mhurhangee/ep-ind-claims huggingface dataset:
Automobile optical group comprising a carcass and an anchorage, through a set of fixing points immobilize the carcass of the optical group to the structure of a vehicle in the X, Y and Z directions, belonging to a system of axes the origin of which is in the optical group and whose X axis coincides with the direction of the beam of light of said optical group, the Y direction being the transverse horizontal displacement with respect to the beam of light direction, and the Z direction the transverse vertical displacement with respect to the beam of light direction; wherein the anchorage comprises a first fixing point, which has means to immobilize the carcass of the optical group to the structure of the vehicle only in the Z direction, and at least a second fixing point which has means constituted by sets of screw (14, 18) and nut (15, 16, 17) to immobilize the carcass of the optical group to the structure of the vehicle in the X and Y directions, the immobilization means of the first fixing point being constituted by a skid which is connected on one side to the optical group, through guides belonging to the optical group, parallel to the beam of light of said optical group, while the other side is to be fixed to the structure of the vehicle through a set of jam screw and nut, characterised in that the skid comprises a base platform with longitudinal edges, while the optical group has two opposite channels, parallel to the direction of the beam of light of said optical group, which define the guides in which the longitudinal edges of the skid platform are housed with freedom of longitudinal movement along the X direction and with transverse clearance along the Y direction between said edges and channels, with a transverse partition also protruding from the platform, on the side opposite the one facing the optical group, said partition having an oblong opening through which there passes the set of jam screw and nut for fixing the optical group to the structure of the vehicle in the Z direction, once the desired position of the optical group has been selected according to the Z direction, wherein the skid allows the freedom of movement in the X and Y directions which are then to be fixed through the at least a second fixing point.
A polyether polyol which is a polytetramethylene ether glycol, wherein the repeating unit in the main framework is composed of only a 1,4-butanediol unit and which has a number average molecular weight of 3,500 to 5,500 and a molecular weight distribution of 1.7 to 2.2, wherein the number average molecular weight and the weight average molecular weight mean the values as measured in the description.
A composition comprising from 0,5 g to 30 g of β-hydroxy-β-methylbutyric acid and Vitamin D in an amount sufficient to raise blood levels of Vitamin D to at least 30ng/ml.
A method for preparing a polyamide powder PA (homopolyamide or copolyamide) derived at least in part from renewable materials, wherein the particles are of non-spherical shape and have a volume median diameter of less than 30 μm measured by laser diffraction with a Cilas 920 particle size analyzer, the method comprising grinding at ambient temperature a prepolymer powder having inherent viscosity lower than 0.5 (with method 0.5 g/dl in metacresol at 25 °C).
A method for displaying a content derived from 4D light field data, the method being executed by an electronic device, the method comprising: - obtaining at least one parameter associated with a user, said at least one parameter representing a feature or a category or an attribute related to said user; - obtaining said 4D light field data or an identifying element of said 4D light field data; - transmitting a request to another electronic device, whereby said request comprises said at least one parameter and either said 4D light field data or said identifying element; - obtaining light field viewing parameters for said 4D light field data; and - deriving said content to be displayed from said 4D light field data using said light field viewing parameters; wherein said light field viewing parameters are derived using statistics representative of measured interactions with said 4D light field data by other users. - obtaining at least one parameter associated with a user, said at least one parameter representing a feature or a category or an attribute related to said user; - obtaining said 4D light field data or an identifying element of said 4D light field data; - transmitting a request to another electronic device, whereby said request comprises said at least one parameter and either said 4D light field data or said identifying element; - obtaining light field viewing parameters for said 4D light field data; and - deriving said content to be displayed from said 4D light field data using said light field viewing parameters;
A microwave pyrolysis reactor comprising an inner pipe element and a housing, wherein - the inner pipe element is made of a microwave transparent material and comprises a first open end and a second open end; - the housing comprises a first inner surface, enclosing an annular space (7,44) around the inner pipe element, a waste inlet, a solids outlet, a gas outlet, an inert gas inlet and a port for a microwave waveguide, the waste inlet and the solids outlet are in communication with the first open end and the second open end of the inner pipe element, respectively, and the port for a microwave waveguide is in communication with the annular space; and wherein the inner pipe element is arranged with the first open end at a higher vertical level than the second open end, such that a material entering the waste inlet during use is transported through the inner pipe element, from the first open end to the second open end, by gravity; and wherein the gas outlet is arranged upstream the first open end of the inner pipe element and downstream the waste inlet of the housing, and the inert gas inlet is arranged to provide an inert gas into the annular space (7,44) during use; and wherein the inner pipe element, together with the waste inlet and the solids outlet, is part of a conduit not in fluid communication with the annular space (7, 44) around the inner pipe element. - the inner pipe element is made of a microwave transparent material and comprises a first open end and a second open end; - the housing comprises a first inner surface, enclosing an annular space (7,44) around the inner pipe element, a waste inlet, a solids outlet, a gas outlet, an inert gas inlet and a port for a microwave waveguide, the waste inlet and the solids outlet are in communication with the first open end and the second open end of the inner pipe element, respectively, and the port for a microwave waveguide is in communication with the annular space; and wherein the inner pipe element is arranged with the first open end at a higher vertical level than the second open end, such that a material entering the waste inlet during use is transported through the inner pipe element, from the first open end to the second open end, by gravity; and wherein the gas outlet is arranged upstream the first open end of the inner pipe element and downstream the waste inlet of the housing, and the inert gas inlet is arranged to provide an inert gas into the annular space (7,44) during use; and wherein the inner pipe element, together with the waste inlet and the solids outlet, is part of a conduit not in fluid communication with the annular space (7, 44) around the inner pipe element.
A display apparatus comprising: a plurality of display modules, each display module comprising a cabinet, a plurality of display panels disposed at a first side of the cabinet, and a plurality of indicators disposed at a second side opposite to the first side; a communicator configured to receive an external signal for detecting positions of the plurality of display panels; and a controller configured to control an indicator among the plurality of indicators disposed at the second side to be turned on based on the external signal received by the communicator, the indicator corresponding to a display panel from among the plurality of display panels, the display panel being a position detection target. a plurality of display modules, each display module comprising a cabinet, a plurality of display panels disposed at a first side of the cabinet, and a plurality of indicators disposed at a second side opposite to the first side; a communicator configured to receive an external signal for detecting positions of the plurality of display panels; and a controller configured to control an indicator among the plurality of indicators disposed at the second side to be turned on based on the external signal received by the communicator, the indicator corresponding to a display panel from among the plurality of display panels, the display panel being a position detection target.
A method for treating a lipid material comprising phosphorous and/or metal compounds, the method comprising a) providing the lipid material, b) preheating the lipid material, to obtain a preheated lipid material, c) heat treating the preheated lipid material in a heat treatment step, to obtain a heat treated lipid material, d) optionally post treating the heat treated lipid material in a post treatment step, wherein the preheating step b) is conducted at a temperature of about 90 °C to about 160 °C, the heat treating step c) is conducted at a temperature of about 220 °C to about 300 °C, preferably about 220 °C to about 280 °C, more preferably about 260 °C to about 280 °C, and wherein the heat treating step c) is conducted at a pressure of about 0 bar(g) to about 20 bar(g), preferably about 1 bar(g) to about 10 bar(g), more preferably about 1 bar(g) to about 3 bar(g). a) providing the lipid material, b) preheating the lipid material, to obtain a preheated lipid material, c) heat treating the preheated lipid material in a heat treatment step, to obtain a heat treated lipid material, d) optionally post treating the heat treated lipid material in a post treatment step, wherein the preheating step b) is conducted at a temperature of about 90 °C to about 160 °C, the heat treating step c) is conducted at a temperature of about 220 °C to about 300 °C, preferably about 220 °C to about 280 °C, more preferably about 260 °C to about 280 °C, and wherein the heat treating step c) is conducted at a pressure of about 0 bar(g) to about 20 bar(g), preferably about 1 bar(g) to about 10 bar(g), more preferably about 1 bar(g) to about 3 bar(g).
A method of manufacturing artificial turf, the method comprising the steps of: - creating a liquid polymer mixture (100, 400, 500), wherein the polymer mixture is at least a two-phase system, a first one of the phases comprising a first polymer and a first dye, a second one of the phases of the polymer mixture comprising a second polymer and a second dye, the second dye having a different color than the first dye, the second polymer being of the same or of a different type as the first polymer, the first and the second phase being immiscible, the first phase forming polymer beads within the second phase; - extruding the polymer mixture into a monofilament comprising a marbled pattern of the first and second color; - quenching the monofilament; - reheating the monofilament; - stretching the reheated monofilament to deform the polymer beads into threadlike regions and to form the monofilament into an artificial turf fiber; - incorporating the artificial turf fiber into an artificial turf backing. - creating a liquid polymer mixture (100, 400, 500), wherein the polymer mixture is at least a two-phase system, a first one of the phases comprising a first polymer and a first dye, a second one of the phases of the polymer mixture comprising a second polymer and a second dye, the second dye having a different color than the first dye, the second polymer being of the same or of a different type as the first polymer, the first and the second phase being immiscible, the first phase forming polymer beads within the second phase; - extruding the polymer mixture into a monofilament comprising a marbled pattern of the first and second color; - quenching the monofilament; - reheating the monofilament; - stretching the reheated monofilament to deform the polymer beads into threadlike regions and to form the monofilament into an artificial turf fiber; - incorporating the artificial turf fiber into an artificial turf backing.
An alignment unit for a medical instrument, in particular a hand instrument, for the radial alignment of two components (14, 30) to be screwed on up to a mutual axial contact, including a tubular stator housing, in which a drive unit preferably in the form of a handpiece can be accommodated, a threaded bolt having an external threaded portion that connects the threaded bolt to the stator housing, and a tubular carrier having an internal threaded portion that connects the carrier to the stator housing, the stator housing, the threaded bolt and the carrier having a common longitudinal axis, characterized in that the external threaded portion of the threaded bolt and the internal threaded portion of the carrier are formed in opposite directions and are fixed by counter-rotating movement in such a way that the carrier and the threaded bolt lie axially against each other. for the radial alignment of two components (14, 30) to be screwed on up to a mutual axial contact, including a tubular stator housing, in which a drive unit preferably in the form of a handpiece can be accommodated, a threaded bolt having an external threaded portion that connects the threaded bolt to the stator housing, and a tubular carrier having an internal threaded portion that connects the carrier to the stator housing, the stator housing, the threaded bolt and the carrier having a common longitudinal axis, characterized in that the external threaded portion of the threaded bolt and the internal threaded portion of the carrier are formed in opposite directions and are fixed by counter-rotating movement in such a way that the carrier and the threaded bolt lie axially against each other.
A control method for a handheld gimbal, wherein the control method comprises the following steps: step 1): detecting a current mode of the handheld gimbal; step 2): detecting whether the handheld gimbal is in a folded position when the handheld gimbal is in an operating mode, and making the handheld gimbal enter a standby mode when the handheld gimbal is in the folded position; and step 3): detecting whether the handheld gimbal is in an unfolded position when the handheld gimbal is in the standby mode, and making the handheld gimbal enter the operating mode when the handheld gimbal is in the unfolded position; wherein the steps 2) and 3) are executed without sequence. step 1): detecting a current mode of the handheld gimbal; step 2): detecting whether the handheld gimbal is in a folded position when the handheld gimbal is in an operating mode, and making the handheld gimbal enter a standby mode when the handheld gimbal is in the folded position; and step 3): detecting whether the handheld gimbal is in an unfolded position when the handheld gimbal is in the standby mode, and making the handheld gimbal enter the operating mode when the handheld gimbal is in the unfolded position; wherein the steps 2) and 3) are executed without sequence.
A compound of formula wherein: M is Fe; R 1 is H, benzyl, -CH 2 -(CH 2) 4 -CH 2 I; -CH 2 -(CH 2) 4 -CH 2 -SH; R 2 is methyl; R 3 is H; R 4 is H; or enantiomers, diastereoisomers and salts thereof. M is Fe; R 1 is H, benzyl, -CH 2 -(CH 2) 4 -CH 2 I; -CH 2 -(CH 2) 4 -CH 2 -SH; R 2 is methyl; R 3 is H; R 4 is H; or enantiomers, diastereoisomers and salts thereof.
Method for steering a first acoustic linear antenna belonging to a plurality of acoustic linear antennas (S1-S4; 51, 52) towed by a vessel, a plurality of navigation control devices being arranged along said plurality of linear antennas in order to act at least laterally on the position of said linear antennas, characterized in that at least one given navigation control device, among said plurality of navigation control devices arranged along said first acoustic linear antenna, performs steps of: - computing (81, 82) a local measurement of a feather angle or of a parameter linked to the feather angle, said local measurement being associated with said given navigation control device; - computing a lateral force, as a function of the computed local measurement; and - applying the computed lateral force. - computing (81, 82) a local measurement of a feather angle or of a parameter linked to the feather angle, said local measurement being associated with said given navigation control device; - computing a lateral force, as a function of the computed local measurement; and - applying the computed lateral force.
A carbonaceous negative-electrode material of which an average layer spacing d 002 of face calculated by an X-ray diffraction method using CuKα radiation as a radiation source is equal to or more than 0.365 nm and that is for an alkali metal ion battery, wherein when the negative-electrode material is embedded in an epoxy resin, the epoxy resin is cured, the resultant cured material is cut and polished to expose a cross-section of the negative-electrode material, and the cross-section is observed in a bright field with 1000 times magnification using an optical microscope, the cross-section of the negative-electrode material includes a first region and a second region having different reflectance ratios, wherein the first region exists along the outer edge of the cross-section of the negative-electrode material, and wherein the second region exists inside the first region.
A combined cycle plant including a gas turbine, a heat recovery boiler for generating steam using exhaust heat of the gas turbine, and a high pressure steam turbine fed with the superheated steam generated by the heat recovery boiler from the heat recovery boiler through a steam system, characterized in that, the steam system is disposed so as to branch to a first steam system for introducing the superheated steam to a first stage entrance of the high pressure steam turbine and a second steam system for introducing the superheated steam to a stage entrance on a downstream side of the first stage of the high pressure steam turbine and on a downstream side of the first steam system, and when a steam pressure of the steam generated by the heat recovery boiler increases because of the deterioration with age of the gas turbine more than the steam pressure corresponding to the rated steam flow rate and exceeds a predetermined threshold value, a flow rate of the steam fed to the high pressure steam turbine via the first steam system and the second steam system is adjusted so as to be maintained at a steam flow rate generated by the heat recovery boiler.
A blending device for blending a sample held in a sealable open mouthed sample bag, the device comprising a bag receiving portion for receiving a sample bag carrying a sample, kneading means comprising a reciprocating paddle for acting on a wall of a sample bag disposed in the bag receiving portion so as to blend a carried sample, and bag manipulation means including holding means for holding a sample bag in an open position whilst in the bag receiving portion, wherein the holding means comprises a first abutment member and a second abutment member for abutting against the wall of a sample bag in use so as to hold the sample bag, the first abutment member and the second abutment member being arranged to be movable relative to one another, characterized in that the holding means comprises driving means for driving the first and second abutment members (29, 30) relative to one another so as to decrease the distance between the abutment members, and that the first and second abutment members are arranged such that when the distance between the first and second abutment members decreases, a first wall of a sample bag that is abutted by the first and second abutment members will tend to bend or distort away from a second wall of the sample bag into a ripple or wave shape, whilst the second wall of the sample bag remains flat, such that top portions of the walls of the bag become spaced from each other, thereby opening the sample bag so that the sample bag can accept additional material. a bag receiving portion for receiving a sample bag carrying a sample, kneading means comprising a reciprocating paddle for acting on a wall of a sample bag disposed in the bag receiving portion so as to blend a carried sample, and bag manipulation means including holding means for holding a sample bag in an open position whilst in the bag receiving portion, wherein the holding means comprises a first abutment member and a second abutment member for abutting against the wall of a sample bag in use so as to hold the sample bag, the first abutment member and the second abutment member being arranged to be movable relative to one another, characterized in that the holding means comprises driving means for driving the first and second abutment members (29, 30) relative to one another so as to decrease the distance between the abutment members, and that the first and second abutment members are arranged such that when the distance between the first and second abutment members decreases, a first wall of a sample bag that is abutted by the first and second abutment members will tend to bend or distort away from a second wall of the sample bag into a ripple or wave shape, whilst the second wall of the sample bag remains flat, such that top portions of the walls of the bag become spaced from each other, thereby opening the sample bag so that the sample bag can accept additional material.
A resist composition comprising an organic compound capable of forming a film which exhibits changed solubility in an alkali developing solution under action of acid and an acid-generator component which generates acid upon irradiation with any form of radiation, said acid-generator component comprising an acid generator consisting of a compound represented by general formula (b1-1) shown below: wherein Q 1 represents a divalent linkage group or a single bond; Y 1 represents an alkylene group which may have a substituent or a fluorinated alkylene group which may have a substituent; X represents a cyclic group of 3 to 30 carbon atoms which may have a substituent, and has an -SO 2 - group wherein the S atom of said -SO 2 - group forms part of the ring skeleton thereof; and A + represents an organic cation.
Road paver having a generator, a control device and a screed, the screed comprising a basic screed and broadening parts (11, 13) and being suited for being modified, by selectively attaching or detaching these broadening parts (11, 13), from a first to at least a second, different screed configuration, the basic screed and the broadening parts (11, 13) each comprising a compacting unit and at least one electric resistance heating element that can be supplied with power by the generator for heating the compacting unit, characterized in that the resistance heating element comprising at least two resistance wire windings being current- and voltage-isolated from each other, wherein the control device is configured to individually switch on or off each one of the resistance wire windings of the resistance heating element of the basic screed depending on the screed configuration determined by the control device to distribute electrical power generated by the generator to the individual resistance wire windings.