mhurhangee/ep-ind-claims huggingface dataset:
Wiping device, in particular a motor vehicle pane wiping device, having a wiper blade adapter (12a - 12c) which has at least one catch element (40a - 40c, 42a - 42c), which is provided to prevent a movement of the wiper blade adapter (12a - 12c) relative to a retention element (10a - 10c) in a longitudinal direction (22a - 22c) in an assembled state, having at least one securing means (30a - 30c, 32a - 32c) which is provided to secure the at least one catch element (40a - 40c, 42a - 42c) in an assembled state, characterized in that the at least one securing means (30c, 32c) is coupled to the catch element (40c, 42c) so that, when the catch element (40c, 42c) is redirected, the catch element (40c, 42c) moves into abutment with the at least one securing means (30c, 32c) and resiliently redirects it.
An antenna pattern in which a conductor wire forming the antenna pattern is formed out of an aggregated wire consisting of mesh or continuously polygonal micro-image element lines or an aggregated wire consisting of parallel element lines, wherein the mesh or continuously polygonal micro-image element lines or the parallel element lines are printed with printing ink or paste material mixed with conductive powder, characterized in that pressure treatment or polishing treatment is performed further on the pressure treated or polished printed surface, and that conductive plating is further performed on the printed surface with or without the aid of electroless plating.
System for distilling alcohol, in particular ethyl alcohol from fermented mash, comprising at least one distillation column which draws off raw alcohol from the fermented mash and has a reboiler, and a rectification column which is connected downstream from the distillation column and increases the alcohol concentration, an intensifying column which concentrates the raw alcohol of the distillation column being connected downstream of the at least one distillation column, the top vapour condensate of which intensifying column can be supplied to the rectification column as a top-side return flow, and from the foot region of which intensifying column an alcohol-water mixture can be supplied to the rectification column as a flow to be concentrated, the top vapour from the intensifying column being used to heat the distillation column, the reboiler of the distillation column, which reboiler is heated by means of the top vapour, simultaneously forming the condenser of the intensifying column, characterised in that a molecular sieve assembly for dehydrogenating the rectified alcohol is connected downstream of the rectification column.
A system (2, 32) for contactless energy transmission, comprising - a resonant transformer with a primary winding in a primary core, a secondary winding in a secondary core that is mechanically not connected to the primary core, and at least one capacitor (12, 16), - a primary control unit, - a secondary control unit, - a measuring device that is connected to the secondary winding and to the secondary control unit for acquiring an electrical state variable in the secondary winding, - a primary inverter, connected to the primary winding, with variable frequency, and - a modulator-demodulator device for transmitting data between the primary control unit and the secondary control unit by way of the transformer, wherein - the primary control unit is connected in a controlling manner to the primary inverter, and the primary control unit is designed to change the frequency of the primary inverter when it receives a frequency change signal, and - the system further comprises a primary measuring device for determining an electrical state variable present at the primary winding, - characterized in that - the secondary control unit is designed, depending on the change in the electrical state variable, to transmit a signal for a frequency change in the primary inverter to the primary control unit until the resonance frequency of the transformer and the frequency of the primary voltage agree, and in that - the primary control unit is designed to transmit the value of the electrical state variable determined by the primary measuring device to the secondary control unit. - a resonant transformer with a primary winding in a primary core, a secondary winding in a secondary core that is mechanically not connected to the primary core, and at least one capacitor (12, 16), - a primary control unit, - a secondary control unit, - a measuring device that is connected to the secondary winding and to the secondary control unit for acquiring an electrical state variable in the secondary winding, - a primary inverter, connected to the primary winding, with variable frequency, and - a modulator-demodulator device for transmitting data between the primary control unit and the secondary control unit by way of the transformer, - the primary control unit is connected in a controlling manner to the primary inverter, and the primary control unit is designed to change the frequency of the primary inverter when it receives a frequency change signal, and - the system further comprises a primary measuring device for determining an electrical state variable present at the primary winding, - characterized in that - the secondary control unit is designed, depending on the change in the electrical state variable, to transmit a signal for a frequency change in the primary inverter to the primary control unit until the resonance frequency of the transformer and the frequency of the primary voltage agree, and in that - the primary control unit is designed to transmit the value of the electrical state variable determined by the primary measuring device to the secondary control unit.
A method of producing a conductive circuit board comprising imparting tackiness through the use of a tackiness-imparting compound to a surface of a conductive circuit on a printed wiring board, attaching a solder powder to the tacky area, and then heating said printed wiring board to melt the solder to form a solder circuit, wherein said printed wiring board is kept at not more than 10°C after the tackiness is imparted and before the solder powder is attached, wherein the tackiness-imparting compound is a substance containing one or more substances selected from the group consisting of naphthotriazole derivatives, benzotriazole derivatives, imidazole derivatives, benzimidazole derivatives, mercaptobenozothiazole derivatives, and benzothiazole thiofatty acids.
Method for controlling lateral pulling of a moving motor vehicle during braking of said motor vehicle, said motor vehicle comprising at least one wheelset; said wheelset comprising a left wheel and a right wheel; each wheel (2, 3) of said wheelset defining an angular speed (v2, v3) and an angular acceleration (a2, a3); each wheel (2, 3) of said wheelset cooperating with a braking means such that said braking means applies a drag force to the associated wheel (2, 3) so as to reduce the angular speed (v2, v3) of said associated wheel (2, 3); comprising the following steps: a) calculating a value representative of the difference between the angular accelerations of the left and right wheels of the wheelset; b) calculating a correction value (y) as a function of at least said value representative of the difference between the angular accelerations (a2, a3) of the left and right wheels of the wheelset; c) for each wheel (2, 3) of the wheelset, controlling the associated braking means so as to modify the drag force applied by the associated braking means as a function of the correction value (y) calculated in step b), such that the drag force applied to a first wheel (2, 3) selected from the left wheel and right wheel of the wheelset is increased, and the drag force applied to a second wheel (2, 3) different from the first wheel (2, 3) is reduced, in order to reduce said value representative of the difference between the angular accelerations (a2, a3) of the left and right wheels of said wheelset; the correction value (y) being proportional to the value representative of the difference between the angular accelerations (a2, a3) of the left and right wheels of the wheelset. a) calculating a value representative of the difference between the angular accelerations of the left and right wheels of the wheelset; b) calculating a correction value (y) as a function of at least said value representative of the difference between the angular accelerations (a2, a3) of the left and right wheels of the wheelset; c) for each wheel (2, 3) of the wheelset, controlling the associated braking means so as to modify the drag force applied by the associated braking means as a function of the correction value (y) calculated in step b), such that the drag force applied to a first wheel (2, 3) selected from the left wheel and right wheel of the wheelset is increased, and the drag force applied to a second wheel (2, 3) different from the first wheel (2, 3) is reduced, in order to reduce said value representative of the difference between the angular accelerations (a2, a3) of the left and right wheels of said wheelset;
A conversion device interposed between a DC power supply and an AC power supply, the conversion device comprising: a DC bus provided between the DC power supply and the AC power supply; a first converter provided between the DC power supply and the DC bus and configured to perform DC/DC conversion; a second converter provided between the DC bus and the AC power supply and configured to perform DC/AC conversion or AC/DC conversion; and a control unit configured to selectively cause the first converter and the second converter to operate within one cycle of the AC power supply, to alternately generate a part of an absolute value of an AC waveform, and a DC waveform, as voltage of the DC bus, characterized in that: at a timing when the AC waveform and the DC waveform should have been connected to each other to form a discontinuity point, the control unit is configured to change the discontinuity point to a continuity point by adding a positive compensation value in a form of a spire waveform that has a peak at the timing, to a voltage target value for the DC bus. a DC bus provided between the DC power supply and the AC power supply; a first converter provided between the DC power supply and the DC bus and configured to perform DC/DC conversion; a second converter provided between the DC bus and the AC power supply and configured to perform DC/AC conversion or AC/DC conversion; and a control unit configured to selectively cause the first converter and the second converter to operate within one cycle of the AC power supply, to alternately generate a part of an absolute value of an AC waveform, and a DC waveform, as voltage of the DC bus, at a timing when the AC waveform and the DC waveform should have been connected to each other to form a discontinuity point, the control unit is configured to change the discontinuity point to a continuity point by adding a positive compensation value in a form of a spire waveform that has a peak at the timing, to a voltage target value for the DC bus.
An in vitro method of identifying the presence and/or concentration and/or amount of one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest within a sample, the method comprising: a) Labelling three or more amino acid types within the sample, wherein an amino acid type is defined by the R-group of the amino acid; b) measuring the label of each labelled amino acid type in the sample; c) optionally calculating the amino acid concentration of each labelled amino acid type from the measured label; d) optionally calculating the number of amino acids of each labelled amino acid type; and e) identifying the presence and/or concentration and/or amount of one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest in the sample by comparing the measured label and/or amino acid concentration of each labelled amino acid type in the sample to the known label values and/or amino acid concentrations of the same three or more amino acid types that have been labelled in the sample of each of the one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest at one or more concentrations, or comparing the number of amino acids of each labelled amino acid type in the sample to the known number of amino acids of the same three or more amino acid types that have been labelled in the sample in the one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest using an n-dimensional space corresponding to the n labelled amino acid types. a) Labelling three or more amino acid types within the sample, wherein an amino acid type is defined by the R-group of the amino acid; b) measuring the label of each labelled amino acid type in the sample; c) optionally calculating the amino acid concentration of each labelled amino acid type from the measured label; d) optionally calculating the number of amino acids of each labelled amino acid type; and e) identifying the presence and/or concentration and/or amount of one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest in the sample by comparing the measured label and/or amino acid concentration of each labelled amino acid type in the sample to the known label values and/or amino acid concentrations of the same three or more amino acid types that have been labelled in the sample of each of the one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest at one or more concentrations, or comparing the number of amino acids of each labelled amino acid type in the sample to the known number of amino acids of the same three or more amino acid types that have been labelled in the sample in the one or more proteins, peptides, oligopeptides, polypeptides, protein complexes, subproteomes, or proteomes of interest using an n-dimensional space corresponding to the n labelled amino acid types.
Connection device for connecting electrical conductors, which comprises a sheath clamp with a sheath clamp lower part and a sheath clamp upper part, comprising: a contact carrier, in which the sheath terminal lower part is fastened; and characterized by a removable insulating cap for rotatably receiving the sheath clamp upper part, wherein the removable insulating cap is captively connected to the contact carrier by a swivel arm for a pivotable connection, or by a flexible section, or by a pin for a rotatable connection, which runs parallel to the axis of rotation of the sheath clamp upper part for a rotatable connection. a contact carrier, in which the sheath terminal lower part is fastened; and characterized by a removable insulating cap for rotatably receiving the sheath clamp upper part, wherein the removable insulating cap is captively connected to the contact carrier by a swivel arm for a pivotable connection, or by a flexible section, or by a pin for a rotatable connection, which runs parallel to the axis of rotation of the sheath clamp upper part for a rotatable connection.
A cooking apparatus comprising: a cooking unit having a cooking region (110, 120) on one side in which there is provided a first planar cooking region distinguished from a second curved cooking region that extends from the first cooking region, wherein the first cooking region and the second cooking region are arranged to heat food placed in contact with the first cooking region and the second cooking region, and wherein the first planar cooking region and the second curved cooking region include a material having a high thermal conductivity; a heating unit configured to heat the material having a high thermal conductivity of the first planar cooking region and the material having a high thermal conductivity of the second curved cooking region of the cooking unit; and a controller configured to control the heating unit to heat the first planar cooking region to a first temperature and to heat the second curved cooking region to a second temperature different from the first temperature. a cooking unit having a cooking region (110, 120) on one side in which there is provided a first planar cooking region distinguished from a second curved cooking region that extends from the first cooking region, wherein the first cooking region and the second cooking region are arranged to heat food placed in contact with the first cooking region and the second cooking region, and wherein the first planar cooking region and the second curved cooking region include a material having a high thermal conductivity; a heating unit configured to heat the material having a high thermal conductivity of the first planar cooking region and the material having a high thermal conductivity of the second curved cooking region of the cooking unit; and a controller configured to control the heating unit to heat the first planar cooking region to a first temperature and to heat the second curved cooking region to a second temperature different from the first temperature.
An optical fiber connecting device for housing first and second optical fibers (50, 50'), the first and second optical fibers (50, 50') each including a bare glass portion (56, 56') surrounded by a buffer layer (54, 54'), the connecting device comprising a housing comprising a main body having a first end, a second end, and a channel extending longitudinally through the main body, wherein the channel includes first and second openings (114a, 114b) formed along a top of the channel to respectively provide access to a first cavity and a second cavity within the main body, a first mechanical element disposed in the first cavity of the main body and a second mechanical element disposed in the second cavity of the main body for axially aligning and gripping the bare glass portion (56, 56') of the first and second optical fibers (50, 50'); a first actuation cap placed over the first mechanical element through the first opening in the main body, wherein the first actuation cap includes a first main body portion that extends along a length of the first actuation cap, the first main body portion includes two first side walls configured to extend down over sides of the first mechanical element, each of the two first side walls defining a cam surface on its interior; and a second actuation cap placed over the second mechanical element through the second opening in the main body, wherein the second actuation cap includes a second main body portion that extends along a length of the second actuation cap, the second main body portion includes two second side walls configured to extend down over sides of the second mechanical element, each of the two second side walls defining a cam surface on its interior; wherein the cam surfaces of each actuation cap (140, 160) have first portions near the top of the main body portion and second portions near the edges of the side walls, wherein the cam surfaces of the first portions are closer to one another than the second portions, and wherein a sloped transition portion is formed between the first and the second portion of each cam surface to aid the first and second actuation cap (140, 160) in sliding down over the first and second mechanical element (130, 150), respectively, when actuated, and wherein the mechanical elements (130, 150) and the actuation caps (140, 160) are configured such that when the respective actuating cap (140, 160) is pushed down toward the corresponding mechanical element (130, 150), respective legs of the mechanical element (130, 150) slide along the transition portion such that the transition portion pushes the legs towards each other to a closed position to secure the bare glass portion (56, 56') of the respective optical fiber (50, 50') passing at least partially through the mechanical element (130, 150).
A partial single-walled pipette tip rack base, comprising: a) a bottom and one or more base sidewalls, each of which base sidewalls comprises an exterior sidewall surface and an interior sidewall surface, wherein the bottom and the one or more base sidewalls are of single-walled construction; and b) one or more posts, each comprising a post inner wall, a post outer wall, and a void between the post inner wall and the post outer wall, which base is configured for use in an automated liquid dispensing device; wherein each of which base sidewalls comprise one or more buttresses, and the one or more buttresses are bossed, project from an exterior sidewall surface and are of single-walled construction. a) a bottom and one or more base sidewalls, each of which base sidewalls comprises an exterior sidewall surface and an interior sidewall surface, wherein the bottom and the one or more base sidewalls are of single-walled construction; and b) one or more posts, each comprising a post inner wall, a post outer wall, and a void between the post inner wall and the post outer wall, which base is configured for use in an automated liquid dispensing device; wherein each of which base sidewalls comprise one or more buttresses, and the one or more buttresses are bossed, project from an exterior sidewall surface and are of single-walled construction.
A power control device for use with one or more associated power units to provide a response to changes in a frequency of electricity flowing in a synchronous area of an electric power grid, wherein the electric power grid is connected to a measurement system arranged to determine a frequency response characteristic of the grid in said area and to determine one or more trigger parameters on the basis of the measured frequency response characteristic, the power control device being arranged to: intermittently receive one or more parameters from the measurement system, the one or more parameters being derived from a said determined frequency response characteristic; derive, on the basis of the received one or more parameters, a trigger condition; determine, based on a measured frequency characteristic of electric power flowing in the grid, whether the trigger condition is satisfied; and in response to a determination that the trigger condition is satisfied, change a power flow to and/or from the power unit, wherein when the trigger condition being satisfied indicates a rise in grid frequency, changing the power flow comprises increasing a power flow to and/or reducing a power flow from the one or more power units, and when the trigger condition being satisfied indicates a drop in grid frequency, changing the power flow comprises reducing a power to and/or increasing a power flow from the one or more power units. intermittently receive one or more parameters from the measurement system, the one or more parameters being derived from a said determined frequency response characteristic; derive, on the basis of the received one or more parameters, a trigger condition; determine, based on a measured frequency characteristic of electric power flowing in the grid, whether the trigger condition is satisfied; and in response to a determination that the trigger condition is satisfied, change a power flow to and/or from the power unit, wherein when the trigger condition being satisfied indicates a rise in grid frequency, changing the power flow comprises increasing a power flow to and/or reducing a power flow from the one or more power units, and when the trigger condition being satisfied indicates a drop in grid frequency, changing the power flow comprises reducing a power to and/or increasing a power flow from the one or more power units.