mhurhangee/ep-ind-claims huggingface dataset:
A liquid discharge head comprising: a nozzle plate having: a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate; a housing bonded to the nozzle plate to form a single bonded body, the housing having a second positioning hole extending in a thickness direction of the housing; a channel between the nozzle plate and the housing, the liquid flowing through the channel to the nozzle hole flows; and a positioning member fitting into the first positioning hole and the second positioning hole to position the nozzle plate relative to the housing, characterized in that a length of the positioning member in the thickness direction of the nozzle plate is: smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate. a nozzle plate having: a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate; a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate; a housing bonded to the nozzle plate to form a single bonded body, the housing having a second positioning hole extending in a thickness direction of the housing; a channel between the nozzle plate and the housing, the liquid flowing through the channel to the nozzle hole flows; and a positioning member fitting into the first positioning hole and the second positioning hole to position the nozzle plate relative to the housing, characterized in that a length of the positioning member in the thickness direction of the nozzle plate is: smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate. smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate.
Apparatus for holding a plurality of culture plates in a stacked arrangement, the stacked arrangement of culture plates including a bottom plate in the stacked arrangement, wherein the culture plates contain nesting features wherein one culture plate is in a nested relationship with an adjacent culture plate in the stacked arrangement, the apparatus comprising: a structure holding the stacked arrangement of culture plates; the structure having a base, the base defining an opening wherein the bottom culture plate may be withdrawn from the base; wherein the base further comprises a passive feature de-nesting the bottom culture plate from the adjacent culture plate by moving the bottom culture plate laterally while retaining the bottom culture plate within the structure holding the stacked arrangement of culture plates thereby facilitating withdrawal of the bottom culture plate from the base via the opening. a structure holding the stacked arrangement of culture plates; the structure having a base, the base defining an opening wherein the bottom culture plate may be withdrawn from the base; wherein the base further comprises a passive feature de-nesting the bottom culture plate from the adjacent culture plate by moving the bottom culture plate laterally while retaining the bottom culture plate within the structure holding the stacked arrangement of culture plates thereby facilitating withdrawal of the bottom culture plate from the base via the opening.
A chimeric molecule capable of eliciting antibodies against a specific pathogen, said chimeric molecule comprising: a. an immunoglobulin scaffold, wherein said immunoglobulin scaffold comprises two identical immunoglobulin heavy chains and two immunoglobulin light chains comprising variable region domains specific for binding to a protein on an antigen presenting cell, wherein the immunoglobulin heavy chain is IgG2a, and wherein said protein on the antigen presenting cell is selected from the group consisting of CD205, CD11b and CD11c; b. a CD4 T cell costimulatory domain which is: i. linked to one of the heavy chains of said immunoglobulin scaffold via a linker at the C-terminal end of the heavy chain, or ii. connected, via a linker, to the C-terminal end of a pathogen-specific B cell epitope, the pathogen-specific B cell epitope being connected, via a linker to the C-terminal end of the immunoglobulin heavy chain of the immunoglobulin scaffold, and wherein said costimulatory domain is selected from the group consisting of B7.1, B7.2, Interleukin-2, Interleukin-12, interleukin-4, interleukin-5, interleukin-6, interleukin-10, and interleukin-13; and c. a pathogen-specific CD4 T cell epitope linked at the C-terminal end of a light chain of said immunoglobulin scaffold. a. an immunoglobulin scaffold, wherein said immunoglobulin scaffold comprises two identical immunoglobulin heavy chains and two immunoglobulin light chains comprising variable region domains specific for binding to a protein on an antigen presenting cell, wherein the immunoglobulin heavy chain is IgG2a, and wherein said protein on the antigen presenting cell is selected from the group consisting of CD205, CD11b and CD11c; b. a CD4 T cell costimulatory domain which is: i. linked to one of the heavy chains of said immunoglobulin scaffold via a linker at the C-terminal end of the heavy chain, or ii. connected, via a linker, to the C-terminal end of a pathogen-specific B cell epitope, the pathogen-specific B cell epitope being connected, via a linker to the C-terminal end of the immunoglobulin heavy chain of the immunoglobulin scaffold, and wherein said costimulatory domain is selected from the group consisting of B7.1, B7.2, Interleukin-2, Interleukin-12, interleukin-4, interleukin-5, interleukin-6, interleukin-10, and interleukin-13; and i. linked to one of the heavy chains of said immunoglobulin scaffold via a linker at the C-terminal end of the heavy chain, or ii. connected, via a linker, to the C-terminal end of a pathogen-specific B cell epitope, the pathogen-specific B cell epitope being connected, via a linker to the C-terminal end of the immunoglobulin heavy chain of the immunoglobulin scaffold, and c. a pathogen-specific CD4 T cell epitope linked at the C-terminal end of a light chain of said immunoglobulin scaffold.
An electrostatic induction generator comprising: a first substrate and a second substrate, which can move relatively while remaining opposed to each other; an electret that is provided in the first substrate; and a first electrode and a second electrode, which are provided on a surface side opposed to the electret in the second substrate, wherein a positional relationship between the electret and the first electrode and a positional relationship between the electret and the second electrode change in association with a change of relative positions between the first substrate and the second substrate, whereby an electrostatic capacitance between the electret and the first electrode and an electrostatic capacitance between the electret and the second electrode change to output an electric power, characterized by a structure that is adapted to decrease the electrostatic capacitance between the first electrode and the second electrode is provided between the first electrode and the second electrode, wherein the structure that is adapted to decrease the electrostatic capacitance is a structure that is provided between the first electrode and the second electrode to decrease permittivity between the first electrode and the second electrode, wherein permittivity between the first electrode and the second electrode is decreased by making a through-hole in a portion between the first electrode and the second electrode in the second substrate. a first substrate and a second substrate, which can move relatively while remaining opposed to each other; an electret that is provided in the first substrate; and a first electrode and a second electrode, which are provided on a surface side opposed to the electret in the second substrate, wherein a positional relationship between the electret and the first electrode and a positional relationship between the electret and the second electrode change in association with a change of relative positions between the first substrate and the second substrate, whereby an electrostatic capacitance between the electret and the first electrode and an electrostatic capacitance between the electret and the second electrode change to output an electric power, characterized by a structure that is adapted to decrease the electrostatic capacitance between the first electrode and the second electrode is provided between the first electrode and the second electrode, wherein the structure that is adapted to decrease the electrostatic capacitance is a structure that is provided between the first electrode and the second electrode to decrease permittivity between the first electrode and the second electrode, wherein permittivity between the first electrode and the second electrode is decreased by making a through-hole in a portion between the first electrode and the second electrode in the second substrate.
A composition for forming a cured polymer composition comprising: a polymer having at least a reactive silylgroup; a crosslinker or chain extender chosen from an alkoxysilane, an alkoxysiloxane, an oximosilane, an oximosiloxane, an enoxysilane, an enoxysiloxane, an aminosilane, a carboxysilane, a carboxysiloxane, an alkylamidosilane, an alkylamidosiloxane, an arylamidosilane, an arylamidosiloxane, an alkoxyaminosilane, an alkaryaminosiloxane, an alkoxycarbamatosilane, an alkoxycarbamatosiloxane, and combinations of two or more thereof; 0.01- 7 parts per weight per 100 parts per weight of the polymer of a catalyst selected from the group of organometalic compounds or salts of manganese (Mn-III); at least one adhesion promoter chosen from a silane or siloxane other than the compounds listed under; optionally, a filler component; and at least one acidic compound chosen from a phosphate ester, a phosphonate, a phosphite, a phosphine, a sulfite, a pseudohalogenide, a branched alkyl carboxylic acid, and a combination of two or more thereof. a polymer having at least a reactive silylgroup; a crosslinker or chain extender chosen from an alkoxysilane, an alkoxysiloxane, an oximosilane, an oximosiloxane, an enoxysilane, an enoxysiloxane, an aminosilane, a carboxysilane, a carboxysiloxane, an alkylamidosilane, an alkylamidosiloxane, an arylamidosilane, an arylamidosiloxane, an alkoxyaminosilane, an alkaryaminosiloxane, an alkoxycarbamatosilane, an alkoxycarbamatosiloxane, and combinations of two or more thereof; 0.01- 7 parts per weight per 100 parts per weight of the polymer of a catalyst selected from the group of organometalic compounds or salts of manganese (Mn-III); at least one adhesion promoter chosen from a silane or siloxane other than the compounds listed under; optionally, a filler component; and at least one acidic compound chosen from a phosphate ester, a phosphonate, a phosphite, a phosphine, a sulfite, a pseudohalogenide, a branched alkyl carboxylic acid, and a combination of two or more thereof.
A method of operating a forming shield arrangement that is configured for a windrowing work vehicle, the forming shield arrangement including at least one forming shield (166, 167, 168) that is moveably supported by a support structure, the at least one forming shield (166, 167, 168) including a deflecting surface that extends substantially in a vertical direction, the deflecting surface configured to deflect a crop material for forming a windrow, the method comprising: receiving, by a processor of a control system from a memory element, a stored position setting that corresponds to a position of the deflecting surface relative to the support structure; processing, by the processor, a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator (176, 178, 180, 182), the at least one forming shield (166, 167, 168) relative to the support structure according to the positioning control signal to change the position of the deflecting surface, characterized in that the method further comprising detecting, with a sensor (186, 188, 190, 192, 194, 196), an actual position setting of the at least one forming shield (166, 167, 168) and saving the actual position setting as the stored position setting, and receiving, by the processor, location data that corresponds to an actual location of the windrowing work vehicle within a field; and wherein processing the positioning control signal includes processing the positioning control signal based, at least in part, on the stored position setting and the location data. receiving, by a processor of a control system from a memory element, a stored position setting that corresponds to a position of the deflecting surface relative to the support structure; processing, by the processor, a positioning control signal based, at least in part, on the stored position setting; and moving, with an actuator (176, 178, 180, 182), the at least one forming shield (166, 167, 168) relative to the support structure according to the positioning control signal to change the position of the deflecting surface, characterized in that the method further comprising detecting, with a sensor (186, 188, 190, 192, 194, 196), an actual position setting of the at least one forming shield (166, 167, 168) and saving the actual position setting as the stored position setting, and receiving, by the processor, location data that corresponds to an actual location of the windrowing work vehicle within a field; and wherein processing the positioning control signal includes processing the positioning control signal based, at least in part, on the stored position setting and the location data.
Method for determining information on the position of the rotor shaft of an electric machine, on the basis of the sensor signal which can be assigned to the rotational angle, and at least one input signal (13, 14) of the electric machine, wherein the information is obtained by means of the following steps: detecting a sensor signal which can be assigned to the rotational angle, and the at least one input signal (13, 14) at a time tk; obtaining information on the position of the rotor shaft at a time tk from the detected sensor signal and the at least one input signal (13, 14); detecting a sensor signal which can be assigned to the rotational angle and the at least one input signal (13, 14) at a time t k+1; determining the information on the position of the rotor shaft at a time t k+1 from the detected sensor signal and the at least one input signal (13, 14); wherein the information on the position of the rotor shaft is obtained between the times t k and t k+1 by means of a Kalman filter (11, 44) on the basis of the detected sensor signal which can be assigned to the rotational angle, and the at least one input signal (13, 14) at a time t k, characterized in that between two times t k and t k+1 a prediction which is driven by the input signal is carried out using the physical model of the rotor which is produced in the simulation component, wherein a correction is always carried out whenever a new measured value is present, as a result of which the execution frequency of the correction depends on the rotational speed of the engine and/or of the rotor shaft, wherein the input signal (13, 14) is a string current, a load torque, an electric engine torque or a rotational speed.
Dye of the formula in which R 1 is hydrogen, halogen, COOH or COOR 11, R 2 is hydrogen, halogen, COOH, COOR 12 or CN, R 3 is alkyl or phenyl, R 4 and R 5 are each independently alkyl, R 6, R 7, R 8, R 9 and R 10 are each independently hydrogen, halogen, alkyl, alkoxy or COOR 13, and R 11, R 12 and R 13 are each independently alkyl. R 1 is hydrogen, halogen, COOH or COOR 11, R 2 is hydrogen, halogen, COOH, COOR 12 or CN, R 3 is alkyl or phenyl, R 4 and R 5 are each independently alkyl, R 6, R 7, R 8, R 9 and R 10 are each independently hydrogen, halogen, alkyl, alkoxy or COOR 13, and R 11, R 12 and R 13 are each independently alkyl.
Internal combustion engine with - at least one combustion chamber, - at least one fuel supply line for supplying - preferably gaseous - fuel to the at least one combustion chamber and - at least one comparative pressure control valve for controlling a pressure in the at least one fuel supply line, wherein the at least one comparative pressure control valve is formed to carry out a valve opening movement or a valve closing movement on the basis of a pressure difference between the at least one fuel supply line and a reference volume in which a reference pressure prevails, wherein at least one relief valve is provided that is separate from the at least one comparative pressure control valve and is formed to bring about a pressure relief in the reference volume by opening and thus to bring about a reduction of the reference pressure when a power to be produced by the internal combustion engine drops, characterized in that the reference pressure in the reference volume can be controlled or regulated by means of a pilot control valve that is separate from the relief valve, wherein the pilot control valve is arranged in a bypass line of the at least one comparative pressure control valve, wherein the bypass line is fluidly connected to the at least one fuel supply line upstream of the at least one comparative pressure control valve. - at least one combustion chamber, - at least one fuel supply line for supplying - preferably gaseous - fuel to the at least one combustion chamber and - at least one comparative pressure control valve for controlling a pressure in the at least one fuel supply line, wherein the at least one comparative pressure control valve is formed to carry out a valve opening movement or a valve closing movement on the basis of a pressure difference between the at least one fuel supply line and a reference volume in which a reference pressure prevails,
Device for feeding sample containers containing an analysis sample to be treated to a treating apparatus, in particular a centrifuge, for treating said analysis sample, said device having at least a) a conveyor for conveying at least one sample container or one carrier containing at least one sample container, b) a transfer station for transferring said sample container or said carrier to said conveyor, c) a removal station, which is separate from said transfer station, for removing said sample container or said carrier from said conveyor, d) a transfer device, which is separate from said transfer station, for removing said sample container or said carrier with said sample container from said conveyor for further transportation to said treating apparatus and for transferring to said conveyor after treatment of the analysis sample of the sample container in the treating apparatus, e) an identification unit for identifying said sample container, wherein said conveyor is designed to receive multiple sample containers or carriers and forms a circulating endless conveyor track, said conveyor extends horizontally, said transfer station is disposed upwardly offset from the conveying direction of said conveyor with respect to the horizontally extending conveyor, wherein a transfer conveyor is provided for conveying the sample container or the carrier transferred to the transfer station to said conveyor and that said transfer conveyor is constituted by a drop-down passage, and wherein an adapter is provided at the transfer station for inserting the sample container or the carrier, and said adapter is adapted to the outer shape of the sample container or of the carrier and is formed by a tube-like receiving part, wherein the adapter is provided with a lateral window so as to enable the identification unit to identify an identification of the sample container. a) a conveyor for conveying at least one sample container or one carrier containing at least one sample container, b) a transfer station for transferring said sample container or said carrier to said conveyor, c) a removal station, which is separate from said transfer station, for removing said sample container or said carrier from said conveyor, d) a transfer device, which is separate from said transfer station, for removing said sample container or said carrier with said sample container from said conveyor for further transportation to said treating apparatus and for transferring to said conveyor after treatment of the analysis sample of the sample container in the treating apparatus, e) an identification unit for identifying said sample container,
An unlocking method, wherein the method is applied to an electronic device; the electronic device comprises a first screen and a second screen that are formed in a screen-folded state, wherein the first screen is an inner screen, the second screen is an outer screen, the first screen has an associated first collection component, and the second screen has an associated second collection component; and the method comprises: obtaining an unlocking intention; invoking, in response to the unlocking intention, the second collection component to collect identity information of a user, and identifying an identity of the user based on the identity information collected by the second collection component; and unlocking the first screen if the identity of the user is valid and the electronic device meets a condition for using the first screen; characterized in that before unlocking the first screen, the method further comprises invoking the first collection component to collect identity information of the user if the identity of the user cannot be identified based on the identity information collected by the second collection component, and identifying the identity of the user based on the identity information collected by the first collection component. obtaining an unlocking intention; invoking, in response to the unlocking intention, the second collection component to collect identity information of a user, and identifying an identity of the user based on the identity information collected by the second collection component; and unlocking the first screen if the identity of the user is valid and the electronic device meets a condition for using the first screen; characterized in that before unlocking the first screen, the method further comprises invoking the first collection component to collect identity information of the user if the identity of the user cannot be identified based on the identity information collected by the second collection component, and identifying the identity of the user based on the identity information collected by the first collection component.