primary surfaces of the first and second foam that are adhered to one another are free of surface skin.
A computer-implemented method for compressing a digital representation of an object, the object representation comprising a plurality of image information of the object, an image information indicating a value of a measured variable for the object at a defined position of the object, the method comprising the steps of: - determining the object representation, - determining a distance field from the image information of the object representation, the distance field having a multiplicity of data points arranged in a grid, the object representation being superimposed by the distance field, the distance field assigning at least one distance value in each case to the data points, the distance value indicating in each case the shortest distance of the data point to a nearest material boundary surface of the object, the shortest distance being perpendicular to the material boundary surface, a material boundary surface having a transition from a first material to a second material, in particular air, - determining a proximity area around a material boundary surface of the object indicating an area within a predefined distance around the material boundary surface, - determining a subset of data points of the distance field that lie outside of the proximity area of the material boundary surface, - deleting the subset of data points from the distance field, - storing the distance field as a compressed object representation, characterized in that the proximity area of a material boundary surface is defined by a limit value for a distance value of a data point, the respective distance values of the data points of the subset of data points being greater than the limit value, the limit value for the distance having a different numerical value in each case for different regions of the object representation. - determining the object representation, - determining a distance field from the image information of the object representation, the distance field having a multiplicity of data points arranged in a grid, the object representation being superimposed by the distance field, the distance field assigning at least one distance value in each case to the data points, the distance value indicating in each case the shortest distance of the data point to a nearest material boundary surface of the object, the shortest distance being perpendicular to the material boundary surface, a material boundary surface having a transition from a first material to a second material, in particular air, - determining a proximity area around a material boundary surface of the object indicating an area within a predefined distance around the material boundary surface, - determining a subset of data points of the distance field that lie outside of the proximity area of the material boundary surface, - deleting the subset of data points from the distance field, - storing the distance field as a compressed object representation,
Method for degradation of plastics comprising the steps: (i) provision of at least one plastic in at least one solvent in a reactor; (ii) addition of at least one catalyst, selected from methanolate; (iii) treatment of the mixture obtained in step (ii) at temperatures of 30-250 °C and/or at pressures from > 1 to 100 bar; and (iv) optionally separation of the mixture obtained in step (iii), wherein the plastic is polyurethane, and wherein the solvent is methanol or ethanol. (i) provision of at least one plastic in at least one solvent in a reactor; (ii) addition of at least one catalyst, selected from methanolate; (iii) treatment of the mixture obtained in step (ii) at temperatures of 30-250 °C and/or at pressures from > 1 to 100 bar; and (iv) optionally separation of the mixture obtained in step (iii),
A method for operating a base station in a wireless communication system, the method comprising: mapping Quadrature Amplitude Modulation, QAM, symbols into subcarriers according to a ratio of a number of allocated subcarriers to be used for a transmission to a number of nulling subcarriers to be unused for said transmission; applying a permutation to the subcarriers; and transmitting, to a terminal, the modulation symbols through the subcarriers on which the permutation is applied, wherein the ratio is determined based on channel quality information and a non-Gaussianity measure of the channel between the base station and the terminal. mapping Quadrature Amplitude Modulation, QAM, symbols into subcarriers according to a ratio of a number of allocated subcarriers to be used for a transmission to a number of nulling subcarriers to be unused for said transmission; applying a permutation to the subcarriers; and transmitting, to a terminal, the modulation symbols through the subcarriers on which the permutation is applied, wherein the ratio is determined based on channel quality information and a non-Gaussianity measure of the channel between the base station and the terminal.
A method, comprising: at an electronic device (100, 300, 15800) with a display (112, 340, 450, 15802) and a touch-sensitive surface (112, 355, 451, 15804), wherein the device includes one or more sensors (165, 359, 15806) to detect intensity of contacts with the touch-sensitive surface: displaying a respective control icon with simulated three-dimensional characteristics; displaying a cursor over the respective control icon; detecting, on the touch-sensitive surface, a stationary press input that includes an increase in intensity of a contact that corresponds to the cursor; and in response to detecting the stationary press input: changing an appearance of the respective control icon in accordance with the simulated three-dimensional characteristics of the respective control icon; and moving the cursor laterally on the display in accordance with the change in appearance of the respective control icon so that the cursor is stationary relative to the respective control icon and the cursor moves laterally relative to a background. displaying a respective control icon with simulated three-dimensional characteristics; displaying a cursor over the respective control icon; detecting, on the touch-sensitive surface, a stationary press input that includes an increase in intensity of a contact that corresponds to the cursor; and in response to detecting the stationary press input: changing an appearance of the respective control icon in accordance with the simulated three-dimensional characteristics of the respective control icon; and moving the cursor laterally on the display in accordance with the change in appearance of the respective control icon so that the cursor is stationary relative to the respective control icon and the cursor moves laterally relative to a background.
A method in a network node for transmitting mobility measurement signals, the method comprising: transmitting, to a wireless device, a first mobility measurement signal component comprising a beam group ID information for a mobility measurement signal group, wherein the first mobility measurement signal component is repeated by multiple beams, and wherein the beam group ID information is operable to be used by the wireless device to detect a second mobility measurement signal component; transmitting, to the wireless device, the second mobility measurement signal component comprising measurement features and beam ID information for beams belonging to the mobility measurement signal group, wherein the measurement features comprise resource elements, RE, that are operable to be measured by the wireless device, and wherein the first mobility measurement signal component and the second mobility measurement signal component are transmitted as a single signal. transmitting, to a wireless device, a first mobility measurement signal component comprising a beam group ID information for a mobility measurement signal group, wherein the first mobility measurement signal component is repeated by multiple beams, and wherein the beam group ID information is operable to be used by the wireless device to detect a second mobility measurement signal component; transmitting, to the wireless device, the second mobility measurement signal component comprising measurement features and beam ID information for beams belonging to the mobility measurement signal group, wherein the measurement features comprise resource elements, RE, that are operable to be measured by the wireless device, and wherein the first mobility measurement signal component and the second mobility measurement signal component are transmitted as a single signal.
Bearing arrangement having a first bearing ring and a second bearing ring, which is mounted in a rotatable manner in relation to the first bearing ring, wherein the first bearing ring has arranged on it a plurality of hydrostatically supported sliding-bearing segments, which are spaced apart from one another in a circumferential direction of the first bearing ring, wherein each sliding-bearing segment interacts with a first sliding surface, which is arranged on the second bearing ring, wherein each sliding-bearing segment has a first sub-element and a second sub-element, wherein the first sub-element is received in a receptacle pocket of the first bearing ring such that a first compression chamber is formed between the first bearing ring and the first sub-element, wherein the first sub-element and the second sub-element are designed such that a second compression chamber is formed between the first sub-element and the second sub-element, wherein the second sub-element and the second bearing ring are designed such that a third compression chamber is formed between the second sub-element and the second bearing ring, wherein a first surface of the first sub-element interacts with a second surface of the second sub-element, wherein the first surface is curved convexly or concavely and the second surface is formed in a manner complementary to the first surface, wherein the first compression chamber has a first hydrostatically active projection surface, the second compression chamber has a second hydrostatically active projection surface and the third compression chamber has a third hydrostatically active projection surface, wherein the third projection surface is greater than or equal to the second projection surface and the second projection surface is greater than or equal to the first projection surface, and wherein the first compression chamber in the receptacle pocket of the first bearing ring can be subjected to pressure via a lubricant supply, wherein the first compression chamber and the second compression chamber are connected via a duct running through the first sub-element, and the second compression chamber and the third compression chamber are connected via a duct running through the second sub-element, wherein the duct running through the second sub-element and/or the duct running through the first sub-element have/has in each case at least one throttling element, the throttling is realized by way of an integrated oil-line routing in the respective sub-element (3, 4), and the oil line is incorporated in the form of a coil in the supporting cross section.
An illumination device comprising: a plurality of laser light sources that emit laser lights of different radiant fluxes; a plurality of diffractive optical elements separately provided correspondingly to the respective laser light sources; and a plurality of shaping optical systems (30, 31a-31c, 32a-32c) separately provided correspondingly to the respective laser light sources; wherein each shaping optical system of the plurality of shaping optical systems is configured to expand laser light emitted from a corresponding laser light source of the plurality of laser light sources over a whole area of an incident surface of the corresponding diffractive optical element, and to guide the laser light to the corresponding diffractive optical element of the plurality of diffractive optical elements, wherein a planar dimension of one diffractive optical element of the plurality of diffractive optical elements, which corresponds to one laser light source of the plurality of laser light sources that emits a laser light having a minimum radiant flux, is smaller than a planar dimension of another diffractive optical element of the plurality of diffractive optical elements, which corresponds to another laser light source of the plurality of laser light sources that emits a laser light having a maximum radiant flux. a plurality of laser light sources that emit laser lights of different radiant fluxes; a plurality of diffractive optical elements separately provided correspondingly to the respective laser light sources; and a plurality of shaping optical systems (30, 31a-31c, 32a-32c) separately provided correspondingly to the respective laser light sources; wherein each shaping optical system of the plurality of shaping optical systems is configured to expand laser light emitted from a corresponding laser light source of the plurality of laser light sources over a whole area of an incident surface of the corresponding diffractive optical element, and to guide the laser light to the corresponding diffractive optical element of the plurality of diffractive optical elements, wherein a planar dimension of one diffractive optical element of the plurality of diffractive optical elements, which corresponds to one laser light source of the plurality of laser light sources that emits a laser light having a minimum radiant flux, is smaller than a planar dimension of another diffractive optical element of the plurality of diffractive optical elements, which corresponds to another laser light source of the plurality of laser light sources that emits a laser light having a maximum radiant flux.