mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a current in a wind park (100, 300) comprising at least one wind turbine (101, 301), wherein the wind park comprises a plurality of current generators, the method comprising: detecting a grid irregularity; determining an optimal current to be provided at a predetermined location in the wind park during the grid irregularity, the predetermined location being a point of common coupling of the wind park to the grid; and determining a corresponding current to be generated from the plurality of generators so as to provide the optimal current at the predetermined location, characterized in that the corresponding current is determined based on at least an impedance value between the current generators and the predetermined location. detecting a grid irregularity; determining an optimal current to be provided at a predetermined location in the wind park during the grid irregularity, the predetermined location being a point of common coupling of the wind park to the grid; and determining a corresponding current to be generated from the plurality of generators so as to provide the optimal current at the predetermined location, characterized in that the corresponding current is determined based on at least an impedance value between the current generators and the predetermined location.
A display device comprising: a pixel portion having a plurality of pixels; a cumulative data storage unit for storing a cumulative light-emission frequency data of each of the plurality of pixels in corresponding one of a plurality of memories; a correction unit for correcting a video data based on the cumulative light-emission frequency data stored in the cumulative data storage unit, and for outputting the corrected video data to the pixel portion, wherein each of the plurality of the pixels emits light having any one of a plurality of colors, and an adder for adding a light-emission frequency data of each of the plurality of pixels detected by sampling the corrected video data supplied to the pixel portion to the cumulative light-emission frequency data of each of the plurality of pixels stored in the cumulative data storage unit, and for writing, to the cumulative data storage unit, a result of the adding as a new cumulative light-emission frequency data; wherein the cumulative light-emission frequency data is divided into a plurality of data fragments, wherein each of the plurality of the data fragments is corresponded to at least one of the plurality of the colors, and wherein each of the plurality of the data fragments is stored in corresponding one of the plurality of memories. a pixel portion having a plurality of pixels; a cumulative data storage unit for storing a cumulative light-emission frequency data of each of the plurality of pixels in corresponding one of a plurality of memories; a correction unit for correcting a video data based on the cumulative light-emission frequency data stored in the cumulative data storage unit, and for outputting the corrected video data to the pixel portion, wherein each of the plurality of the pixels emits light having any one of a plurality of colors, and an adder for adding a light-emission frequency data of each of the plurality of pixels detected by sampling the corrected video data supplied to the pixel portion to the cumulative light-emission frequency data of each of the plurality of pixels stored in the cumulative data storage unit, and for writing, to the cumulative data storage unit, a result of the adding as a new cumulative light-emission frequency data; wherein the cumulative light-emission frequency data is divided into a plurality of data fragments, wherein each of the plurality of the data fragments is corresponded to at least one of the plurality of the colors, and wherein each of the plurality of the data fragments is stored in corresponding one of the plurality of memories.
An electrode structure comprising: a base layer comprising a first active material; a plurality of active material plates, a plate of the plurality of active material plates comprising opposing side walls and a lower wall between the side walls, wherein the lower wall is a flat plane, wherein the lower wall is disposed on the base layer, wherein adjacent plates of the plurality of active material plates are spaced apart from each other in a first direction parallel to the top plane of the base layer, and wherein an active material plate of the plurality of active material plates comprises a second active material; and a channel between adjacent plates of the plurality of active material plates, wherein the channel comprises a first channel region defined by adjacent side walls of the adjacent plates, and a second channel region connected to the first channel region and defined by the lower wall of the plate of the plurality of active material plates and the base layer, wherein a width in the first direction of the second channel region is greater than a width in the first direction of the first channel region, wherein the plurality of active material plates are disposed obliquely on the base layer. a base layer comprising a first active material; a plurality of active material plates, a plate of the plurality of active material plates comprising opposing side walls and a lower wall between the side walls, wherein the lower wall is a flat plane, wherein the lower wall is disposed on the base layer, wherein adjacent plates of the plurality of active material plates are spaced apart from each other in a first direction parallel to the top plane of the base layer, and wherein an active material plate of the plurality of active material plates comprises a second active material; and a channel between adjacent plates of the plurality of active material plates, wherein the channel comprises a first channel region defined by adjacent side walls of the adjacent plates, and a second channel region connected to the first channel region and defined by the lower wall of the plate of the plurality of active material plates and the base layer, wherein a width in the first direction of the second channel region is greater than a width in the first direction of the first channel region, wherein the plurality of active material plates are disposed obliquely on the base layer.
Grounding device for an electrically conductive sheathing of a cable, wherein the grounding device has: a contact element (102, 102') having a connection line fastened thereto for connection to a grounding point, wherein the contact element (102, 102') has elastic properties and is configured so that in the mounted state, it at least partially engages around a circumference of the conductive sheathing of the cable, a retaining element (108, 110) for pressing the contact element (102, 102') onto the electrically conductive sheathing of the cable, wherein the retaining element (108, 110) is configured so that in the mounted state, it surrounds the contact element (102, 102') on the outside and creates a defined electrical contact between the contact element (102, 102') and the electrically conductive sheathing, wherein the retaining element has a spring element, which in the mounted state abuts on and engages around the contact element (102, 102') and exerts an elastic contact pressure on the contact element (102, 102'), characterised in that the retaining element (108, 110) furthermore has an outer casing, which is preferably electrically insulating and has at least one outer layer made of a heat-shrinkable material and at least one inner layer made of an elastic material. a contact element (102, 102') having a connection line fastened thereto for connection to a grounding point, wherein the contact element (102, 102') has elastic properties and is configured so that in the mounted state, it at least partially engages around a circumference of the conductive sheathing of the cable, having a connection line fastened thereto for connection to a grounding point, wherein the contact element (102, 102') has elastic properties and is configured so that in the mounted state, it at least partially engages around a circumference of the conductive sheathing of the cable, a retaining element (108, 110) for pressing the contact element (102, 102') onto the electrically conductive sheathing of the cable, wherein the retaining element (108, 110) is configured so that in the mounted state, it surrounds the contact element (102, 102') on the outside and creates a defined electrical contact between the contact element (102, 102') and the electrically conductive sheathing, on the outside and creates a defined electrical contact between the contact element (102, 102') and the electrically conductive sheathing, wherein the retaining element has a spring element, which in the mounted state abuts on and engages around the contact element (102, 102') and exerts an elastic contact pressure on the contact element (102, 102'), characterised in that the retaining element (108, 110) furthermore has an outer casing, which is preferably electrically insulating and has at least one outer layer made of a heat-shrinkable material and at least one inner layer made of an elastic material.
A bonding product consisting of m molecules of a polysaccharide X with a polysaccharide A, wherein said polysaccharide A is selected from the group of chitins or chitosans, m is an integer of from 1 to 10,000, and the linkage between X and A is an amine and/or amide linkage, characterized in that said polysaccharide X is partially or completely substituted, wherein the substituents of polysaccharide X are selected from the group consisting of hydroxyethyl groups and carboxymethyl groups and wherein said polysaccharide X is starch, amylose and/or amylopectin.
Boat propulsion system, comprising: an outboard motor; a control lever by which an accelerator opening can be controlled by an operator; an accelerator opening detection section configured to detect the accelerator opening; a thrust calculation section configured to calculate an intended thrust to be generated from the accelerator opening and configured to output it as calculated thrust; wherein the outboard motor comprises a thrust generating unit configured to generate a thrust; a thrust detection section configured to detect a thrust actually generated by the thrust generating unit and configured to output it as actual thrust; and a control section configured to control an output of the thrust generating unit such that the actual thrust approaches the calculated thrust. an outboard motor; a control lever by which an accelerator opening can be controlled by an operator; an accelerator opening detection section configured to detect the accelerator opening; a thrust calculation section configured to calculate an intended thrust to be generated from the accelerator opening and configured to output it as calculated thrust; wherein the outboard motor comprises a thrust generating unit configured to generate a thrust; a thrust detection section configured to detect a thrust actually generated by the thrust generating unit and configured to output it as actual thrust; and a control section configured to control an output of the thrust generating unit such that the actual thrust approaches the calculated thrust.
Method for manufacturing a moulded part with a desired geometry, the moulded part being produced by application and/or removal, at least one first first projection being projected onto the moulded part from a first direction from a first projection device, at least one first second projection being projected onto the moulded part from a second direction from a second projection device, the first first projection and the first second projection coinciding if the moulded part has reached the desired geometry at the location of the projection, characterized in that the first projection device projects n first projections, and the second projection device projects n second projections, material being removed from the moulded part if the first first projection is shifted from the first second projection in the first direction, material being applied to the moulded part if the first first projection is shifted from the first second projection in the direction opposite to the first direction.
A method of joining substrates, wherein a smoothing of surfaces in the joining area of substrates is carried out such that an evenness or a deviation of the surface of joining surfaces with a surface roughness of < 3 nm RMS, preferably < 1 nm, is observed; and a pretreatment of at least one joining surface of a substrate to be joined is carried out prior to the actual joining in a low pressure oxygen plasma, wherein during the joining a pressing force in the range of 2 kPa to 5 MPa acts on the substrates to be joined and in so doing a heat treatment is carried out at an elevated temperature of at least 100°C and under underpressure conditions of a maximum of 10 mbar, preferably < 10 -3 mbar, wherein the pretreatment with low pressure oxygen plasma is carried out with a power density in the range from 0.5 W/cm 2 to 10 W/cm 2.
Medical instrument having an elongate shaft (2, 32) which bears a spatula (3, 33) at a distal end and in a proximal end region has a shaft head (4, 34) on which a laterally projecting handle (5, 35) is arranged, wherein the shaft (2, 32) is rotatable relative to the handle (5, 35) about an axis of rotation parallel to a longitudinal axis of the shaft (2, 32), wherein the handle is guided relative to the shaft head in a circular arc-shaped groove running transversely with respect to the longitudinal axis of the shaft, wherein the handle (5, 35) is releasably connected to the shaft head (4, 34), characterized in that at least one stop pin (19, 19') is arranged in order to delimit an angular region of the rotation between the handle (5, 35) and the shaft head (4, 34), wherein, after removal of the stop pin (19, 19'), the handle (5, 35) in the groove can be moved beyond the region delimited by the stop pin (19, 19') and thus separated from the shaft head (4, 34).
A titanium-based intermetallic alloy comprising, in atomic percent, 16% to 26% Al, 18% to 28% Nb, 0% to 3% of a metal M selected from Mo, W, Hf, and V, 0.1% to 2% of Si, 0% to 2% of Ta, 1% to 4% of Zr, with the condition Fe+Ni s 400 ppm, the balance being Ti, the alloy also presenting an Al/Nb ratio in atomic percent lying in the range 1.05 to 1.15.
A logical element comprising at least: an oscillation portion (107; 907) which mechanically oscillates; an excitation means (104; 911, 912) for bringing said oscillation portion (107; 907) to an initial oscillation state of either of a first oscillation state and a second oscillation state different in phase by π; and for parametrically oscillating said oscillation portion (107; 907) that has been brought to be an oscillation state of either of the first oscillation state and the second oscillation state; a first electrode (108a; 913) to which a signal for bringing said excitation means (104; 911) to be the initial oscillation state is input; a second electrode (108b; 914) to which a signal that causes parametric oscillation of said excitation means (104; 912) is input; and an output portion (110; 910) adapted to output a signal corresponding to either of the first oscillation state and second oscillation state of said oscillation portion (107; 907) parametrically oscillating, wherein binary information of "0" or "1" is expressed using the first oscillation state or second oscillation state. an oscillation portion (107; 907) which mechanically oscillates; an excitation means (104; 911, 912) for bringing said oscillation portion (107; 907) to an initial oscillation state of either of a first oscillation state and a second oscillation state different in phase by π; and for parametrically oscillating said oscillation portion (107; 907) that has been brought to be an oscillation state of either of the first oscillation state and the second oscillation state; bringing said oscillation portion (107; 907) to an initial oscillation state of either of a first oscillation state and a second oscillation state different in phase by π; and for parametrically oscillating said oscillation portion (107; 907) that has been brought to be an oscillation state of either of the first oscillation state and the second oscillation state; a first electrode (108a; 913) to which a signal for bringing said excitation means (104; 911) to be the initial oscillation state is input; a second electrode (108b; 914) to which a signal that causes parametric oscillation of said excitation means (104; 912) is input; and an output portion (110; 910) adapted to output a signal corresponding to either of the first oscillation state and second oscillation state of said oscillation portion (107; 907) parametrically oscillating, wherein binary information of "0" or "1" is expressed using the first oscillation state or second oscillation state.
Switching device having a unit for reliable switching position indication for welded contacts, having: - an actuation mechanism which has an actuation element and, via a first transmission mechanism, is operatively connected to a switching lock, which moves an output slide via a second transmission mechanism; - a contact arrangement which has a fixedly positioned switching piece carrier with contacts, which fixedly positioned switching piece carrier is arranged opposite a movable switching piece carrier with contacts, which movable switching piece carrier is guided in a contact slide, wherein the unit for reliable switching position indication for welded contacts is in the form of a bevel gear segment within the second transmission mechanism, wherein said bevel gear segment is operatively connected to the output slide and has two differently formed blocking apparatuses, characterized in that the output slide is operatively connected to the bevel gear segment via a catch lug, wherein the catch lug is formed as a projection and as a surface region, which is formed at an angle of 90° to said projection, and wherein a first blocking apparatus, in the form of a cut-out which geometrically matches the formation of the catch lug of the output slide, is formed in the bevel gear segment, and wherein the cut-out has a lug-shaped recess for the projection of the catch lug of the output slide and has a surface region, which is formed at an angle of 90° to said recess and against which the surface region of the catch lug of the output slide bears. - an actuation mechanism which has an actuation element and, via a first transmission mechanism, is operatively connected to a switching lock, which moves an output slide via a second transmission mechanism; - a contact arrangement which has a fixedly positioned switching piece carrier with contacts, which fixedly positioned switching piece carrier is arranged opposite a movable switching piece carrier with contacts, which movable switching piece carrier is guided in a contact slide, wherein the unit for reliable switching position indication for welded contacts is in the form of a bevel gear segment within the second transmission mechanism, wherein said bevel gear segment is operatively connected to the output slide and has two differently formed blocking apparatuses, characterized in that the output slide is operatively connected to the bevel gear segment via a catch lug, wherein the catch lug is formed as a projection and as a surface region, which is formed at an angle of 90° to said projection, and wherein a first blocking apparatus, in the form of a cut-out which geometrically matches the formation of the catch lug of the output slide, is formed in the bevel gear segment, and wherein the cut-out has a lug-shaped recess for the projection of the catch lug of the output slide and has a surface region, which is formed at an angle of 90° to said recess and against which the surface region of the catch lug of the output slide bears.
A vehicle driving assist apparatus comprising:at least one sensor to detect an obstacle existing around a vehicle to which the vehicle driving assist apparatus is applied; and an electronic control unit configured to: start an execution of a collision avoidance steering assist control to automatically steer the vehicle to avoid a collision of the vehicle with the detected obstacle in response to a driver of the vehicle performing a collision avoidance steering operation for steering the vehicle for avoiding the collision of the vehicle with the detected obstacle when there is a possibility that the vehicle collides with the detected obstacle; cancel the execution of the collision avoidance steering assist control in response to the driver performing a counter collision avoidance steering operation for steering the vehicle against automatically steering the vehicle intended to be achieved by the collision avoidance steering assist control, characterised by the cancel operation taking place after a first predetermined time elapses from starting the execution of the collision avoidance steering assist control; and continue the execution of the collision avoidance steering assist control until the first predetermined time elapses from starting the execution of the collision avoidance steering assist control even when the driver performs the counter collision avoidance steering operation. start an execution of a collision avoidance steering assist control to automatically steer the vehicle to avoid a collision of the vehicle with the detected obstacle in response to a driver of the vehicle performing a collision avoidance steering operation for steering the vehicle for avoiding the collision of the vehicle with the detected obstacle when there is a possibility that the vehicle collides with the detected obstacle; cancel the execution of the collision avoidance steering assist control in response to the driver performing a counter collision avoidance steering operation for steering the vehicle against automatically steering the vehicle intended to be achieved by the collision avoidance steering assist control, characterised by the cancel operation taking place after a first predetermined time elapses from starting the execution of the collision avoidance steering assist control; and continue the execution of the collision avoidance steering assist control until the first predetermined time elapses from starting the execution of the collision avoidance steering assist control even when the driver performs the counter collision avoidance steering operation.
A method of upregulating an expression of immunomodulatory cells in vitro comprising treating the immunomodulatory cells selected from the group consisting of human monocytes and human mesenchymal stromal cells (hMSCs) with IL-25 to increase an expression of PD-L1.