mhurhangee/ep-ind-claims huggingface dataset:
A tool for handling a tower section of a wind turbine tower, the tool comprising: a first wheeled platform; a second wheeled platform; a frame having a first side portion, and a second side portion; the first side portion of the frame being attached to the first wheeled platform and configured to support a first end portion of a sling; the second side portion of the frame being attached to the second wheeled platform and configured to support a second end portion of the sling; the first and second wheeled platforms being separated along a substantially horizontal direction such that a tower section can be supported on the sling at least partially between the first and second sides of the frame; and wherein the first side portion of the frame includes a first hinge, and the second side portion of the frame includes a second hinge for rotating the frame or a portion of the frame about a substantially horizontal axis. a first wheeled platform; a second wheeled platform; a frame having a first side portion, and a second side portion; the first side portion of the frame being attached to the first wheeled platform and configured to support a first end portion of a sling; the second side portion of the frame being attached to the second wheeled platform and configured to support a second end portion of the sling; the first and second wheeled platforms being separated along a substantially horizontal direction such that a tower section can be supported on the sling at least partially between the first and second sides of the frame; and wherein the first side portion of the frame includes a first hinge, and the second side portion of the frame includes a second hinge for rotating the frame or a portion of the frame about a substantially horizontal axis.
A nephelometric turbidimeter for measuring a turbidity of a liquid sample in a transparent sample cuvette, the turbidimeter comprising a cuvette chamber defined by a cuvette chamber housing for locating the sample cuvette, and a drying apparatus comprising: a cuvette chamber inlet opening for venting the cuvette chamber and a cuvette chamber outlet opening for de-venting the cuvette chamber, wherein the cuvette chamber inlet opening and the cuvette chamber outlet opening are connected with each other outside the cuvette chamber by a drying path, an air circulator for circulating air from the outlet opening to the inlet opening, and a drying body defined by a drying substance which is a molecular sieve in line arranged in the drying path between the outlet opening and the inlet opening, wherein the drying apparatus comprises a disposable drying cartridge including the drying body, and wherein the drying cartridge is provided with a cartridge housing and with fluidic coupling elements (31,33), which allow a quick engagement and disengagement of the cartridge housing with or from the drying circuit of the turbidimeter. a cuvette chamber inlet opening for venting the cuvette chamber and a cuvette chamber outlet opening for de-venting the cuvette chamber, wherein the cuvette chamber inlet opening and the cuvette chamber outlet opening are connected with each other outside the cuvette chamber by a drying path, an air circulator for circulating air from the outlet opening to the inlet opening, and a drying body defined by a drying substance which is a molecular sieve in line arranged in the drying path between the outlet opening and the inlet opening, wherein the drying apparatus comprises a disposable drying cartridge including the drying body, and wherein the drying cartridge is provided with a cartridge housing and with fluidic coupling elements (31,33), which allow a quick engagement and disengagement of the cartridge housing with or from the drying circuit of the turbidimeter.
Residual pressure sealing valve for pneumatic suspensions of motor vehicles, comprising: - a valve body provided with a connection end suitable to make a tight connection with a compressed air hose, a coupling end suitable to make a tight connection with a pneumatic suspension, and a connection channel suitable to make a fluidic connection between the connection end and the coupling end; - an actuator, slidingly housed in the connection channel suitable to open and close the connection channel to allow or obstruct the fluidic connection between the connection end and the coupling end; - return means suitable to keep the actuator in a closed configuration of the connection channel; - a grip ring, housed in a chamber defined inside the connection channel suitable to grasp and retain the compressed air hose; characterized in that the actuator is provided with a tail and, in the closed configuration, the grip ring is fitted in sliding contact on the tail. - a valve body provided with a connection end suitable to make a tight connection with a compressed air hose, a coupling end suitable to make a tight connection with a pneumatic suspension, and a connection channel suitable to make a fluidic connection between the connection end and the coupling end; - an actuator, slidingly housed in the connection channel suitable to open and close the connection channel to allow or obstruct the fluidic connection between the connection end and the coupling end; - return means suitable to keep the actuator in a closed configuration of the connection channel; - a grip ring, housed in a chamber defined inside the connection channel suitable to grasp and retain the compressed air hose;
An in vitro method for improving the immunostimulatory characteristics of human antigen presenting cells comprising the simultaneous introduction of at least two different mRNA or DNA molecules encoding functional immunostimulatory proteins in said antigen presenting cells, characterized in that amongst said functional proteins at least CD40L and caTLR4 are introduced, and wherein optionally in addition CD70 is introduced.
Refrigeration device, having a device carcass which delimits the refrigeration compartment and is realised as a hollow body, the hollow space of which is filled with a thermally insulating foam, wherein the device carcass is delimited on the inner side facing the refrigeration compartment by means of a plastic lining, and having a floor wall, a ceiling wall and an outer delimiting wall which delimit the hollow space filled with the thermally insulating foam, wherein the outer delimiting wall is a plastic component which is a plastic blank, characterised in that the plastic component is manufactured as a three-layer structure, from a natural-fibre reinforced plastic consisting of a plastic support material and natural fibres embedded therein, from a diffusion barrier layer which is applied to the natural-fibre reinforced plastic and which is integrated as a diffusion barrier means in the natural-fibre reinforced plastic component and is resistant to water vapour or gas diffusion, and from an external decorative and/or scratch-resistant layer on the side of the plastic component facing away from the thermally insulating foam, wherein the outer delimiting wall is provided on its top and bottom end with bevelled attachment flanges which at the edge overlap the floor wall and the ceiling wall.
A swellable composition for sealing and packing comprising: a matrix material; and a condensed expandable graphite material disposed in the matrix material, wherein the condensed expandable graphite material has a bulk density of 1 to 8 g/cm 3 and comprises expandable graphite, characterized by further comprising: an activation material containing one or more of the following: a thermite; Al-Ni; Ti-Si; Ti-B; Zr-Si, Zr-B; Ti-Al; Ni-Mg; or Mg-Bi, wherein the thermite comprises a reducing agent and an oxidizing agent, wherein the reducing agent comprises one or more of the following: aluminum; magnesium; calcium; titanium; zinc; silicon; or boron; and the oxidizing agent comprises one or more of the following: boron oxide; silicon oxide; chromium oxide; manganese oxide; iron oxide; copper oxide; or lead oxide. a matrix material; and a condensed expandable graphite material disposed in the matrix material, wherein the condensed expandable graphite material has a bulk density of 1 to 8 g/cm 3 and comprises expandable graphite, characterized by further comprising: an activation material containing one or more of the following: a thermite; Al-Ni; Ti-Si; Ti-B; Zr-Si, Zr-B; Ti-Al; Ni-Mg; or Mg-Bi, wherein the thermite comprises a reducing agent and an oxidizing agent, wherein the reducing agent comprises one or more of the following: aluminum; magnesium; calcium; titanium; zinc; silicon; or boron; and the oxidizing agent comprises one or more of the following: boron oxide; silicon oxide; chromium oxide; manganese oxide; iron oxide; copper oxide; or lead oxide.
A method for rendering graphics data, the method comprising: receiving a plurality of commands, each of the plurality of commands being associated with one of a plurality of render targets, wherein the plurality of commands are received in an initial order; determining an execution order for the plurality of commands that is different than the initial order, wherein determining the execution order comprises generating, from the plurality of received commands, a render target command list for each of the plurality of render targets, wherein generating the render target command lists comprises adding the received commands to the render target command lists according to their associated render targets until a command is identified which has a data dependency on a previous command in the initial order that is associated with a different render target; and executing the plurality of commands in the determined execution order by executing the commands in the render target command lists. receiving a plurality of commands, each of the plurality of commands being associated with one of a plurality of render targets, wherein the plurality of commands are received in an initial order; determining an execution order for the plurality of commands that is different than the initial order, wherein determining the execution order comprises generating, from the plurality of received commands, a render target command list for each of the plurality of render targets, wherein generating the render target command lists comprises adding the received commands to the render target command lists according to their associated render targets until a command is identified which has a data dependency on a previous command in the initial order that is associated with a different render target; and executing the plurality of commands in the determined execution order by executing the commands in the render target command lists.
A method for preparing a catalyst for selective catalytic reduction of nitrogen oxides from spent catalysts having been absorbed with vanadium, nickel and sulfur in the hydro-desulfurization line of an oil refinery in which a catalyst for the hydro-desulfurization contains molybdenum, iron, cobalt and silicon on the alumina support, comprising the followings steps of: providing a first material comprising 10 wt% or more of vanadium, 5 wt% or more of nickel, 5 wt% or more of sulfur and 3 wt% or less of molybdenum, and having a specific surface area of 60 m 2 /g or smaller and pore sizes of 250 Å or larger from said spent catalysts; providing a second material comprising 3 wt% or less of vanadium, 4 wt% or less of nickel, 2 wt% or less of sulfur and 5 wt% or more of molybdenum, and having a specific surface area of 130 m 2 /g or larger and pore sizes of 150 Å or smaller from said spent catalysts; pretreating the first and second materials, separately, at 300 to 400°C; pulverizing each of the pretreated materials to an average particle size of 75 to 150 microns (100 to 200 mesh); mixing the first material with acid and water, then with the second material; and drying the mixture at 100 to 120°C and then calcining at 450 to 550°C; in which the first material and the second material are mixed at a weight ratio of 4:6 to 2:8. providing a first material comprising 10 wt% or more of vanadium, 5 wt% or more of nickel, 5 wt% or more of sulfur and 3 wt% or less of molybdenum, and having a specific surface area of 60 m 2 /g or smaller and pore sizes of 250 Å or larger from said spent catalysts; providing a second material comprising 3 wt% or less of vanadium, 4 wt% or less of nickel, 2 wt% or less of sulfur and 5 wt% or more of molybdenum, and having a specific surface area of 130 m 2 /g or larger and pore sizes of 150 Å or smaller from said spent catalysts; pretreating the first and second materials, separately, at 300 to 400°C; pulverizing each of the pretreated materials to an average particle size of 75 to 150 microns (100 to 200 mesh); mixing the first material with acid and water, then with the second material; and drying the mixture at 100 to 120°C and then calcining at 450 to 550°C; in which the first material and the second material are mixed at a weight ratio of 4:6 to 2:8.
A computer implemented method of encoding data into a matrix code symbol, the computer implemented method comprising: receiving the data in the form of a table of data elements, wherein a data element of the table of data elements comprises at least one character, the table of data elements comprises at least one row of data elements, wherein a row of data elements of the at least one row of data elements comprises at least one data element; and at least one column of data elements, wherein a column of data elements of the at least one column of data elements comprises at least one data element; converting the table of data elements into a string of characters, wherein converting the table of data elements comprises extracting each data element from the table of data elements to obtain a set of extracted data elements; and creating the string of characters from the set of extracted data elements, wherein creating the string comprises adding an identifier associated with each extracted data element to the set of extracted data elements, wherein the identifier represents a row and column location of each data element in the table of data elements; and encoding the string of characters into the matrix code symbol, in particular wherein the at least one character is at least one of an alphabet, a numeral, a special character, and an alpha-numeric character. receiving the data in the form of a table of data elements, wherein a data element of the table of data elements comprises at least one character, the table of data elements comprises at least one row of data elements, wherein a row of data elements of the at least one row of data elements comprises at least one data element; and at least one column of data elements, wherein a column of data elements of the at least one column of data elements comprises at least one data element; converting the table of data elements into a string of characters, wherein converting the table of data elements comprises extracting each data element from the table of data elements to obtain a set of extracted data elements; and creating the string of characters from the set of extracted data elements, wherein creating the string comprises adding an identifier associated with each extracted data element to the set of extracted data elements, wherein the identifier represents a row and column location of each data element in the table of data elements; and encoding the string of characters into the matrix code symbol, in particular wherein the at least one character is at least one of an alphabet, a numeral, a special character, and an alpha-numeric character.
An image processing apparatus comprising: a color separation unit configured to separate image data, which is captured by an imaging device, into first image data of a luminance component and image data of a color component; a processing unit configured to generate second image data of the luminance component by manipulating pixel values of multi-resolution image data generated from the first image data of the luminance component and reconstructing the manipulated multi-resolution image data; and a composition unit configured to composite the second image data of the luminance component with the image data of the color component, wherein the processing unit is configured to generate the second image data of the luminance component based on pixel values which are adjusted by using parameters in accordance with pixel values of the image data of the color component, characterized in that the processing unit generates the second image data of the luminance component by compositing the first image data of the luminance component with third image data of the luminance component, which is generated by the reconstructing, by using the parameters in accordance with the pixel values of the image data of the color component. a color separation unit configured to separate image data, which is captured by an imaging device, into first image data of a luminance component and image data of a color component; a processing unit configured to generate second image data of the luminance component by manipulating pixel values of multi-resolution image data generated from the first image data of the luminance component and reconstructing the manipulated multi-resolution image data; and a composition unit configured to composite the second image data of the luminance component with the image data of the color component, wherein the processing unit is configured to generate the second image data of the luminance component based on pixel values which are adjusted by using parameters in accordance with pixel values of the image data of the color component, characterized in that the processing unit generates the second image data of the luminance component by compositing the first image data of the luminance component with third image data of the luminance component, which is generated by the reconstructing, by using the parameters in accordance with the pixel values of the image data of the color component.
A method of producing a coated bioactive surface, the method comprising: nebulizing a solution containing at least one dissolved biomolecule to form a liquid aerosol; combining the liquid aerosol and a non-thermal atmospheric pressure plasma to form a coating; and depositing, in the absence of reactive monomers, the coating onto a surface. nebulizing a solution containing at least one dissolved biomolecule to form a liquid aerosol; combining the liquid aerosol and a non-thermal atmospheric pressure plasma to form a coating; and depositing, in the absence of reactive monomers, the coating onto a surface.
A furniture base comprising a frame structure and an actuator device that is rotatably supported in the frame structure about a rotational axis, which furniture base further comprises a plurality of wheel units (76, 77, 78, 79) that are movably attached to the frame structure between an upper position and lower position relative to the frame structure, which wheel units (76, 77, 78, 79) are connected to the actuator device for movement of the wheel unit (76, 77, 78, 79) between the upper and lower position, wherein the furniture base comprises a locking mechanism for locking of the wheel units (76, 77, 78, 79) in the lower position of the wheel units (76, 77, 78, 79), which locking mechanism comprises a guide pin that projects out from the actuator device and is attached to the actuator device swingably relative to the actuator device, which furniture base further comprises a guide device that guides the movement of the guide pin when the actuator device is rotated for movement of the wheel units (76, 77, 78, 79) between the upper and lower positions of the wheel units (76, 77, 78, 79).
A headrest system, comprising: a headrest (11; 16; 17, 18); a guide bracket (13; 25, 26) to which the headrest (11; 16; 17, 18) is mounted such that the headrest (11; 16; 17, 18) is displaceable relative to the guide bracket (13; 25, 26); and an actuator (12; 21-23; 31-39, 22, 23) coupled to the headrest (11; 16; 17, 18) and the guide bracket (13; 25, 26), the actuator (12; 21-23; 31-39, 22, 23) being configured to displace the headrest (11; 16; 17, 18) relative to the guide bracket (13; 25, 26), the actuator (12; 21-23; 31-39, 22, 23) comprising a spindle transmission (22, 23) and a power drive (21; 31-39) coupled to the spindle transmission (22, 23), the spindle transmission (22, 23) comprising a spindle and a spindle nut engaged with the spindle, the power drive (21; 31-39) being arranged in a cavity defined within an outer shell of the headrest (11; 16; 17, 18), the power drive (21; 31-39) comprising a motor, characterized in that the actuator (12; 21-23; 31-39, 22, 23) has a two-stage worm transmission which is coupled between the motor and the spindle transmission (22, 23), and that a worm of a first worm transmission of the two-stage worm transmission is coupled to the output shaft of the motor in a torque proof manner and a worm gear of a second worm transmission of the two-stage worm transmission is coupled to the spindle or the spindle nut in a torque proof manner. a headrest (11; 16; 17, 18); a guide bracket (13; 25, 26) to which the headrest (11; 16; 17, 18) is mounted such that the headrest (11; 16; 17, 18) is displaceable relative to the guide bracket (13; 25, 26); and an actuator (12; 21-23; 31-39, 22, 23) coupled to the headrest (11; 16; 17, 18) and the guide bracket (13; 25, 26), the actuator (12; 21-23; 31-39, 22, 23) being configured to displace the headrest (11; 16; 17, 18) relative to the guide bracket (13; 25, 26), the actuator (12; 21-23; 31-39, 22, 23) comprising a spindle transmission (22, 23) and a power drive (21; 31-39) coupled to the spindle transmission (22, 23), the spindle transmission (22, 23) comprising a spindle and a spindle nut engaged with the spindle, the power drive (21; 31-39) being arranged in a cavity defined within an outer shell of the headrest (11; 16; 17, 18), the power drive (21; 31-39) comprising a motor,