mhurhangee/ep-ind-claims huggingface dataset:
Assembly consisting of a tool device and consisting of at least one container assembly which comprises at least one flip tube, wherein the tool device is configured for the automated opening of the at least one flip tube, in other words of one container having an interior accessible through a container opening, wherein the container opening can be selectively closed by a container lid which can be swivelled about a lid swivel axis between an open position in which the container interior is accessible through the container opening, and a closed position in which the container opening is closed by the container lid, the container lid having on one side of the lid swivel axis a lid portion, which selectively uncovers or closes the container opening, and has on the respective other side of the lid swivel axis an actuating portion joined to the lid portion for joint movement therewith, the actuation of the actuating portion in an open direction causing the lid portion to swivel out of a position being closer to the closed position, preferably out of the closed position itself, to a position being closer to the open position, preferably into the open position itself, wherein the device comprises an actuating plunger which is provided and configured to move the actuating portion at least in open direction and thereby to exert an opening moment on the lid portion, characterised in that the device further comprises a damping means which is configured to exert a damping moment on the lid portion, at least during a period of the actuation of the actuating portion by the actuating plunger, which damping moment is less in amount and is directed in an opposite direction compared to the opening moment.
A self-propelled harvesting machine (1, 2), - having a main drive which is configured as a combustion engine, which is operatively connected by means of at least one power train to one or more working implements of the harvesting machine (1, 2) which comprise an intake means as well as a front attachment for picking up crop, - having a control device which is configured for controlling and/or regulating operational processes, and - having a first drive means linked to a drive shaft for driving the front attachment, which can be attached to the intake means, at a variable speed, wherein a second drive means, which can be linked to the drive shaft in order to drive the front attachment at a constant speed, is capable of being connected, wherein the first drive means is configured as a hydrostatic drive and the second drive means is configured as a mechanical drive, wherein the control device is configured in a manner such as to control the first drive means and the second drive means as a function of the type of the front attachment attached to the intake device, characterized in that an addition of the driving power of the first drive means and of the second drive means is carried out by connecting the mechanical drive in dependence upon the type of front attachment, and in that connection of the mechanical drive is arranged to cover the speed and driving power spectrum of the various types of front attachments. - having a main drive which is configured as a combustion engine, which is operatively connected by means of at least one power train to one or more working implements of the harvesting machine (1, 2) which comprise an intake means as well as a front attachment for picking up crop, - having a control device which is configured for controlling and/or regulating operational processes, and - having a first drive means linked to a drive shaft for driving the front attachment, which can be attached to the intake means, at a variable speed,
A torsional vibration damper (5, 5a, 5b), in particular for a hydrodynamic torque converter (1, 1a, 1b), with damper parts rotatable about an axis of rotation (d) and rotatable relative to one another about the axis of rotation (d), namely an input part (9, 9a), an output part (11, 11a, 11b) and an intermediate flange (10, 10a) effectively arranged in the torque flow between these, wherein, between the input part (9, 9a) and the intermediate flange (10, 10a), a first spring device (12, 12a) and, between the intermediate flange (10, 10a) and the output part (11, 11a, 11b), a second spring device having first and second spring elements (13, 13a, 15, 15a) arranged substantially on the same effective radius are provided, wherein the spring elements (13, 13a, 15, 15a) of at least one spring device (12, 12a, 14) are arranged preloaded in the circumferential direction in the externally unloaded state, characterized in that a preload is effective after exhaustion of a circumferential play.
A computer implemented method comprising: receiving a plurality of data tables, wherein each data table comprises at least one row and a plurality of fields; generating a first handle (H; HC1; HC2) for a first value in a table of the plurality of tables, wherein the first handle comprises an indication of whether a row in each of the plurality of tables is associated or not associated with the first value, the first handle (H; HC1; HC2) comprises a column for each row of each table of the plurality of tables and a row for each table of the plurality of tables, and wherein the intersection of a column and a row in the first handle comprises an indication of association or no association with the first value; displaying at least a portion of data values from the plurality of tables to a user; receiving a selection of one or more of the at least a portion of data values; and performing one or more operations on the first handle (H; HC1; HC2), wherein performing one or more operations on the first handle comprises performing a set analysis based on the first handle (H; HC1; HC2) and the selection, wherein the set analysis defines a set of data values that is different from a set defined by the selection and comprises an aggregation on one of the plurality of fields with a condition. receiving a plurality of data tables, wherein each data table comprises at least one row and a plurality of fields; generating a first handle (H; HC1; HC2) for a first value in a table of the plurality of tables, wherein the first handle comprises an indication of whether a row in each of the plurality of tables is associated or not associated with the first value, the first handle (H; HC1; HC2) comprises a column for each row of each table of the plurality of tables and a row for each table of the plurality of tables, and wherein the intersection of a column and a row in the first handle comprises an indication of association or no association with the first value; displaying at least a portion of data values from the plurality of tables to a user; receiving a selection of one or more of the at least a portion of data values; and performing one or more operations on the first handle (H; HC1; HC2), wherein performing one or more operations on the first handle comprises performing a set analysis based on the first handle (H; HC1; HC2) and the selection, wherein the set analysis defines a set of data values that is different from a set defined by the selection and comprises an aggregation on one of the plurality of fields with a condition.
A system comprising a cold plate and a toroidal transformer, the cold plate comprising: a first side with a first surface; a second side, opposite the first side, with a second surface opposite the first surface; a cavity integrally machined into the first surface of the first side, wherein the cavity is configured to seat a toroidal transformer and is defined by a circular outside wall and a base, as well as an integrally machined center post in a center of the cavity, and the outside wall, the base, and the center post are configured such that the toroidal transformer does not directly contact the outside wall, the base, and the center post when seated in the cavity, wherein the cavity further includes outer fins protruding from the outside wall radially toward a center of the cavity and which are configured to be concentrically outside the toroidal transformer without contacting the toroidal transformer, wherein the cavity further includes inner fins protruding radially from the center post into the cavity toward the outside wall, and which are configured to be concentrically inside the toroidal transformer without contacting the toroidal transformer; wherein the system further comprises an encapsulant surrounding the toroidal transformer in the cavity such that the toroidal transformer does not directly contact the base of the cavity; the encapsulant filling any gaps between the toroidal transformer and the base, the center post, the outside wall, the inner fins and the outer fins; and wherein the cold plate further comprises a cooling channel formed between the base and the second surface. a first side with a first surface; a second side, opposite the first side, with a second surface opposite the first surface; a cavity integrally machined into the first surface of the first side, wherein the cavity is configured to seat a toroidal transformer and is defined by a circular outside wall and a base, as well as an integrally machined center post in a center of the cavity, and the outside wall, the base, and the center post are configured such that the toroidal transformer does not directly contact the outside wall, the base, and the center post when seated in the cavity, wherein the cavity further includes outer fins protruding from the outside wall radially toward a center of the cavity and which are configured to be concentrically outside the toroidal transformer without contacting the toroidal transformer, wherein the cavity further includes inner fins protruding radially from the center post into the cavity toward the outside wall, and which are configured to be concentrically inside the toroidal transformer without contacting the toroidal transformer; wherein the system further comprises an encapsulant surrounding the toroidal transformer in the cavity such that the toroidal transformer does not directly contact the base of the cavity; the encapsulant filling any gaps between the toroidal transformer and the base, the center post, the outside wall, the inner fins and the outer fins; and wherein the cold plate further comprises a cooling channel formed between the base and the second surface.
A hand-operated flow regulator adapted to be inserted between an elastomeric bulb pump and a tubing as a part of an enema flow path, the flow regulator comprises a main flow body having - a main flow regulator axis, - a tubular pump coupling end part having a free pump coupling end and defining a first flow section, - the tubular pump coupling end part extends via an exterior regulator body part into a tubular tube coupling end part having having a free tube coupling end and defining a second flow section, and - an interior regulator body part is situated rotatable and substantially coaxially inside the exterior regulator body part, characterised in that - the flow regulator comprises a pivotable grip in operative communication with the interior regulator body part to open and close the enema flow path, wherein the pivotable grip moves lengthwise along the main flow regulator axis. - a main flow regulator axis, - a tubular pump coupling end part having a free pump coupling end and defining a first flow section, - the tubular pump coupling end part extends via an exterior regulator body part into a tubular tube coupling end part having having a free tube coupling end and defining a second flow section, and - an interior regulator body part is situated rotatable and substantially coaxially inside the exterior regulator body part, - the flow regulator comprises a pivotable grip in operative communication with the interior regulator body part to open and close the enema flow path, wherein the pivotable grip moves lengthwise along the main flow regulator axis.
A method of separating nucleic acids from non-nucleic acid materials by binding nucleic acids in a nucleic acid solution to cellulose or a cellulose derivative, comprising: a) combining the cellulose or cellulose derivative with a solution containing nucleic acids and non-nucleic acid materials to produce a first combination; b) adjusting the salt and polyethylene glycol concentrations of the first combination to a salt concentration of 0.25M to 5.0M and a polyethylene concentration of 5% to 15% such that said concentrations provide for all or a portion of the nucleic acids in the solution to bind to the cellulose or cellulose derivative, thereby producing a second combination comprising cellulose or cellulose derivative-bound nucleic acids, wherein said solution is free of organic solvents; c) separating the cellulose or cellulose derivative-bound nucleic acids from the second combination; d) contacting the cellulose or cellulose derivative-bound nucleic acids separated in c) with an elution buffer to release the bound nucleic acids from the cellulose or cellulose derivative and into the elution buffer; and e) separating the cellulose or cellulose derivative from the elution buffer to provide nucleic acids that are substantially free of the non-nucleic acid materials. a) combining the cellulose or cellulose derivative with a solution containing nucleic acids and non-nucleic acid materials to produce a first combination; b) adjusting the salt and polyethylene glycol concentrations of the first combination to a salt concentration of 0.25M to 5.0M and a polyethylene concentration of 5% to 15% such that said concentrations provide for all or a portion of the nucleic acids in the solution to bind to the cellulose or cellulose derivative, thereby producing a second combination comprising cellulose or cellulose derivative-bound nucleic acids, wherein said solution is free of organic solvents; c) separating the cellulose or cellulose derivative-bound nucleic acids from the second combination; d) contacting the cellulose or cellulose derivative-bound nucleic acids separated in c) with an elution buffer to release the bound nucleic acids from the cellulose or cellulose derivative and into the elution buffer; and e) separating the cellulose or cellulose derivative from the elution buffer to provide nucleic acids that are substantially free of the non-nucleic acid materials.
A rotor system of a helicopter with a rotor mast with a longitudinal axis as rotation axis, a rotor hub coaxially arranged at said rotor mast, at least four, angularly essentially even distributed rotor blades (2, 3) and swash plate struts mounted to each of said rotor blades (2, 3) for pitch and subsequently flap control, said rotor blades (2, 3) being respectively pairwise mounted lag- and flap-stiff to each other with zero offset to said rotor hub for rotation about said rotation axis in a substantially common rotor plane, and connected opposed to each other and substantially symmetrical with regard to the rotor hub, characterized in that the rotor hub is provided with a hollow bearing with at least one further bearing inside, respectively arranged in line with said rotation axis, a first pair of said rotor blades is mounted by means of a first yoke on the hollow bearing pivotable about a first flap direction essentially perpendicular to said rotation axis, and at least a second pair of said rotor blades is mounted by means of a second yoke inside the hollow bearing on the at least one further bearing pivotable about a second flap direction substantially perpendicular to said first flap direction and said rotation axis, and independently of said first pair of connected rotor blades.
A method for sintering metal particles, wherein the particles are microparticles or nanoparticles, the method comprising the steps of: depositing the micro- or nanoparticles on a substrate, the particles comprising a metallic material at least partially coated with an electrically nonconductive organic capping layer; exposing the particles to a plasma; removing at least a majority of the nonconductive organic capping layer; and sintering the metal particles in physical contact where the electrically nonconductive organic capping layer has been removed, thereby forming a conductive deposit, wherein the substrate temperature never exceeds 100 °C. depositing the micro- or nanoparticles on a substrate, the particles comprising a metallic material at least partially coated with an electrically nonconductive organic capping layer; exposing the particles to a plasma; removing at least a majority of the nonconductive organic capping layer; and sintering the metal particles in physical contact where the electrically nonconductive organic capping layer has been removed, thereby forming a conductive deposit,
A method for detecting molecular interactions within cells, comprising the steps of: (i) providing mediator materials and a nano-assembly matrix-forming material having a bait bound thereto, to the same field or system, wherein the nano-assembly matrix forming material is a protein having a plurality of the same or different binding moieties and can form matrices by the interaction or self-assembly between them; (ii) forming a nano-assembly matrix by the interaction between the mediator materials; (iii) providing a prey or a prey library to the formed nano-assembly matrix; and (iv) measuring the binding location of the prey after interaction with the bait present on the formed nano-assembly matrix so as to determine whether the prey co-localizes with the bait using a label, thus detecting the prey-bait molecular interaction. (i) providing mediator materials and a nano-assembly matrix-forming material having a bait bound thereto, to the same field or system, wherein the nano-assembly matrix forming material is a protein having a plurality of the same or different binding moieties and can form matrices by the interaction or self-assembly between them; (ii) forming a nano-assembly matrix by the interaction between the mediator materials; (iii) providing a prey or a prey library to the formed nano-assembly matrix; and (iv) measuring the binding location of the prey after interaction with the bait present on the formed nano-assembly matrix so as to determine whether the prey co-localizes with the bait using a label, thus detecting the prey-bait molecular interaction.
An image processing apparatus comprising: first generating means for generating gradation data corresponding to an achromatic color generated by combining three or more colors among a plurality of colors, for an excess amount of a total gradation value exceeding a predetermined value, the total gradation value being a sum of gradation values of the plurality of colors used for recording a pixel of interest, and generating gradation data corresponding to the plurality of colors, based on the generated gradation data corresponding to the achromatic color; and second generating means for quantizing the gradation data generated by the first generating means, and generating data to control recording of dots corresponding to the pixel of interest, wherein the predetermined value is a maximum value of the normalized gradation values, indicating whether or not to record the dots in an overlapping manner, in case it is determined in a dithering process based on a preset dither pattern that the dots corresponding to the total gradation value are to be recorded. first generating means for generating gradation data corresponding to an achromatic color generated by combining three or more colors among a plurality of colors, for an excess amount of a total gradation value exceeding a predetermined value, the total gradation value being a sum of gradation values of the plurality of colors used for recording a pixel of interest, and generating gradation data corresponding to the plurality of colors, based on the generated gradation data corresponding to the achromatic color; and second generating means for quantizing the gradation data generated by the first generating means, and generating data to control recording of dots corresponding to the pixel of interest, wherein the predetermined value is a maximum value of the normalized gradation values, indicating whether or not to record the dots in an overlapping manner, in case it is determined in a dithering process based on a preset dither pattern that the dots corresponding to the total gradation value are to be recorded.
A method performed by a network node for enabling a repeated transmission, the network node configured to communicate with a wireless device and to schedule a plurality of resources in a single scheduling message for the repeated transmission, the method comprising: determining a configuration for indicating a number of repetitions of the repeated transmission, the configuration corresponding to a Downlink Control Information, DCI, field wherein the configuration comprises a number of repetitions being provided by one or more values in the DCI field and at least one value of a number of repetitions being defined by a radio resource control, RRC, parameter; and enabling the configuration with a parameter in an RRC signaling message; and communicating a DCI message to the wireless device, characterised by the DCI message comprising a value in the DCI field indicating whether the number of repetitions is indicated within the DCI or defined by an RRC parameter. determining a configuration for indicating a number of repetitions of the repeated transmission, the configuration corresponding to a Downlink Control Information, DCI, field wherein the configuration comprises a number of repetitions being provided by one or more values in the DCI field and at least one value of a number of repetitions being defined by a radio resource control, RRC, parameter; and enabling the configuration with a parameter in an RRC signaling message; and communicating a DCI message to the wireless device, characterised by the DCI message comprising a value in the DCI field indicating whether the number of repetitions is indicated within the DCI or defined by an RRC parameter.