mhurhangee/ep-ind-claims huggingface dataset:
Tyre comprising a device, said device comprising a first, second, third, fourth and fifth layer (1, 2, 3, 4, 5), the third layer being optional, where a) the first layer comprises a first electrode material, b) the second layer comprises a first intermediate material, d) the fourth layer comprises a second intermediate material and e) the fifth layer comprises a second electrode material, where - the first intermediate material of the second layer has a dielectric conductivity ε r of greater than 1.01 F·m -1, and/or the second intermediate material of the fourth layer has a dielectric conductivity e r of greater than 1.01 F·m -1, characterized in that - the first intermediate material of the second layer and the second intermediate material of the fourth layer are different, - the four or five layers according to the above sequence are arranged one on top of another, - the second and/or fourth layer (2, 4) comprises at least one filler in addition to the intermediate material, - wherein the second and fourth layers are dielectrically conductive, and - the layers are superposed in the sequence indicated above by letters a), b), d) and e) and there are no further layers between them. a) the first layer comprises a first electrode material, b) the second layer comprises a first intermediate material, d) the fourth layer comprises a second intermediate material and e) the fifth layer comprises a second electrode material, - the first intermediate material of the second layer has a dielectric conductivity ε r of greater than 1.01 F·m -1, and/or the second intermediate material of the fourth layer has a dielectric conductivity e r of greater than 1.01 F·m -1, characterized in that - the first intermediate material of the second layer and the second intermediate material of the fourth layer are different, - the four or five layers according to the above sequence are arranged one on top of another, - the second and/or fourth layer (2, 4) comprises at least one filler in addition to the intermediate material, - wherein the second and fourth layers are dielectrically conductive, and - the layers are superposed in the sequence indicated above by letters a), b), d) and e) and there are no further layers between them.
A compound of the formula: wherein R 11 is F, and R 16 is F; or R 11 is H, and R 16 is SO 3 - Na +; or R 11 is SO 3 -Na +, and R 16 is H; or R 11 is H, and R 16 is F; or R 11 is F, and R 16 is H; or R 11 is SO 3 -Na +, and R 16 is F; or R 11 is F, and R 16 is SO 3 Na +. R 11 is F, and R 16 is F; or R 11 is H, and R 16 is SO 3 - Na +; or R 11 is SO 3 -Na +, and R 16 is H; or R 11 is H, and R 16 is F; or R 11 is F, and R 16 is H; or R 11 is SO 3 -Na +, and R 16 is F; or R 11 is F, and R 16 is SO 3 Na +.
A method for monitoring the singling of sheet material, in particular of bank notes, by means of a singler (1, 2, 3) having a drive (4, 7) and a control device for a monitoring and controlling of the singler (1, 2, 3), wherein a monitoring (11, 12, 13) of place, time, orientation and state of the singled sheet material (BN 1) is effected immediately after the singling, in which place, time and orientation of the singled sheet material (BN 1) are determined by means of sensors (11, 12, 13), wherein signals of the sensors (11, 12, 13) are evaluated with respect to the time of the presence or absence of sheet material (BN 1) at the sensors (11, 12, 13), and that the state of the singled sheet material (BN 1) is determined by means of a sensor, wherein signals of the sensor are evaluated with respect to the presence of one or a plurality of pieces of sheet material (BN 1), characterized by three sensors (11, 12, 13) which are disposed immediately after the singler (1, 2, 3), wherein two of the sensors (11, 12) are disposed in opposite edge areas of the width provided for the transport of the bank notes and the third sensor is disposed between the two sensors (11, 12) and determine place, time and orientation of the singled sheet material (BN 1), wherein signals of the sensors (11, 12, 13) are evaluated by the control device with respect to the time of the presence or absence of sheet material (BN 1) at the sensors (11, 12, 13), and that the state of the singled sheet material (BN 1) is determined by means of the middle sensor, wherein signals of the middle sensor are evaluated by the control device with respect to the presence of one or a plurality of pieces of sheet material (BN 1), wherein a correct singling of sheet material (BN 1) is ascertained, if at least two of the sensors (11, 12, 13) determine the presence of the singled sheet material (BN 1) within a predetermined time difference, and wherein for determining the presence of one or a plurality of pieces of sheet material (BN 1) the presence of one piece of sheet material (BN 1) is determined by the sensor, whereas a faulty singling of sheet material (BN 1) is ascertained, if the sensors (11, 12, 13) do not determine the presence of the singled sheet material (BN 1) within a predetermined time difference, or wherein for determining the presence of one or a plurality of pieces of sheet material (BN 1) the presence of several pieces of sheet material (BN 1) is determined by the sensor.
System for performing a variable multiplication, said system being arranged for receiving a first data value and comprising - means for calculating at run time in one or more clock cycles a sequence of shift-add/sub control instructions for performing a multiplication using said first data value, - storage means for storing said sequence of shift-add/sub control instructions calculated at run time, - further storage means for storing a sequence of further shift-add/sub control instructions for performing said multiplication using a constant data value calculated at design time, - a multiplexer for selecting at least one instruction from said stored sequence of shift-add/sub control instructions at run time or at least one instruction from said stored sequence of further shift-add/sub control instructions for performing said multiplication using said constant data value, - multiplication means arranged for receiving a second data value and said selected at least one instruction and arranged for performing multiplication of said second data value with either said first data value or with said constant data value using said selected at least one instruction. - means for calculating at run time in one or more clock cycles a sequence of shift-add/sub control instructions for performing a multiplication using said first data value, - storage means for storing said sequence of shift-add/sub control instructions calculated at run time, - further storage means for storing a sequence of further shift-add/sub control instructions for performing said multiplication using a constant data value calculated at design time, - a multiplexer for selecting at least one instruction from said stored sequence of shift-add/sub control instructions at run time or at least one instruction from said stored sequence of further shift-add/sub control instructions for performing said multiplication using said constant data value, - multiplication means arranged for receiving a second data value and said selected at least one instruction and arranged for performing multiplication of said second data value with either said first data value or with said constant data value using said selected at least one instruction.
A method for the safe and efficient operation of a system arrangement for process optimisation using a continuous data stream, comprising - a storage of disjunctive logging data records in a plurality of data memories (DBO; DB1;...; DBn) of a monitoring device, wherein a separate data memory (DBO; DB1;...; DBn) is provided in the monitoring device for each predefined class of logging data; - a network-technical transmission of all stored logging data records from the monitoring device to a consolidation data memory of a consolidation device by means of at least one continuous data stream; and - an assignment of an evaluation identifier in the consolidation device in dependence on a comparison of a first part of logging data records with at least a second part of logging data records in accordance with a predefined and stored evaluation metric, which is characterised in that the assignment of the evaluation identifier is made to the evaluation result and technical components are controlled in dependence on the evaluation identifier, which have generated the logging data records, deviations in the first part of logging data records from the second part of logging data records being identified on the basis of the comparison, so that a temporal development of the logging data records can be identified, and - the evaluation identifier provides at least one control command, a numerical value, an alphanumeric value and/or an identifier, and the evaluation identifier has been empirically assigned in advance to possible comparison results. - a storage of disjunctive logging data records in a plurality of data memories (DBO; DB1;...; DBn) of a monitoring device, wherein a separate data memory (DBO; DB1;...; DBn) is provided in the monitoring device for each predefined class of logging data; - a network-technical transmission of all stored logging data records from the monitoring device to a consolidation data memory of a consolidation device by means of at least one continuous data stream; and - an assignment of an evaluation identifier in the consolidation device in dependence on a comparison of a first part of logging data records with at least a second part of logging data records in accordance with a predefined and stored evaluation metric, which is characterised in that the assignment of the evaluation identifier is made to the evaluation result and technical components are controlled in dependence on the evaluation identifier, which have generated the logging data records, deviations in the first part of logging data records from the second part of logging data records being identified on the basis of the comparison, so that a temporal development of the logging data records can be identified, and - the evaluation identifier provides at least one control command, a numerical value, an alphanumeric value and/or an identifier, and the evaluation identifier has been empirically assigned in advance to possible comparison results.
An optical image capturing unit, comprising: an optical converging device; a first dielectric layer configured to transmit an optical signal within a specific incident angle range returned by reflection or scattering of a finger above a display screen and disposed under the optical converging device; a second dielectric layer disposed under the first dielectric layer; a diaphragm disposed on a back focal plane of the optical converging device and disposed in the second dielectric layer, wherein the diaphragm is provided with a window, the diaphragm is configured to be a metal layer, and the metal layer is configured to be an internal connection circuit of a photosensing unit; and the photosensing unit disposed under the second dielectric layer, wherein the optical converging device is configured to converge the optical signal to the window, and the optical signal is transmitted to the photosensing unit via the window. an optical converging device; a first dielectric layer configured to transmit an optical signal within a specific incident angle range returned by reflection or scattering of a finger above a display screen and disposed under the optical converging device; a second dielectric layer disposed under the first dielectric layer; a diaphragm disposed on a back focal plane of the optical converging device and disposed in the second dielectric layer, wherein the diaphragm is provided with a window, the diaphragm is configured to be a metal layer, and the metal layer is configured to be an internal connection circuit of a photosensing unit; and the photosensing unit disposed under the second dielectric layer, wherein the optical converging device is configured to converge the optical signal to the window, and the optical signal is transmitted to the photosensing unit via the window.
A power conversion device configured to convert power supplied from a power source into a driving current of a motor by using a plurality of semiconductor switching elements, the driving current to be supplied from phase output, wherein a first semiconductor switching element (1u-1w, 1n) of the plurality of semiconductor switching elements is disposed between the phase output of the power conversion device and the power source, the first semiconductor switching element (1u-1w, 1n) having a diode connected in parallel to the first semiconductor switching element (1u-1w, 1n), a second semiconductor switching element (2u-2w, 2n) of the plurality of semiconductor switching elements is disposed between the phase output of the power conversion device and a ground, the second semiconductor switching element (2u-2w, 2n) having a diode connected in parallel to the second semiconductor switching element (2u-2w, 2n); characterized in further comprising a third semiconductor switching element (3u-3w, 3n) of the plurality of semiconductor switching elements is disposed between a winding of the motor and the power source, the third semiconductor switching element (3u-3w, 3n) having a diode connected in parallel to the third semiconductor switching element (3u-3w, 3n), a fourth semiconductor switching element (4u-4w) of the plurality of semiconductor switching elements is disposed between the winding of the motor and the ground, the fourth semiconductor switching element (4u-4w) having a diode connected in parallel to the fourth semiconductor switching element (4u-4w), the third semiconductor switching element (3u-3w, 3n) is connected so that the diode connected in parallel to the third semiconductor switching element is configured to allow current flow from the power source to the motor, the fourth semiconductor switching element (4u-4w) is connected so that the diode connected in parallel to the fourth semiconductor switching element (4u-4w) is configured to allow current flow from the motor to the ground, one of the third semiconductor switching element (3u-3w, 3n) and the fourth semiconductor switching element (4u-4w) is connected in series with the winding of the motor, and another of the third semiconductor switching element (3u-3w, 3n) and the fourth semiconductor switching element (4u-4w) is connected between the first semiconductor switching element (1u-1w, 1n) and the power source or between the second semiconductor switching element (2u-2w, 2n) and the ground, the third semiconductor switching element (3u-3w, 3n) is connected so that the diode connected in parallel to the third semiconductor switching element is configured to allow current flow from the power source to the motor, the fourth semiconductor switching element (4u-4w) is connected so that the diode connected in parallel to the fourth semiconductor switching element (4u-4w) is configured to allow current flow from the motor to the ground,
Telescoping rod with adjustable length, including: - an outer tube and an inner tube, said inner tube sliding, via its free end, in said outer tube; - a spring with helical turns positioned at least inside the outer tube, and which cooperates by bearing by one of its ends with said inner tube, while its other end is immobilized in the outer tube; - and where said spring includes at least one active portion with distance D connecting the inner tube with the outer tube, and includes a pin secured to said inner tube through which said bearing is done, characterized in that said pin is transversely connected to said inner tube and transversely traverses one of the turns of the active portion of the spring, such that the axial rotation of said spring generates its screwing or unscrewing on said pin, and makes it possible to vary the distance D of said active portion, distance D which is delimited by the turn traversed by said pin, and, by the immobilized turn of the outer tube closest to said pin. - an outer tube and an inner tube, said inner tube sliding, via its free end, in said outer tube; - a spring with helical turns positioned at least inside the outer tube, and which cooperates by bearing by one of its ends with said inner tube, while its other end is immobilized in the outer tube; - and where said spring includes at least one active portion with distance D connecting the inner tube with the outer tube, and includes a pin secured to said inner tube through which said bearing is done, characterized in that said pin is transversely connected to said inner tube and transversely traverses one of the turns of the active portion of the spring, such that the axial rotation of said spring generates its screwing or unscrewing on said pin, and makes it possible to vary the distance D of said active portion, distance D which is delimited by the turn traversed by said pin, and, by the immobilized turn of the outer tube closest to said pin.
An aqueous composition comprising: agricultural water; and solids from a dispersion of acrylic copolymer, wherein the acrylic copolymer includes structural units derived from an acrylic acid monomer, structural units derived from acrylic ester monomer and structural units derived from a macromolecular group, and wherein solids from the dispersion of acrylic copolymer is from 50 parts per million to 100,000 parts per million based upon a total weight of the aqueous composition; wherein said acrylic acid monomer is a mono-ethylenically unsaturated carboxylic acid monomer or is selected from the group consisting of itaconic acid, fumaric acid, crotonic acid, acrylic acid, methacrylic acid, maleic acid, acryloxypropionic acid, citraconic acid, and combinations thereof, wherein said acrylic ester monomer is selected from the group consisting of esters of 2-propenoic acid, 2-methylpropenoic acid, and combinations thereof, or from the group consisting of Ci-Cs alkyl acrylates and/or C 1 -C 8 alkyl methacrylates, or from the group consisting of methyl acrylate, ethyl acrylate, butyl acrylate, 2-ethylhexyl acrylate, methyl methacrylate, ethyl methacrylate, butyl methacrylate, and combinations thereof; and wherein said macromolecular group is represented by either of the following structures: R a -(OR b) x -(OR c) y -OC -CR d =CH 2 or R a -(OR b) x -(OR c) y -OC -NH-C(CH 3) 2 -(Ph)-CR d =CH 2, where R a is a C 8 -C 24 alkyl or aralkyl group, x + y is 3 to 100, R b and R c are each independently CH 2 CH 2, CH 2 CH(CH 3), or CH 2 CH 2 CH 2 CH 2, R d is H or C 1 -C 6 alkyl, and Ph is a phenylene group. agricultural water; and solids from a dispersion of acrylic copolymer, wherein the acrylic copolymer includes structural units derived from an acrylic acid monomer, structural units derived from acrylic ester monomer and structural units derived from a macromolecular group, and wherein solids from the dispersion of acrylic copolymer is from 50 parts per million to 100,000 parts per million based upon a total weight of the aqueous composition; wherein said acrylic acid monomer is a mono-ethylenically unsaturated carboxylic acid monomer or is selected from the group consisting of itaconic acid, fumaric acid, crotonic acid, acrylic acid, methacrylic acid, maleic acid, acryloxypropionic acid, citraconic acid, and combinations thereof, wherein said acrylic ester monomer is selected from the group consisting of esters of 2-propenoic acid, 2-methylpropenoic acid, and combinations thereof, or from the group consisting of Ci-Cs alkyl acrylates and/or C 1 -C 8 alkyl methacrylates, or from the group consisting of methyl acrylate, ethyl acrylate, butyl acrylate, 2-ethylhexyl acrylate, methyl methacrylate, ethyl methacrylate, butyl methacrylate, and combinations thereof; and wherein said macromolecular group is represented by either of the following structures: R a -(OR b) x -(OR c) y -OC -CR d =CH 2 or R a -(OR b) x -(OR c) y -OC -NH-C(CH 3) 2 -(Ph)-CR d =CH 2, where R a is a C 8 -C 24 alkyl or aralkyl group, x + y is 3 to 100, R b and R c are each independently CH 2 CH 2, CH 2 CH(CH 3), or CH 2 CH 2 CH 2 CH 2, R d is H or C 1 -C 6 alkyl, and Ph is a phenylene group.
Process for production of a multi-layer fibrous medium including the following steps: - production of suspension of a paper pulp including fibers and fines, so as to form a fibrous suspension; - fractionation of the fibrous suspension into one first principal fraction of fibers and one second principal fraction of fines; - fractionation of the resulting principal fraction of fibers via hydrocyclone, so as to produce the following two secondary fractions: • fraction of binding fibers; • fraction of rough fibers; - formation of a multi-layer fibrous medium by lamination of the principal fraction of fines and secondary fractions of fibers, or of their mixtures. - production of suspension of a paper pulp including fibers and fines, so as to form a fibrous suspension; - fractionation of the fibrous suspension into one first principal fraction of fibers and one second principal fraction of fines; - fractionation of the resulting principal fraction of fibers via hydrocyclone, so as to produce the following two secondary fractions: • fraction of binding fibers; • fraction of rough fibers; • fraction of binding fibers; • fraction of rough fibers; - formation of a multi-layer fibrous medium by lamination of the principal fraction of fines and secondary fractions of fibers, or of their mixtures.
Method for manufacturing a packaged, ready-for-consumption-mixed fruit containing alcohol snack product, comprising: (a) manufacturing a fruit containing alcohol snack composition by mixing of: ethyl alcohol and/or at least one spirit having at least 37.5 vol% of ethyl alcohol, in a total quantity corresponding to a percentage of ethyl alcohol of 5 to 20 vol% of the alcohol snack composition, 4 to 25 vol% of fruit powder, wherein the fruit powder optionally contains at least one carrier substance and/or at least one acidity regulator, additionally, 3 to 9 vol% dextrose and 2 to 7 vol% saccharose, sweetener, acidifier, flavor, thickening agent, preserving agent, the balance being water; and (b) filling the alcohol snack composition into a flexible container and closing the container. (a) manufacturing a fruit containing alcohol snack composition by mixing of: ethyl alcohol and/or at least one spirit having at least 37.5 vol% of ethyl alcohol, in a total quantity corresponding to a percentage of ethyl alcohol of 5 to 20 vol% of the alcohol snack composition, 4 to 25 vol% of fruit powder, wherein the fruit powder optionally contains at least one carrier substance and/or at least one acidity regulator, additionally, 3 to 9 vol% dextrose and 2 to 7 vol% saccharose, sweetener, acidifier, flavor, thickening agent, preserving agent, the balance being water; and ethyl alcohol and/or at least one spirit having at least 37.5 vol% of ethyl alcohol, in a total quantity corresponding to a percentage of ethyl alcohol of 5 to 20 vol% of the alcohol snack composition, 4 to 25 vol% of fruit powder, wherein the fruit powder optionally contains at least one carrier substance and/or at least one acidity regulator, additionally, 3 to 9 vol% dextrose and 2 to 7 vol% saccharose, sweetener, acidifier, flavor, thickening agent, preserving agent, the balance being water; and (b) filling the alcohol snack composition into a flexible container and closing the container.