mhurhangee/ep-ind-claims huggingface dataset:
Cosmetic use of a liquid composition for improving the facial contour and shape of the human or animal face by injection, the liquid composition comprising water and component A, which leads to an osmotic concentration in the range from 1200 to 4000 mOsm in the liquid composition, wherein component A is selected from the group consisting of at least one saccharide, at least one C 3 -C 6 -polyol, at least one saline solution, and combinations of two or more thereof; and further comprising one or both of: component B which leads to a viscosity of the liquid composition in the range from 10 to 1500 mPas, wherein component B is selected from the group consisting of hyaluronic acid, hydroxypropyl methylcellulose, carboxymethylcellulose, polyvinyl alcohol, and polyvinyl pyrrolidone; and/or component C comprising micro-particles of one or more of bio-degradable polymers, hydroxyapatite or pumicite, said micro-particles having an average particle size in the range of 0.001 mm to 0.25 mm. component B which leads to a viscosity of the liquid composition in the range from 10 to 1500 mPas, wherein component B is selected from the group consisting of hyaluronic acid, hydroxypropyl methylcellulose, carboxymethylcellulose, polyvinyl alcohol, and polyvinyl pyrrolidone; and/or component C comprising micro-particles of one or more of bio-degradable polymers, hydroxyapatite or pumicite, said micro-particles having an average particle size in the range of 0.001 mm to 0.25 mm.
An antenna-diversity receiver for receiving data units from a transmitter in a frequency-hopping communication system having a channel set comprising of two or more channels, each channel having its own frequency range, wherein the transmitter has an advertising mode in which the transmitter is configured to transmit an advertising signal and to switch from one advertising channel to another advertising channel in accordance with a sequence of advertising intervals, each advertising interval comprising one or more advertising packets, wherein the transmitter further has a data transmission mode in which the transmitter transmits a data signal and switches from one data channel to another data channel in accordance with a sequence of data intervals, wherein each data interval comprises one or more data packets, and wherein the channel set comprises a set of two or more advertising channels and a set of two or more data channels, wherein the receiver is connectable to an antenna set (20,22) comprising of two or more antennas; wherein the receiver has an antenna sampling mode in which the receiver is configured to receive, successively for each combination of an antenna of the antenna set and an advertising channel of the set of advertising channels, one or more advertising packets on the respective advertising channel using the respective antenna and to determine a signal quality value only for each combination; and wherein the receiver is configured to select, for each data channel, a respective antenna on the basis of the determined signal quality values and to prompt the transmitter to switch to the data transmission mode when terminating the antenna sampling mode.
A switch wire-connection terminal block structure comprising a casing, at least one contact terminal being disposed in the casing, the contact terminal (41, 42) having a locking hole (411, 421), the locking hole (411, 421) being positioned at one end of a receiving hole (15, 16) in the casing, the receiving hole (15, 16) intersecting and communicating with a wire socket (17, 18) formed in the casing, a locking member (51, 52) being disposed in the receiving hole (15, 16) for locking into the locking hole (411, 421), a gasket member (61, 62) being fitted on the locking member (51, 52), at least one guide channel (151, 161) being formed on inner wall of the receiving hole (15, 16), the guide channel (151, 161) extending in a direction reverse to a direction in which the locking member (51, 52) is locked into the locking hole (411, 421), at least one guide section (611, 621) being formed on the gasket member (61, 62), the guide section (611, 621) extending in the direction reverse to the direction in which the locking member (51, 52) is locked into the locking hole (411, 421), the guide section (611, 621) being slidably disposed in the guide channel (151, 161) characterized in that the gasket member (61, 62) has at least one push section (612, 622), the push section (612, 622) extending from the gasket member (61, 62) in a radial direction of the receiving hole (15, 16) away from the receiving hole (15, 16), an elastic member (71, 72) being disposed beside the receiving hole (15, 16) for driving the push section (612, 622) in the direction reverse to the direction in which the locking member (51, 52) is locked into the locking hole (411, 421), an interior of the casing is partitioned to form a lateral cavity (82, 85) for receiving the elastic member (71, 72), the lateral cavity (82, 85) communicating with the inner wall of the receiving hole (15, 16) via a travel channel (83, 86), the travel channel (83, 86) extending in the direction in which the locking member (51, 52) is locked into the locking hole (411, 421), the push section (612, 622) extending from the travel channel (83, 86) into the lateral cavity (82, 85) to be driven by the elastic member (71, 72), the travel channel (83, 86) guiding the push section (612,622) to drive the gasket member (61, 62) to reciprocally move within the receiving hole (15, 16) along the path in which the locking member (51, 52) is locked into the locking hole (411, 421), a stop section (87, 88) is disposed between the receiving hole (15, 16) and the travel channel (83, 86) in the casing, the push section (612, 622) having a bent form to round the stop section (87, 88) and extend into the travel channel (83, 86).
A dish-type Stirling solar generator capable of running continuously day and night, comprising a dish-type Stirling solar generating set, wherein the dish-type Stirling solar generating set comprises a combustor comprising an opening, and a position adjustment mechanism of the combustor; the position adjustment mechanism is capable of adjusting the opening of the combustor to align or deviate from a heat receiver of the dish-type Stirling solar generating set; the position adjustment mechanism is disposed on a bracket of the dish-type Stirling solar generating set; the combustor is disposed on the position adjustment mechanism; and a fuel supply system of the combustor is connected to the combustor via a main switch valve, a branch switch valve, a regulating valve, and a flexible conveying pipe.
A transponder layer (30, 52) having an antenna substrate, which, on an antenna side, is equipped with an antenna formed from a wire conductor as well as with a chip, and which, on the antenna side, has terminal conductors for connecting the chip to the wire conductor of the antenna in such a manner that the chip is arranged adjacently to terminal ends (34, 35) of the wire conductor, and in such a manner that both the terminal ends of the wire conductor and chip terminals (39, 40), which are arranged on a contact side of a semiconductor body of the chip, the contact side facing towards the antenna substrate, are contacted with the terminal conductors, the terminal conductors for connecting the chip to the wire conductor of the antenna being embodied as contact pads (36, 37; 53, 54) and being arranged on the antenna side in such a manner that the contact pads, for being contacted with the antenna, have an antenna contact portion (42, 57) having an antenna contact side (43, 64) facing towards the antenna side and, for being contacted with the chip, have a chip contact portion (45, 58) having a chip contact side (47, 55) that is opposite to the antenna contact side and faces away from the antenna side, characterised in that the contact pads (53, 54), with their chip contact side, are arranged on a carrier substrate and in that the chip terminals (39, 40), for contacting the chip with the contact pads, extend through the carrier substrate.
A method for processing a frame of interest in a sequence of successively acquired frames in digital radiation imaging, comprising the steps of - generating a multi-scale representation of acquired frames, said multi-scale representation comprising detail images at different scales, - subjecting the multi-scale representation of said frame of interest to temporal filtering so as to generate a temporally filtered multi-scale representation by adding a correction image to a corresponding detail image in the multi-scale representation of said frame of interest, said correction image being computed by adding clipped difference images obtained as the difference between at least one detail image of the multi-scale representation of the frame of interest and a corresponding detail image of the multi-scale representations of a selection of other frames in said sequence, - applying reconstruction processing to the temporally filtered multi-scale representation of said frame of interest. - generating a multi-scale representation of acquired frames, said multi-scale representation comprising detail images at different scales, - subjecting the multi-scale representation of said frame of interest to temporal filtering so as to generate a temporally filtered multi-scale representation by adding a correction image to a corresponding detail image in the multi-scale representation of said frame of interest, said correction image being computed by adding clipped difference images obtained as the difference between at least one detail image of the multi-scale representation of the frame of interest and a corresponding detail image of the multi-scale representations of a selection of other frames in said sequence, - applying reconstruction processing to the temporally filtered multi-scale representation of said frame of interest.
An in-vehicle power supply system that supplies power supply power on a vehicle side to an in-vehicle device serving as a load on a vehicle, the in-vehicle power supply system comprising: a main battery that is configured to charge and discharge power supply power; an upper power supply unit that is configured to supply power supply power to the main battery; a first power supply line that is allocated to energize with power supply power of a first voltage being a relatively low voltage; a second power supply line that is allocated to energize with power supply power of a second voltage having a higher voltage than the first voltage; a voltage conversion unit that is configured to convert a voltage of power supply power between the first power supply line and the second power supply line; and a capacitor, wherein the upper power supply unit, the voltage conversion unit, and the capacitor are connected to the first power supply line, and the main battery and the voltage conversion unit are connected to the second power supply line; characterized by a switch unit (SW2, SW3) that is configured to control circuit connection between the capacitor and the first power supply line; and a control unit that is configured to control the switch unit (SW2, SW3), wherein the control unit controls the switch unit (SW2, SW3) and charges the capacitor when a predetermined condition is satisfied while an ignition of the vehicle is OFF (S32, S33), and controls the switch unit (SW2, SW3) and performs discharge by the capacitor while the ignition is ON. a main battery that is configured to charge and discharge power supply power; an upper power supply unit that is configured to supply power supply power to the main battery; a first power supply line that is allocated to energize with power supply power of a first voltage being a relatively low voltage; a second power supply line that is allocated to energize with power supply power of a second voltage having a higher voltage than the first voltage; a voltage conversion unit that is configured to convert a voltage of power supply power between the first power supply line and the second power supply line; and a capacitor, wherein the upper power supply unit, the voltage conversion unit, and the capacitor are connected to the first power supply line, and the main battery and the voltage conversion unit are connected to the second power supply line; characterized by a switch unit (SW2, SW3) that is configured to control circuit connection between the capacitor and the first power supply line; and a control unit that is configured to control the switch unit (SW2, SW3), wherein the control unit controls the switch unit (SW2, SW3) and charges the capacitor when a predetermined condition is satisfied while an ignition of the vehicle is OFF (S32, S33), and controls the switch unit (SW2, SW3) and performs discharge by the capacitor while the ignition is ON.
Method for producing a post-treated titanium dioxide pigment, characterised by the following steps: a) Providing an aqueous suspension of untreated titanium dioxide particles with a pH value of at least 9, b) Adding phosphoric acid, wherein after step b) said suspension has a value of 3 or less. c) Adding an alkaline aluminum compound, and d) Adding an acid aluminum compound. a) Providing an aqueous suspension of untreated titanium dioxide particles with a pH value of at least 9, b) Adding phosphoric acid, wherein after step b) said suspension has a value of 3 or less. c) Adding an alkaline aluminum compound, and d) Adding an acid aluminum compound.
Method for producing a material measure which is suitable to be sensed by a magnetic field sensor, wherein - a mixture of a the hardenable compound and magnetizable particles is produced, so that the mixture has a mean particle concentration; - within the hardening time period of the compound, the particles are subjected to a force in a mould in such a way that the particles migrate into a layer (L, L', L") of the material measure and there, following the hardening, are present in a higher concentration than the mean particle concentration of the original mixture; - a magnetic graduation is applied by magnetizing the particles located in the layer (L, L', L"). - a mixture of a the hardenable compound and magnetizable particles is produced, so that the mixture has a mean particle concentration; - within the hardening time period of the compound, the particles are subjected to a force in a mould in such a way that the particles migrate into a layer (L, L', L") of the material measure and there, following the hardening, are present in a higher concentration than the mean particle concentration of the original mixture; - a magnetic graduation is applied by magnetizing the particles located in the layer (L, L', L").
A sheet press molding method, comprising a step of forming a molded article by applying pressure to a sheet material using a pair of dies, at least one of which has a recess-projection pattern comprising a recess and a projection, characterized in that the method comprises: a sheet-forming process of forming a recessed portion, which has a volume corresponding to a total volume of the projections (13a to 13d), in the surface of the sheet material, which includes a resin composite and 60-95% filler by volume; and a pressing process of forming a molded article to which the recess-projection pattern is transferred by placing the recessed portion in the sheet material facing the recess-projection pattern on the dies and then applying pressure to the dies. a sheet-forming process of forming a recessed portion, which has a volume corresponding to a total volume of the projections (13a to 13d), in the surface of the sheet material, which includes a resin composite and 60-95% filler by volume; and a pressing process of forming a molded article to which the recess-projection pattern is transferred by placing the recessed portion in the sheet material facing the recess-projection pattern on the dies and then applying pressure to the dies.
A moisture-curable silylated resin of the general formula: wherein: G is a moiety of general structure: each R 1 is independently an alkyl group of from 1 to 6 carbon atoms; each R 2 is independently an alkyl group of from 1 to 4 carbon atoms or phenyl group; each R 3 is independently an alkylene group of from 1 to 12 carbon atoms; each R 4 is independently an alkyl group of from 1 to 6 carbon atoms, phenyl group, hydrogen or -R 3 SiR 2 3-a (OR 1) a group; each R 5 is independently a divalent organic group selected from the group consisting of an alkylene group having 1 to 16 carbon atoms, a cycloalkylene group having 5 to 16 carbon atoms and the group X 1 having the general formula: wherein each R 6 is independently an alkylene group of from 1 to 12 carbon atoms or a cycloalkylene group of from 5 to 16 carbon atoms; each R 7 is an alkylene group of from 2 to 12 carbon atoms; each R 8 is an alkylene group of from 2 to 12 carbon atoms; each R 9 is independently selected from the group consisting of R 7 and R 8; each R 10 is independently a divalent organic group selected from the group consisting of an alkylene group of from 1 to 12 carbon atoms, a cycloalkylene group of from 5 to 16 carbon atoms, X 1 and the group X 2 having the general formula: and, subscripts a, b, c, m and n are integers wherein a is 1 to 3; b is 0 or 1; c is 1 to 5; m is 1 to 100; and, n is 0 to 100, with the provisos that when b is 0, R 4 is hydrogen; when n is 0, R 7 is a branched alkylene group of from 3 to 12 carbon atoms; and, when n is 1 to 100, R 7 and R 8 are different alkylene groups. G is a moiety of general structure: each R 1 is independently an alkyl group of from 1 to 6 carbon atoms; each R 2 is independently an alkyl group of from 1 to 4 carbon atoms or phenyl group; each R 3 is independently an alkylene group of from 1 to 12 carbon atoms; each R 4 is independently an alkyl group of from 1 to 6 carbon atoms, phenyl group, hydrogen or -R 3 SiR 2 3-a (OR 1) a group; each R 5 is independently a divalent organic group selected from the group consisting of an alkylene group having 1 to 16 carbon atoms, a cycloalkylene group having 5 to 16 carbon atoms and the group X 1 having the general formula: wherein each R 6 is independently an alkylene group of from 1 to 12 carbon atoms or a cycloalkylene group of from 5 to 16 carbon atoms; each R 7 is an alkylene group of from 2 to 12 carbon atoms; each R 8 is an alkylene group of from 2 to 12 carbon atoms; each R 9 is independently selected from the group consisting of R 7 and R 8; each R 10 is independently a divalent organic group selected from the group consisting of an alkylene group of from 1 to 12 carbon atoms, a cycloalkylene group of from 5 to 16 carbon atoms, X 1 and the group X 2 having the general formula: and,
A liquid fuel injection body comprising: an annular fuel passage extending in an axial direction and provided inside the liquid fuel injection body, wherein the fuel passage is defined by a fuel passage outer wall located outward in a radial direction and a fuel passage inner wall located inward in the radial direction, and a plurality of throttle passages (PFo) disposed discretely in a circumferential direction are provided at a portion of the fuel passage on an upstream side with respect to a downstream end of the fuel passage, each of the throttle passages (PFo) is defined by a throttle passage outer wall (PFoE) located outward in the radial direction and formed as a cylindrical surface, a throttle passage inner wall (PFoI) located inward in the radial direction, and two throttle passage side walls (PFoS) connecting end portions of the throttle passage outer wall (PFoE) and the throttle passage inner wall (PFoI) in the circumferential direction, and the throttle passage outer wall (PFoE) and the fuel passage outer wall are flush whereas the throttle passage inner wall (PFoI) and the fuel passage inner wall are not flush, characterized in that a region with high surface roughness (Ar) is provided at least at a portion of the fuel passage outer wall on a downstream side with respect to the throttle passage (PFo) for improving wettability with respect to the liquid fuel. an annular fuel passage extending in an axial direction and provided inside the liquid fuel injection body, wherein the fuel passage is defined by a fuel passage outer wall located outward in a radial direction and a fuel passage inner wall located inward in the radial direction, and a plurality of throttle passages (PFo) disposed discretely in a circumferential direction are provided at a portion of the fuel passage on an upstream side with respect to a downstream end of the fuel passage, each of the throttle passages (PFo) is defined by a throttle passage outer wall (PFoE) located outward in the radial direction and formed as a cylindrical surface, a throttle passage inner wall (PFoI) located inward in the radial direction, and two throttle passage side walls (PFoS) connecting end portions of the throttle passage outer wall (PFoE) and the throttle passage inner wall (PFoI) in the circumferential direction, and the throttle passage outer wall (PFoE) and the fuel passage outer wall are flush whereas the throttle passage inner wall (PFoI) and the fuel passage inner wall are not flush, characterized in that a region with high surface roughness (Ar) is provided at least at a portion of the fuel passage outer wall on a downstream side with respect to the throttle passage (PFo) for improving wettability with respect to the liquid fuel.
A robotic surgery system, comprising: a. a mobile base configured to be movable into and out of an operating room when in a freewheeling mode, and fixed relative to the operating room when in a braked mode; b. a first robotic arm coupled to the mobile base and comprising a mounting fixture configured to be interchangeably coupled to a surgical tool and a first element of a fluoroscopic imaging system comprising a source element (24, 26) and a detector element (24, 26), wherein the first element is one of the source element and the detector element; c. a second element of the fluoroscopic imaging system, wherein the second element is the other of the source element and the detector element, the second element configured to be repositionable relative to a patient tissue structure that may be placed between the first and second elements of the fluoroscopic imaging system; and d. a controller operatively coupled to the first robotic arm, the controller configured to receive signals from a sensing system operatively coupled to the controller, the sensing system configured to detect motion of one or more sensor elements (108, 110) coupled to each of the first and second elements of the fluoroscopic imaging system and the controller configured to determine a relative spatial positioning between each of the first and second elements of the fluoroscopic imaging system. a. a mobile base configured to be movable into and out of an operating room when in a freewheeling mode, and fixed relative to the operating room when in a braked mode; b. a first robotic arm coupled to the mobile base and comprising a mounting fixture configured to be interchangeably coupled to a surgical tool and a first element of a fluoroscopic imaging system comprising a source element (24, 26) and a detector element (24, 26), wherein the first element is one of the source element and the detector element; c. a second element of the fluoroscopic imaging system, wherein the second element is the other of the source element and the detector element, the second element configured to be repositionable relative to a patient tissue structure that may be placed between the first and second elements of the fluoroscopic imaging system; and d. a controller operatively coupled to the first robotic arm, the controller configured to receive signals from a sensing system operatively coupled to the controller, the sensing system configured to detect motion of one or more sensor elements (108, 110) coupled to each of the first and second elements of the fluoroscopic imaging system and the controller configured to determine a relative spatial positioning between each of the first and second elements of the fluoroscopic imaging system.