mhurhangee/ep-ind-claims huggingface dataset:
A multi pass type color image forming apparatus comprising: a photoconductor; an exposure unit adapted to irradiate a surface of the photoconductor to form an electrostatic latent image on the photoconductor; a plurality of developers (50Y, 50M, 50C, 50K) adapted to develop the electrostatic latent image formed on the photoconductor to form developing agent images on the photoconductor; an intermediate transfer belt to which the developing agent images formed on the photoconductor are transferred; a cleaning unit adapted to come into contact with the intermediate transfer belt to remove developing agent wastes; a position recognition part formed on the intermediate transfer belt; a position sensing unit adapted to sense the position recognition part; a motor adapted to rotate the intermediate transfer belt; and a controller adapted to control the exposure unit based on a sensing signal generated when the position sensing unit senses the position recognition part, characterised in that the controller is adapted to control velocity of the motor in an exposure section of second and subsequent colors to be lower than reference velocity of the motor in an exposure section of a first color to correct a color registration error between a developing agent image of the first color and developing agent images of the subsequent colors of a page caused by a change in rotational velocity of the intermediate transfer belt due to contact with the cleaning unit a photoconductor; an exposure unit adapted to irradiate a surface of the photoconductor to form an electrostatic latent image on the photoconductor; a plurality of developers (50Y, 50M, 50C, 50K) adapted to develop the electrostatic latent image formed on the photoconductor to form developing agent images on the photoconductor; an intermediate transfer belt to which the developing agent images formed on the photoconductor are transferred; a cleaning unit adapted to come into contact with the intermediate transfer belt to remove developing agent wastes; a position recognition part formed on the intermediate transfer belt; a position sensing unit adapted to sense the position recognition part; a motor adapted to rotate the intermediate transfer belt; and a controller adapted to control the exposure unit based on a sensing signal generated when the position sensing unit senses the position recognition part, characterised in that the controller is adapted to control velocity of the motor in an exposure section of second and subsequent colors to be lower than reference velocity of the motor in an exposure section of a first color to correct a color registration error between a developing agent image of the first color and developing agent images of the subsequent colors of a page caused by a change in rotational velocity of the intermediate transfer belt due to contact with the cleaning unit
Motor vehicle body for light weight construction comprising at least a bottom unit, a roof and side units, which are assembled to form at least part of the motor vehicle body, wherein at least the side units consist of an inner shell element and an outer shell element made of injection molded plastics material and attached on each other by attachment areas to form a load-bearing box structure, characterized in that the inner and/or outer shell element (3a/3b) comprise a strut structure extending from an inner shell element surface in between the shell elements (3a, 3b) towards the opposing shell element to realize the box structure.
A medical device comprising: a first member; a second member; and a wrist mechanism comprising: a first cylinder portion coupled to the first member; and a second cylinder portion coupled to the second member; characterised by; the first cylinder portion being rollably engaged with the second cylinder portion in two or more degrees of freedom such that the first member moves in two or more directions with respect to the second member; the second cylinder portion being positioned such that a longitudinal axis of the second cylinder portion is orthogonal to a longitudinal axis of the first cylinder portion. a first member; a second member; and a wrist mechanism comprising: a first cylinder portion coupled to the first member; and a second cylinder portion coupled to the second member; characterised by; the first cylinder portion being rollably engaged with the second cylinder portion in two or more degrees of freedom such that the first member moves in two or more directions with respect to the second member; the second cylinder portion being positioned such that a longitudinal axis of the second cylinder portion is orthogonal to a longitudinal axis of the first cylinder portion. a first cylinder portion coupled to the first member; and a second cylinder portion coupled to the second member; characterised by; the first cylinder portion being rollably engaged with the second cylinder portion in two or more degrees of freedom such that the first member moves in two or more directions with respect to the second member; the second cylinder portion being positioned such that a longitudinal axis of the second cylinder portion is orthogonal to a longitudinal axis of the first cylinder portion.
Insulating glazing comprising two panels (4, 6) which are made of transparent material, such as glass or plastics material, disposed at outer faces of the insulating glazing and at least one intermediate panel which is placed between said two panels (4, 6), the intermediate panel cooperating at opposite edges (7A, 7C) with at least one spacer unit which spaces it from each adjacent panel made of transparent material (4, 6), the spacer unit comprising two portions (19, 20) with a form in the shape of an overturned "U" delimiting a channel in which an end of the intermediate panel is placed, said portions with a form in the shape of an overturned "U" (19, 20) being interconnected by a wall delimiting said channel, said spacer unit comprising means which can receive the deformation of the intermediate panel, characterised in that said intermediate panel is a luminescent solar concentrator, the luminescent solar concentrator being deformable in a direction which is orthogonal to an axis perpendicular to its faces with a larger area, further to a variation of the temperature thereof and thermal expansion thereof, said spacer unit comprising electrical contact means which can cooperate by sliding with connectors of the luminescent solar concentrator, said electrical contact means being adapted to be connected by sliding to an electrical circuit on the exterior of the insulating glazing.
A method for manufacturing an electrode assembly, the method comprising: a first step of preparing a plurality of radical units, each of which is manufactured by alternately stacking an electrode and a separator; a second step of stacking the plurality of radical units to manufacture an electrode stack; a winding step of surrounding at least a portion of a circumference of the electrode stack by using a winding separator that is separated from the separator constituting the electrode stack to maintain a relative distance between the radical units within the electrode stack; and a third step of pressing an outer surface of the electrode stack to manufacture an electrode assembly on which a curved surface having a curvature radius is formed on the electrode stack, wherein, in the first step, the electrode and the separator are bonded to each other at a temperature of 30 °C to 70°C, and in the third step, the electrode stack is pressed at a temperature of 60°C to 100°C. a first step of preparing a plurality of radical units, each of which is manufactured by alternately stacking an electrode and a separator; a second step of stacking the plurality of radical units to manufacture an electrode stack; a winding step of surrounding at least a portion of a circumference of the electrode stack by using a winding separator that is separated from the separator constituting the electrode stack to maintain a relative distance between the radical units within the electrode stack; and a third step of pressing an outer surface of the electrode stack to manufacture an electrode assembly on which a curved surface having a curvature radius is formed on the electrode stack, wherein, in the first step, the electrode and the separator are bonded to each other at a temperature of 30 °C to 70°C, and in the third step, the electrode stack is pressed at a temperature of 60°C to 100°C.
Subsea AC power supply device, comprising a subsea transformer, having a primary winding arranged to be connected to a topside AC power supply via a subsea power supply cable, a subsea shunt reactor, connected in parallel with the primary winding of the subsea transformer, wherein the subsea transformer and the subsea shunt reactor are arranged within a common subsea watertight housing (4, 5), the watertight housing (4, 5) including a first and a second compartment, wherein the subsea transformer is arranged in the first compartment and the subsea shunt reactor is arranged in the second compartment, the first and second compartments being fluidly interconnected, wherein surrounding seawater is allowed to circulate between the first and second compartments.
A tube port comprising: a tubular first stem (56, 56a) having an interior surface and an exterior surface extending between a first end and a longitudinally spaced apart second end, the interior surface bounding a passage that longitudinally extends through the first stem (56, 56a); an annular lip seal; a flange encircling and radially outwardly projecting from the first end of the first stem (56, 56a); and characterized by the annular lip seal radially inwardly projecting so as to extend into the passage from the interior surface of the first stem (56, 56a) at the first end thereof, the annular lip seal being comprised of a flexible elastomeric material and an annular channel recessed on the flange so as to encircle an opening of the passage extending through the first stem (56, 56a), the channel increasing the flexibility of the annular lip seal. a tubular first stem (56, 56a) having an interior surface and an exterior surface extending between a first end and a longitudinally spaced apart second end, the interior surface bounding a passage that longitudinally extends through the first stem (56, 56a); an annular lip seal; a flange encircling and radially outwardly projecting from the first end of the first stem (56, 56a); and characterized by the annular lip seal radially inwardly projecting so as to extend into the passage from the interior surface of the first stem (56, 56a) at the first end thereof, the annular lip seal being comprised of a flexible elastomeric material and an annular channel recessed on the flange so as to encircle an opening of the passage extending through the first stem (56, 56a), the channel increasing the flexibility of the annular lip seal.
A synergistic pharmaceutical composition for use in a method of treating cancer wherein the composition comprises the compounds Neo-isopulegol, Iso-pulegol and Citronellol in a ratio of 1:1:1.
An aircraft rotor assembly, comprising: a central yoke; a plurality of rotor blades coupled to the yoke for rotation with the yoke about an axis, each blade having a Lock number of approximately 5 or greater; a lead-lag pivot for each blade, each pivot being a radial distance from the axis and allowing for in-plane lead-lag motion of the associated blade relative to the yoke, each pivot allowing for in-plane motion from a neutral position of at least 1 degree in each of the lead and lag directions; wherein lead and lag motion of each blade is opposed by a biasing force that biases the associated blade toward the neutral position; wherein the biasing force is selected to achieve a first in-plane frequency of greater than 1/rev for each blade; and characterized in that the aircraft rotor assembly further comprises a plurality of damper-less elastic springs, the springs coupling each blade to each adjacent blade; and wherein elastic deformation of each spring produces the biasing force for the associated blades. a central yoke; a plurality of rotor blades coupled to the yoke for rotation with the yoke about an axis, each blade having a Lock number of approximately 5 or greater; a lead-lag pivot for each blade, each pivot being a radial distance from the axis and allowing for in-plane lead-lag motion of the associated blade relative to the yoke, each pivot allowing for in-plane motion from a neutral position of at least 1 degree in each of the lead and lag directions; wherein lead and lag motion of each blade is opposed by a biasing force that biases the associated blade toward the neutral position; wherein the biasing force is selected to achieve a first in-plane frequency of greater than 1/rev for each blade; and characterized in that the aircraft rotor assembly further comprises a plurality of damper-less elastic springs, the springs coupling each blade to each adjacent blade; and wherein elastic deformation of each spring produces the biasing force for the associated blades.
A process for recovering a hydrocarbon from a subterranean formation comprising the steps of: (i) contacting a hydrocarbon from a subterranean formation with steam or water; (ii) contacting the hydrocarbon from the subterranean formation with one or more aromatic hydrocarbons, wherein the hydrocarbon from the subterranean formation is contacted with the steam or water and the one or more aromatic hydrocarbons inside of the subterranean formation or outside of the subterranean formation; and (iii) recovering the hydrocarbon from the subterranean formation, wherein the one or more aromatic hydrocarbons are selected from: methyl salicylate, phenyl acetate, methyl 4-hydroxybenzoate, benzyl acetate, benzaldehyde, and acetophenone, and any combination or mixture thereof.
Method for holding a substrate on a flatbed printing system (10; 110; 210; 310) comprising a substrate support surface (14; 114; 214) provided with a plurality of through-holes, the method comprising the steps of: - positioning at least one substrate on a substrate area of the substrate support surface (14; 114; 214), thereby defining a leak air area with through-holes not covered by the at least one substrate; - positioning a flexible cover device (30; 130; 230; 330) substantially over at least the leak air area to substantially block off air flow through the through-holes in the leak air area; followed by - applying an under-pressure to the at least one substrate and the cover device (30; 130; 230; 330) via the through-holes; and consecutively - at least partially withdrawing the cover device (30; 130; 230; 330) from at least the leak air area, wherein the step of positioning the cover device (30; 130; 230; 330) comprises positioning the cover device (30; 130; 230; 330) over the at least one substrate, and wherein the step of at least partially withdrawing the cover device (30; 130; 230; 330) comprises withdrawing the cover device (30; 130; 230; 330) to expose at least part of the at least one substrate for printing. - positioning at least one substrate on a substrate area of the substrate support surface (14; 114; 214), thereby defining a leak air area with through-holes not covered by the at least one substrate; - positioning a flexible cover device (30; 130; 230; 330) substantially over at least the leak air area to substantially block off air flow through the through-holes in the leak air area; followed by - applying an under-pressure to the at least one substrate and the cover device (30; 130; 230; 330) via the through-holes; and consecutively - at least partially withdrawing the cover device (30; 130; 230; 330) from at least the leak air area, wherein the step of positioning the cover device (30; 130; 230; 330) comprises positioning the cover device (30; 130; 230; 330) over the at least one substrate, and wherein the step of at least partially withdrawing the cover device (30; 130; 230; 330) comprises withdrawing the cover device (30; 130; 230; 330) to expose at least part of the at least one substrate for printing.
A method of producing a porous carbon, comprising: a first step of carbonizing a material containing a carbon source and a template source, to prepare a carbonized product; a second step of immersing the carbonized product into a template removing solution, to remove a template from the carbonized product; and a third step of heat treating the carbonized product from which the template has been removed at a heat treatment temperature of less than or equal to 1000°C, the method characterized by: controlling type, amount, or ratio of functional groups that are present in the porous carbon, comprising changing a size of the template and changing at least one or more of the following conditions: type of the material, ratio of the carbon source and the template source, and temperature or time of the heat treatment.
A method for wireless communication, comprising: obtaining data to transmit on a plurality of carriers for uplink at a user equipment, wherein the data to transmit comprises data of a plurality of data types; determining that the user equipment is power limited for transmission on the plurality of carriers; prioritizing the data to transmit based on both the priorities of the plurality of data types and the priorities of the plurality of carriers in response to the user equipment being power limited; and allocating available transmit power to the data to transmit based on both the priorities of the plurality of data types and the priorities of the plurality of carriers. obtaining data to transmit on a plurality of carriers for uplink at a user equipment, wherein the data to transmit comprises data of a plurality of data types; determining that the user equipment is power limited for transmission on the plurality of carriers; prioritizing the data to transmit based on both the priorities of the plurality of data types and the priorities of the plurality of carriers in response to the user equipment being power limited; and allocating available transmit power to the data to transmit based on both the priorities of the plurality of data types and the priorities of the plurality of carriers.
A pipe-bending rig comprising: an anchorage for holding a proximal end of a pipe; at least one bending former presenting a convex forming surface toward a side of a pipe when the pipe is held by the anchorage to extend distally from the anchorage; a pipe-bending drive arranged to exert lateral force on the pipe for deflecting a distal end of the pipe to effect plastic bending of the pipe along its length against the forming surface; at least one carriage that is movable along a path with respect to the anchorage and the bending former during said deflection of the distal end of the pipe; and a link carried by the carriage to extend toward the pipe, the link being arranged to apply distal force to the pipe to impart longitudinal tension to the pipe as the pipe is being bent against the forming surface, characterised in that the at least one bending former is fixed, and in that the convex forming surface of the bending former extends along substantially the whole length of the pipe. an anchorage for holding a proximal end of a pipe; at least one bending former presenting a convex forming surface toward a side of a pipe when the pipe is held by the anchorage to extend distally from the anchorage; a pipe-bending drive arranged to exert lateral force on the pipe for deflecting a distal end of the pipe to effect plastic bending of the pipe along its length against the forming surface; at least one carriage that is movable along a path with respect to the anchorage and the bending former during said deflection of the distal end of the pipe; and a link carried by the carriage to extend toward the pipe, the link being arranged to apply distal force to the pipe to impart longitudinal tension to the pipe as the pipe is being bent against the forming surface, characterised in that the at least one bending former is fixed, and in that the convex forming surface of the bending former extends along substantially the whole length of the pipe.
An emulsifiable concentrate comprising a water-insoluble pesticide; an amide of the formula R 1 -C N(R 2) 2 where R 1 is C 5 -C 19 -alkyl and R 2 is C 1 -C 4 -alkyl; a carbonate, which is ethylene carbonate or propylene carbonate; and a C 6 -C 20 hydrocarbon solvent, which has a solubility in water of not more than 5% by weight at 20°C, wherein the emulsifiable concentrate comprises not more than 35% by weight of the amide of the formula, not more than 40% by weight of the carbonate, and at least 15% by weight of the hydrocarbon solvent.
A method for cultivating fusion protein- or antibody-producing recombinant CHO cells in a glucose-containing medium, wherein the cultivation of the cell line is carried out with the addition of a nutrient medium such that the amount of supplemented glucose is 50% to 35% of that which can maximally be consumed by the living cell density to be expected in the system in the case of a non-glucose-limited process, wherein the method is operated as a fed-batch method, wherein the specific productivity of the cell is increased compared to a non-glucose-limited process.
A vaccine pharmaceutical composition for use in inducing cellular immunity, comprising: an antigen; and a bisphosphonate, wherein said composition is to be administered transdermally or transmucosally. an antigen; and a bisphosphonate, wherein said composition is to be administered transdermally or transmucosally.
A method of determining a quality of a weld by monitoring a welder as the welder performs a welding process by creating actual welding parameters between an advancing wire and a workpiece, the welding process being defined by a series of rapidly repeating wave shapes controlled by command signals to a power supply of the welder, said method comprising: segmenting a wave shape, having a weld cycle with a cycle time, into a series of time-segmented states, characterized in that the method further comprises selecting a non-adaptive state from the series of time-segmented states, wherein the non-adaptive state represents a segment of the wave shape where the command signals remain invariable under different weld conditions; measuring a plurality of weld parameters generated between the advancing wire and the workpiece during the non-adaptive state at an interrogation rate over an interval of time; and calculating a plurality of quality parameters for the non-adaptive state based on measurements of the plurality of weld parameters acquired during the interval of time within the non-adaptive state. segmenting a wave shape, having a weld cycle with a cycle time, into a series of time-segmented states, characterized in that the method further comprises selecting a non-adaptive state from the series of time-segmented states, wherein the non-adaptive state represents a segment of the wave shape where the command signals remain invariable under different weld conditions; measuring a plurality of weld parameters generated between the advancing wire and the workpiece during the non-adaptive state at an interrogation rate over an interval of time; and calculating a plurality of quality parameters for the non-adaptive state based on measurements of the plurality of weld parameters acquired during the interval of time within the non-adaptive state.