mhurhangee/ep-ind-claims huggingface dataset:
Method for reducing banding effects in images, in particular gloss banding effects, by means of a printer that works with a scanning printing module, a scanning drying resp. hardening unit and a medium feeder, wherein the scanning printing module provides printed lines with a line width B, whose ends forming the line margin define a printing texture, and a scanning drying resp. hardening unit essentially provides completely dried resp. hardened lines with a line width H, whose ends forming the line margin define a wet/dry texture, characterized in that the printed line of a printing scan and the hardened line of a hardening scan are formed overlapping without running congruently.
An apparatus for cooling an integrated circuit, "IC", die, comprising: an adhesion layer coated on a surface of the IC die, wherein the adhesion layer has high thermal conductivity; and a heat dissipation structure affixed onto the adhesion layer, wherein the heat dissipation structure comprises a set of discrete heat dissipation elements which are mechanically isolated from each other, wherein the set of discrete heat dissipation elements provides an extended heat dissipation surface for the IC die, wherein the set of discrete heat dissipation elements is a two-dimensional, "2D", array of heat dissipation plates, wherein a plate in the array of heat dissipation plates has a fin-shaped geometry and is oriented such that the largest face of the plate is perpendicular to the surface of the IC die, wherein a width of the plate which is along a direction perpendicular to the largest face of the plate is smaller than a length and a height of the plate that are associated with the largest face, and wherein a column of heat dissipation plates in the length-direction are interconnected by a set of connecting beams (324, 326, 328) at upper corners of the heat dissipation plates away from the surface of the IC die. an adhesion layer coated on a surface of the IC die, wherein the adhesion layer has high thermal conductivity; and a heat dissipation structure affixed onto the adhesion layer, wherein the heat dissipation structure comprises a set of discrete heat dissipation elements which are mechanically isolated from each other, wherein the set of discrete heat dissipation elements provides an extended heat dissipation surface for the IC die, wherein the set of discrete heat dissipation elements is a two-dimensional, "2D", array of heat dissipation plates, wherein a plate in the array of heat dissipation plates has a fin-shaped geometry and is oriented such that the largest face of the plate is perpendicular to the surface of the IC die, wherein a width of the plate which is along a direction perpendicular to the largest face of the plate is smaller than a length and a height of the plate that are associated with the largest face, and wherein a column of heat dissipation plates in the length-direction are interconnected by a set of connecting beams (324, 326, 328) at upper corners of the heat dissipation plates away from the surface of the IC die.
A heating device having a function of detecting a location of a foodstuff container, said heating device comprising: an induction coil for heating said foodstuff container; an inverter circuit for receiving a rectified voltage (V r) and generating a driving voltage (V o) to drive said induction coil; a first current-detecting circuit serially connected with said induction coil for detecting a first current (I 1) flowing through said induction coil, thereby generating a first current-detecting signal (V s1); a signal processing circuit connected to said first current-detecting circuit for generating a current phase signal (S p) according to said first current-detecting signal (V s1); and a controlling unit for generating at least a first control signal (S 1) according to a cooking option, thereby controlling said inverter circuit, characterized in that according to a duration difference or a phase difference between said first control signal (S 1) and said current phase signal (S p), said controlling unit determines an area of said foodstuff container overlying said induction coil with respect to an area of said induction coil or a location of said foodstuff container relative to said induction coil, thereby adjusting an operation of said inverter circuit. an induction coil for heating said foodstuff container; an inverter circuit for receiving a rectified voltage (V r) and generating a driving voltage (V o) to drive said induction coil; a first current-detecting circuit serially connected with said induction coil for detecting a first current (I 1) flowing through said induction coil, thereby generating a first current-detecting signal (V s1); a signal processing circuit connected to said first current-detecting circuit for generating a current phase signal (S p) according to said first current-detecting signal (V s1); and a controlling unit for generating at least a first control signal (S 1) according to a cooking option, thereby controlling said inverter circuit, characterized in that according to a duration difference or a phase difference between said first control signal (S 1) and said current phase signal (S p), said controlling unit determines an area of said foodstuff container overlying said induction coil with respect to an area of said induction coil or a location of said foodstuff container relative to said induction coil, thereby adjusting an operation of said inverter circuit.
Method for the production of an immunoglobulin comprising a) cultivating a eukaryotic cell comprising a nucleic acid encoding the immunoglobulin in a cultivation medium wherein the amount of glucose available in the cultivation medium per time unit is kept constant and limited to one constant value of less than 80 % and more than 20 % of the amount that could maximally be utilized by the cells in the cultivation medium per time unit, whereby this constant amount is available in all time units of the method in which this restricted glucose feeding is performed, and b) recovering the immunoglobulin from the culture. a) cultivating a eukaryotic cell comprising a nucleic acid encoding the immunoglobulin in a cultivation medium wherein the amount of glucose available in the cultivation medium per time unit is kept constant and limited to one constant value of less than 80 % and more than 20 % of the amount that could maximally be utilized by the cells in the cultivation medium per time unit, whereby this constant amount is available in all time units of the method in which this restricted glucose feeding is performed, and b) recovering the immunoglobulin from the culture.
A battery pack for a vehicle, the battery pack comprising: a battery; a switch coupled between the battery and an external terminal; a battery controller configured to receive an acceleration information signal from the vehicle and to output a pulse width modulation signal having a duty ratio according to an acceleration magnitude; and a switch driving circuit configured to generate a control current for controlling the switch based on the PWM signal, wherein, the battery controller is configured to output a PWM signal having a set first duty ratio to the switch driving circuit when the acceleration magnitude is greater than or equal to a first threshold value and is less than a second threshold value that is greater than the first threshold value, and the first duty ratio is greater than a minimum duty ratio for maintaining the switch in a closed state and is less than 100% duty ratio, characterized by: the battery controller is configured to output a PWM signal having a duty ratio of 100% to the switch driving circuit to close the switch when the acceleration magnitude is less than the first threshold value, and the battery controller is configured to output a PWM signal having a duty ratio of 0% to the switch driving circuit to open the switch when the acceleration magnitude is greater than or equal to the second threshold value. a battery; a switch coupled between the battery and an external terminal; a battery controller configured to receive an acceleration information signal from the vehicle and to output a pulse width modulation signal having a duty ratio according to an acceleration magnitude; and a switch driving circuit configured to generate a control current for controlling the switch based on the PWM signal, wherein, the battery controller is configured to output a PWM signal having a set first duty ratio to the switch driving circuit when the acceleration magnitude is greater than or equal to a first threshold value and is less than a second threshold value that is greater than the first threshold value, and the first duty ratio is greater than a minimum duty ratio for maintaining the switch in a closed state and is less than 100% duty ratio, characterized by: the battery controller is configured to output a PWM signal having a duty ratio of 100% to the switch driving circuit to close the switch when the acceleration magnitude is less than the first threshold value, and the battery controller is configured to output a PWM signal having a duty ratio of 0% to the switch driving circuit to open the switch when the acceleration magnitude is greater than or equal to the second threshold value. the battery controller is configured to output a PWM signal having a duty ratio of 100% to the switch driving circuit to close the switch when the acceleration magnitude is less than the first threshold value, and the battery controller is configured to output a PWM signal having a duty ratio of 0% to the switch driving circuit to open the switch when the acceleration magnitude is greater than or equal to the second threshold value.
A filter, comprising: a central filter region, the central filter region to transmit a first wavelength range; a peripheral filter region, the peripheral filter region to block a second wavelength range and to transmit the first wavelength range; and a transition filter region between the central and peripheral filter regions, wherein the transition filter region includes a plurality of first portions and a plurality of second portions arranged in a pattern configured to apodize the boundary between the central and peripheral filter regions, wherein the first portions are to block the second wavelength range and the second portions are to transmit the second wavelength range. a central filter region, the central filter region to transmit a first wavelength range; a peripheral filter region, the peripheral filter region to block a second wavelength range and to transmit the first wavelength range; and a transition filter region between the central and peripheral filter regions, wherein the transition filter region includes a plurality of first portions and a plurality of second portions arranged in a pattern configured to apodize the boundary between the central and peripheral filter regions, wherein the first portions are to block the second wavelength range and the second portions are to transmit the second wavelength range.
A convective system, comprising: an inflatable convective device having a single pneumatic structure and two openings into the single pneumatic structure, wherein at least part of the inflatable convective device is air permeable; a hose manifold comprising: a hose connector configured to connect to a hose, two outlet connectors (810C, 820C) configured to connect to the two openings respectively, wherein the hose connector and the two outlet connectors (810C, 820C) are in fluid connection, characterized in that at least one of the two outlet connectors (810C, 820C) further comprises a flexible flap configured to prevent slipping of the outlet connectors (810C, 820C) out of the openings. an inflatable convective device having a single pneumatic structure and two openings into the single pneumatic structure, wherein at least part of the inflatable convective device is air permeable; a hose manifold comprising: a hose connector configured to connect to a hose, two outlet connectors (810C, 820C) configured to connect to the two openings respectively, wherein the hose connector and the two outlet connectors (810C, 820C) are in fluid connection, characterized in that at least one of the two outlet connectors (810C, 820C) further comprises a flexible flap configured to prevent slipping of the outlet connectors (810C, 820C) out of the openings. a hose connector configured to connect to a hose, two outlet connectors (810C, 820C) configured to connect to the two openings respectively, wherein the hose connector and the two outlet connectors (810C, 820C) are in fluid connection, characterized in that at least one of the two outlet connectors (810C, 820C) further comprises a flexible flap configured to prevent slipping of the outlet connectors (810C, 820C) out of the openings.
Planar positioning apparatus, comprising a stator which comprises a coil arrangement (1; 101) of flat coils, a rotor which is arranged opposite the stator in the operating position of the positioning apparatus and has a planar magnet arrangement comprising a plurality of rows of magnets, wherein the plane which is spanned by the planar magnet arrangement is arranged parallel to the plane of the coil arrangement, a position detecting device (7, 8) for detecting the position of the rotor relative to the stator, and an evaluation and control device for evaluating position signals of the position detecting device and for controlling a current supply to the coil arrangement for controlling the position of the rotor with respect to the stator, wherein the coil arrangement (1; 101) comprises in each case n x 3, with n ≥ 1, elongate flat coils (101a, 101b) which are interleaved with one another, in a first and second orientation of the coil arrangement, which over the majority of their extent, are designed as conductor tracks of a first plane of a multiple-plane printed circuit board, and the conductor tracks of the three associated flat coils enclose crossover regions (Xa, Xb) which run in a second plane of the multiple-plane printed circuit board, wherein all of the connection ends of the three associated flat coils each are concentrated in a small connection region of the multiple-plane printed circuit board, characterized in that the n x 3 flat coils of the first orientation run over the majority of their extent in the first plane and the associated crossover regions (Xa) in the second plane of the multiple-plane printed circuit board, while the n x 3 flat coils of the second orientation run over the majority of their extent in the second plane and the associated crossover regions in the first plane of the multiple-plane printed circuit board.
A water repellent composition comprising a copolymer having structural units based on the following monomer (a), structural units based on the following monomer (b), structural units based on the following monomer (c), structural units based on the following monomer (d), and an aqueous medium, wherein based on the total amount of structural units based on all monomers constituting the copolymer, the proportion of structural units based on the monomer (a) is from 20 to 80 mass%, the proportion of structural units based on the monomer (b) is from 15 to 60 mass%, the proportion of structural units based on the monomer (c) is from 5 to 55 mass%, and the proportion of structural units based on the monomer (d) is from 0.1 to 20 mass%, Monomer (a): a compound represented by the following formula: R F -Q-Z-C C =CH 2 wherein R F is a C 4-6 perfluoroalkyl group, Q is a divalent hydrocarbon group having no fluorine atom, or a single bond, Z is -O- or -NH-, and R is a methyl group or a chlorine atom, Monomer (b): an acrylate or methacrylate having a cyclic hydrocarbon group, of which the homopolymer has a glass transition temperature of at least 50°C, Monomer (c): vinylidene chloride, Monomer (d): a monomer having a crosslinkable functional group, wherein the monomer (b) is isobornyl acrylate or isobornyl methacrylate. wherein based on the total amount of structural units based on all monomers constituting the copolymer, the proportion of structural units based on the monomer (a) is from 20 to 80 mass%, the proportion of structural units based on the monomer (b) is from 15 to 60 mass%, the proportion of structural units based on the monomer (c) is from 5 to 55 mass%, and the proportion of structural units based on the monomer (d) is from 0.1 to 20 mass%, Monomer (a): a compound represented by the following formula: R F -Q-Z-C C =CH 2 wherein R F is a C 4-6 perfluoroalkyl group, Q is a divalent hydrocarbon group having no fluorine atom, or a single bond, Z is -O- or -NH-, and R is a methyl group or a chlorine atom, Monomer (b): an acrylate or methacrylate having a cyclic hydrocarbon group, of which the homopolymer has a glass transition temperature of at least 50°C, Monomer (c): vinylidene chloride, Monomer (d): a monomer having a crosslinkable functional group, wherein the monomer (b) is isobornyl acrylate or isobornyl methacrylate.
An optoelectronic circuit (80; 95; 105; 115; 125; 135) comprising interconnected separate elementary electronic circuits (40; 90; 100; 110; 120; 140), each elementary electronic circuit comprising: at least one light-emitting diode; and at least one integrated circuit chip comprising a circuit for controlling the light-emitting diode capable of activating or of deactivating the light-emitting diode, wherein the optoelectronic circuit is intended to receive a variable supply voltage (V ALIM), wherein each elementary electronic circuit (40; 90; 100; 110; 120; 140) comprises a control circuit capable of supplying an activation or deactivation signal to each of the other elementary electronic circuits according to a selection sequence with respect to the value of the variable supply voltage (V ALIM), and wherein, for each elementary electronic circuit, the circuit for controlling the light-emitting diode is capable of activating or inhibiting the light-emitting diode according to the activation or deactivation signal, whereby the number of activated light-emitting diodes depends on the value of the variable supply voltage (V ALIM). at least one light-emitting diode; and at least one integrated circuit chip comprising a circuit for controlling the light-emitting diode capable of activating or of deactivating the light-emitting diode, wherein the optoelectronic circuit is intended to receive a variable supply voltage (V ALIM), wherein each elementary electronic circuit (40; 90; 100; 110; 120; 140) comprises a control circuit capable of supplying an activation or deactivation signal to each of the other elementary electronic circuits according to a selection sequence with respect to the value of the variable supply voltage (V ALIM), and wherein, for each elementary electronic circuit, the circuit for controlling the light-emitting diode is capable of activating or inhibiting the light-emitting diode according to the activation or deactivation signal, whereby the number of activated light-emitting diodes depends on the value of the variable supply voltage (V ALIM).
A vehicle body front structure of a saddle-type vehicle, including: a headlight in a front surface; and a front cowl to which rearview mirrors are attached on left and right sides of an upper part of the front cowl, a lens surface of the headlight and the upper part of the front cowl each having a surface that is so inclined as to extend upward and rearward and forming a front cowl surface continuously covering a vehicle body front surface in combination, wherein a step part is made at a connection part between the front cowl and an upper edge of the lens surface of the headlight, the step part extends outward in a vehicle width direction to base parts of the rearview mirrors along the upper edge of the lens surface, and inclined surfaces continuously leading to the step part are made in the rearview mirrors; characterised in that the inclined surfaces are lower surfaces of the rearview mirrors and have shapes that always extend obliquely rearward from parts attached to the front cowl to lateral end parts in plan view. a headlight in a front surface; and a front cowl to which rearview mirrors are attached on left and right sides of an upper part of the front cowl, a lens surface of the headlight and the upper part of the front cowl each having a surface that is so inclined as to extend upward and rearward and forming a front cowl surface continuously covering a vehicle body front surface in combination, wherein a step part is made at a connection part between the front cowl and an upper edge of the lens surface of the headlight, the step part extends outward in a vehicle width direction to base parts of the rearview mirrors along the upper edge of the lens surface, and inclined surfaces continuously leading to the step part are made in the rearview mirrors; characterised in that the inclined surfaces are lower surfaces of the rearview mirrors and have shapes that always extend obliquely rearward from parts attached to the front cowl to lateral end parts in plan view.
A mobile communication apparatus, comprising: a first circuit configured for data communication via a mobile radio network; a second circuit configured for short-range communication with a short-range communication device; a third circuit configured to determine apparatus location information, indicative of a current location of the mobile communication apparatus; and a processor connected to the first, second, and third circuits (11, 12, 13), and configured to receive via the mobile radio network a secured data package from a computer system, to receive device location information from the short-range communication device, to determine access authorization based on verifying correspondence of the device location information and the apparatus location information, determining affirmative access authorization in case of correspondence of the device location information and the apparatus location information, and determining negative access authorization in lack of correspondence of the device location information and the apparatus location information, and to transfer the secured data package to the short-range communication device, in case of affirmative access authorization, and to not transfer the secured data package to the short-range communication device, in case of negative access authorization. a first circuit configured for data communication via a mobile radio network; a second circuit configured for short-range communication with a short-range communication device; a third circuit configured to determine apparatus location information, indicative of a current location of the mobile communication apparatus; and a processor connected to the first, second, and third circuits (11, 12, 13), and configured to receive via the mobile radio network a secured data package from a computer system, to receive device location information from the short-range communication device, to determine access authorization based on verifying correspondence of the device location information and the apparatus location information, determining affirmative access authorization in case of correspondence of the device location information and the apparatus location information, and determining negative access authorization in lack of correspondence of the device location information and the apparatus location information, and to transfer the secured data package to the short-range communication device, in case of affirmative access authorization, and to not transfer the secured data package to the short-range communication device, in case of negative access authorization.