mhurhangee/ep-ind-claims huggingface dataset:
A drive transmission device for an ink jet recording apparatus comprising, a sun gear configured to be rotated by a drive source; a plurality of drive input gears (40, 50, 90); a planetary gear configured to mesh with the sun gear and selectively mesh with any one of the plurality of drive input gears (40, 50, 90), thereby transmitting drive from the sun gear to any one of the drive input gears (40, 50, 90); a support member configured to support the planetary gear so as to be freely revolvable around the sun gear; a clutch (26a, 26b) configured to selectively connect the support member to a shaft of the sun gear driven by the drive source, thereby allowing the support member to revolve; a first abutting portion configured to come into contact with the support member, thereby restricting a rotatable range of the support member; and control means configured to control the clutch so that the shaft of the sun gear is selectively connected to the support member by the clutch (26a, 26b) and to cause the support member to come into contact with the first abutting portion, and to cause the planetary gear to selectively mesh with any one of the plurality of drive input gears (40, 50, 90).
Method for subscription management in a security element integrated in a mobile terminal, - wherein the security element is provided with a standardized initialization, - wherein this standardized initialization enables access to all functionalities of the security element for a subscription profile, wherein the subscription profile can be loaded into the security element, - wherein one respective subscription profile is associated with one subscription in the security element, - wherein a subscription profile defines conditions of use of a mobile network associated with the subscription by means of the security element and the mobile terminal, - wherein access, of an application associated with the subscription profile and executable in the security element, to functionalities of the security element is restricted in a subscription profile-specific manner, - wherein information about which functionalities of the security element are accessible to the subscription profile is included in the subscription profile itself, and - wherein the subscription profile with the information about the accessible functionalities is loaded into the security element. - wherein the security element is provided with a standardized initialization, - wherein this standardized initialization enables access to all functionalities of the security element for a subscription profile, wherein the subscription profile can be loaded into the security element, - wherein one respective subscription profile is associated with one subscription in the security element, - wherein a subscription profile defines conditions of use of a mobile network associated with the subscription by means of the security element and the mobile terminal, - wherein access, of an application associated with the subscription profile and executable in the security element, to functionalities of the security element is restricted in a subscription profile-specific manner, - wherein information about which functionalities of the security element are accessible to the subscription profile is included in the subscription profile itself, and - wherein the subscription profile with the information about the accessible functionalities is loaded into the security element.
Nucleic acid molecule encoding a polypeptide capable of mediating a resistance to a pathogen in a plant in which the polypeptide is expressed, characterized in that the nucleic acid molecule comprises a nucleotide sequence selected from (a) a nucleotide sequence encoding a polypeptide with an amino acid sequence that is at least 80% identical to the SEQ ID NO: 2, wherein the nucleic acid molecule comprises one or more mutations that cause that the polypeptide, encoded by the nucleic acid molecule, has an amino acid different from lysine at the position corresponding to position 307 in the reference amino acid sequence SEQ ID NO: 2, and/or at the position corresponding to position 437 in the reference amino acid sequence SEQ ID NO: 2, comprises an amino acid distinct from glutamine; and (b) a nucleotide sequence that hybridizes with the complementary sequence to SEQ ID NO: 1 under stringent conditions, wherein the nucleotide sequence has one or more of the following nucleotide substitutions at those sites corresponding to the sites in the reference nucleotide sequence SEQ ID NO: 1: C instead of A at position 919; G instead of A at position 1310; A instead of G at position 1697; A instead of C at position 2191; and/or T instead of C at position 2491; preferably wherein the pathogen is the beet necrotic yellow vein virus (BNYVV) and the plant is a plant of the genus Beta, preferably sugar beet ( Beta vulgaris L.). (a) a nucleotide sequence encoding a polypeptide with an amino acid sequence that is at least 80% identical to the SEQ ID NO: 2, wherein the nucleic acid molecule comprises one or more mutations that cause that the polypeptide, encoded by the nucleic acid molecule, has an amino acid different from lysine at the position corresponding to position 307 in the reference amino acid sequence SEQ ID NO: 2, and/or at the position corresponding to position 437 in the reference amino acid sequence SEQ ID NO: 2, comprises an amino acid distinct from glutamine; and (b) a nucleotide sequence that hybridizes with the complementary sequence to SEQ ID NO: 1 under stringent conditions, wherein the nucleotide sequence has one or more of the following nucleotide substitutions at those sites corresponding to the sites in the reference nucleotide sequence SEQ ID NO: 1: C instead of A at position 919; G instead of A at position 1310; A instead of G at position 1697; A instead of C at position 2191; and/or T instead of C at position 2491;
A vehicle headlight for generating a main light distribution and a secondary light distribution, wherein the vehicle headlight comprises two or more LED light modules (10, 11), wherein each LED light module (10, 11) comprises a number of LED light sources (al, a2, a3, b1, c1 - c6; a1', a2', a3', b1', c1' - c6'), wherein each LED light source (a1, a2, a3, b1, c1 - c6; a1', a2', a3', b1', c1' - c6') consists of a housing (a1, a2, a3, b1, c1 - c6; a1', a2', a3', b1', c1' - c6') and a light-emitting semiconductor chip which is arranged in the housing and has a rectangular or square light outlet surface (A1, A2, A3, B1, C1 - C6; A1', A2', A3', B1', C1' - C6'), wherein the housing of the LED light sources (a1, a2, a3, b1, c1 - c6; a1', a2', a3', b1', c1' - c6') in each case has a greater extent than its light-emitting chip, and wherein the light outlet surfaces (A1, A2, A3, B1, C1 - C6; A1', A2', A3', B1', C1' - C6') lie in a common surface, and wherein the side edges of the light outlet surfaces (A1, A2, A3, B1, C1 - C6; A1', A2', A3', B1', C1' - C6') are oriented parallel to one another, and wherein the LED light sources (a1, a2, a3, b1, c1 - c6; a1', a2', a3', b1', c1' - c6') are arranged in horizontal rows (Z1 - Z7) and vertical columns (S1 - S9), and wherein each LED light module (10, 11) comprises a lens (13, 14), and wherein the light emitted by the LED light sources of an LED module (10, 11) is irradiated directly onto the lens (13, 14) and is projected therefrom into the outside space, wherein the light emitted by the LED light sources of the LED modules (10, 11) forms the main light distribution or the secondary light distribution, wherein one or more light outlet surfaces (B1, C1 - C6; B1', C1' - C6') of a respective LED light source (b1, c1 - c6; b1', c1' - c6') for generating the secondary light distribution is/are arranged in each row, and wherein the light outlet surfaces (B1, C1 - C6; B1', C1' - C6') of the LED light sources (b1, c1 - c6; b1', c1' - c6') for generating the secondary light distribution are distributed between at least one column, preferably between two or more columns (S1, S4, S5, S6), and wherein the light outlet surfaces (A1, A2, A3, B1; A1', A2', A3', B1') of LED light sources (a1, a2, a3, b1; a1', a2', a3', b1') for generating the main light distribution are arranged in at least one row, wherein at least one light outlet surface, preferably two or more light outlet surfaces, (A1, A2, A3, B1; A1', A2', A3', B1') of LED light sources (a1, a2, a3, b1; a1', a2', a3', b1') for generating the main light distribution are arranged in at least one of these rows, characterized in that the light outlet surfaces (B1, C1 - C6; B1', C1' - C6') of the LED light sources (b1, c1 - c6; b1', c1' - c6') for generating the secondary light distribution are arranged in a plurality of rows (Z1 - Z7) bordering on one another directly, and wherein the vertical extension ("height") of the light outlet surfaces of the LED light sources corresponds to the height of the row in which the light outlet surface is arranged.
Inductor for heating a geological formation, especially a reservoir, of a substance containing hydrocarbons, for example an oil sand, oil shale or heavy oil reservoir, by means of electromagnetic induction, especially for extracting the substance containing hydrocarbons from the reservoir, comprising at least one conductor, wherein the conductor has at least one interruption point, characterised in that a rounded conductive body is fitted to at least to one end area of the conductor at the interruption point and that the rounded conductive body is embodied at one end as a sleeve and the end area of the conductor is introduced into the sleeve.
Method for coating a surface portion, in particular narrow surface portion, of a plate-shaped workpiece with a coating material, the workpiece preferably being formed at least in portions from wood, wood materials, plastics material or the like, said method comprising the step of: coating the surface portion of the workpiece with the coating material by means of a coating unit, the surface portion being designed to have an angle (α) that varies with respect to the plate plane in the coating direction or to be at an angle of 0° < |α| < 90° to the plate plane and having a curvature in the coating direction, the coating unit being moved mechanically during treatment such that the position of the coating unit is constant with respect to the part of the surface portion being treated, characterised in that, in the coating direction, the surface portion has an angle (α) that varies with respect to the plate plane and has a curvature. coating the surface portion of the workpiece with the coating material by means of a coating unit, the surface portion being designed to have an angle (α) that varies with respect to the plate plane in the coating direction or to be at an angle of 0° < |α| < 90° to the plate plane and having a curvature in the coating direction, the coating unit being moved mechanically during treatment such that the position of the coating unit is constant with respect to the part of the surface portion being treated, characterised in that, in the coating direction, the surface portion has an angle (α) that varies with respect to the plate plane and has a curvature.
Exhaust-gas control device for an internal combustion engine, having an exhaust-gas valve for controlling a flow in an exhaust-gas duct, and having a bypass valve for controlling a flow in a bypass duct, having an activatable actuator for activating the exhaust-gas valve and the bypass valve, wherein the exhaust-gas valve and the bypass valve have a common valve body and a common exhaust-gas inlet duct, and a housing for accommodating the valve body has an inlet opening of the common exhaust-gas inlet duct, an outlet opening of the exhaust-gas duct of the exhaust-gas valve and an outlet opening of the bypass duct of the bypass valve, and wherein the valve body is arranged rotatably in the housing and has two exhaust-gas guiding surfaces (20, 21) that are inclined relative to the axis of rotation, such that, in a first rotational position, the inlet opening is connected via one exhaust-gas guiding surface to one outlet opening and, in the second rotational position, the inlet opening is connected via the other exhaust-gas guiding surface to the other outlet opening, characterized in that the valve body has a raised portion arranged on a sub-region of one of the exhaust-gas guiding surfaces (20, 21), and in that, in a third rotational position, the raised portion closes the inlet opening, and in that the raised portion is arranged only on one of the exhaust-gas guiding surfaces (20, 21) of the valve body.
A printing device configured to print an image over a plurality of pages on a first surface of a printing medium having a long belt shape, the printing device comprising: a conveyance unit configured to convey the printing medium; a printing unit configured to print an image by ejecting ink on the first surface of the printing medium conveyed by the conveyance unit; and a control unit, wherein the control unit includes: a printing control unit configured to control operation of the printing unit; and a conveyance control unit configured to control operation of the conveyance unit, the printing control unit includes a printing interruption control unit, characterized in that the control unit is configured to control, when a printing interruption cause occurs, the printing unit to interrupt printing operation after completing printing of a printing-interruption-time last page being printed on the first surface of the printing medium, and further printing a position mark indicating a printing resumption position on a printing resumption page that is a next page of the printing-interruption-time last page, and the conveyance control unit includes a conveyance speed control unit configured to control, after interruption of printing operation, the conveyance unit to start deceleration of a conveyance speed of the printing medium and stop a conveyance of the printing medium. a conveyance unit configured to convey the printing medium; a printing unit configured to print an image by ejecting ink on the first surface of the printing medium conveyed by the conveyance unit; and a control unit, wherein the control unit includes: a printing control unit configured to control operation of the printing unit; and a conveyance control unit configured to control operation of the conveyance unit, a printing control unit configured to control operation of the printing unit; and a conveyance control unit configured to control operation of the conveyance unit, the printing control unit includes a printing interruption control unit, characterized in that the control unit is configured to control, when a printing interruption cause occurs, the printing unit to interrupt printing operation after completing printing of a printing-interruption-time last page being printed on the first surface of the printing medium, and further printing a position mark indicating a printing resumption position on a printing resumption page that is a next page of the printing-interruption-time last page, and the conveyance control unit includes a conveyance speed control unit configured to control, after interruption of printing operation, the conveyance unit to start deceleration of a conveyance speed of the printing medium and stop a conveyance of the printing medium.
Holding frame for receiving a tool, wherein the holding frame has an attachment point for attachment to a manipulator of a construction robot, characterized in that the holding frame has a storage battery interface for detachably receiving a storage battery, in particular detachably without the use of tools, wherein the holding frame has a holding portion which is designed complementarily with respect to the storage battery interface.
An indoor unit for an air conditioner, comprising a blower fan for introducing and discharging indoor air and a heat exchanger for heat-exchanging with the air introduced by the blower fan, the indoor unit further comprising: a casing having a chassis for receiving the blower fan and the heat exchanger and a front frame coupled to the chassis and having an air intake grill; an air discharge panel movably installed on a side of the front frame to selectively discharge the air frontward; Wherein the front frame further comprises a frontward air outlet through which air is discharged, and the air discharge panel is configured to move upward or downward on a side of the front frame to selectively screen the frontward air outlet characterised in that an air discharge vane is provided on a side of the front frame to open a downward air outlet, the air discharge vane being configured to guide the air discharged downward through the downward air outlet, wherein the frontward air outlet is opened in a state where the air discharge panel is moved upward and the air is exhausted frontward of the indoor unit through the frontward air outlet and downward of the indoor unit through the downward air outlet, and the frontward air outlet is screened in a state where the air discharge panel is moved downward and the air is guided by the air discharge vane and exhausted downward from the indoor unit. a casing having a chassis for receiving the blower fan and the heat exchanger and a front frame coupled to the chassis and having an air intake grill; an air discharge panel movably installed on a side of the front frame to selectively discharge the air frontward; Wherein the front frame further comprises a frontward air outlet through which air is discharged, and
A robot system comprising: a body including: an upper body section; a lower body section including one or more legs (404, 406) configured to contact a surface; and an intermediate body section coupling the upper body section and the lower body section; and a control system implemented with one or more processors, the control system including: an upper body control system configured to operate the upper body section, the upper body section experiencing an upper body force in response to the operation by the upper body control system, and the intermediate body section experiencing at least one of a first intermediate body linear force or a first intermediate body moment based on the upper body force; and a lower body control system configured to operate the one or more legs (404, 406), the one or more legs (404, 406) experiencing respective reaction forces from the surface based on the operation by the lower body control system, the intermediate body section experiencing at least one of a second intermediate body linear force or a second intermediate body moment based on the reaction forces, wherein the lower body control system operates the one or more legs (404, 406) so that the second intermediate body linear force balances the first intermediate linear force and the second intermediate body moment balances the first intermediate body moment. a body including: an upper body section; a lower body section including one or more legs (404, 406) configured to contact a surface; and an intermediate body section coupling the upper body section and the lower body section; and an upper body section; a lower body section including one or more legs (404, 406) configured to contact a surface; and an intermediate body section coupling the upper body section and the lower body section; and a control system implemented with one or more processors, the control system including: an upper body control system configured to operate the upper body section, the upper body section experiencing an upper body force in response to the operation by the upper body control system, and the intermediate body section experiencing at least one of a first intermediate body linear force or a first intermediate body moment based on the upper body force; and a lower body control system configured to operate the one or more legs (404, 406), the one or more legs (404, 406) experiencing respective reaction forces from the surface based on the operation by the lower body control system, the intermediate body section experiencing at least one of a second intermediate body linear force or a second intermediate body moment based on the reaction forces, wherein the lower body control system operates the one or more legs (404, 406) so that the second intermediate body linear force balances the first intermediate linear force and the second intermediate body moment balances the first intermediate body moment.
An audio processing apparatus comprising: an audio processing unit operative to respectively process a plurality of input audio signals, and to adjust a degree of emphasis required for each of the input audio signals according to a respective index which is input by a user for each input audio signal and which indicates the degree of emphasis of each input audio signal, thereby generating a plurality of processed audio signals; and a down mixer operative to mix said plurality of processed audio signals to generate an output audio signal having a predetermined number of channels, where the audio processing unit comprises a frequency-band-division filter operative to allocate a respective frequency band to each of said plurality of input audio signals according to the respective index, and operative to extract a frequency component belonging to the allocated frequency band from each input audio signal, to generate said plurality of processed audio signals characterized in that the frequency-band-division filter allocates, to at least one of the plurality of input audio signals, a plurality of frequency bands non-contiguously and makes the sum of bandwidths of the frequency bands to be allocated larger for an input audio signal for which a higher degree of emphasis is indicated. an audio processing unit operative to respectively process a plurality of input audio signals, and to adjust a degree of emphasis required for each of the input audio signals according to a respective index which is input by a user for each input audio signal and which indicates the degree of emphasis of each input audio signal, thereby generating a plurality of processed audio signals; and a down mixer operative to mix said plurality of processed audio signals to generate an output audio signal having a predetermined number of channels, where the audio processing unit comprises a frequency-band-division filter operative to allocate a respective frequency band to each of said plurality of input audio signals according to the respective index, and operative to extract a frequency component belonging to the allocated frequency band from each input audio signal, to generate said plurality of processed audio signals characterized in that the frequency-band-division filter allocates, to at least one of the plurality of input audio signals, a plurality of frequency bands non-contiguously and makes the sum of bandwidths of the frequency bands to be allocated larger for an input audio signal for which a higher degree of emphasis is indicated.