mhurhangee/ep-ind-claims huggingface dataset:
Sorter for separating out discrete products, which are conveyed in a conveying direction along a conveying path leading over the sorter, the sorter comprising a) a swivel axis, about which a base body of the sorter can be swivelled, b) wherein the base body has a plurality of (n) flat support surfaces (T 1, T 2,... T n), which extend parallel to the swivel axis and are arranged evenly around it, c) wherein the base body can be swivelled about the swivel axis such that selectively precisely one of the support surfaces (T 1, T 2,... T n) is swivelled into the conveying path and then runs parallel to the conveying direction and acts as conveying plane (E F) for receiving a product delivered to the sorter and for conveying it further in the conveying direction, characterized in that d) the support surfaces (T 1, T 2,... T n) of the base body form a regular prism. a) a swivel axis, about which a base body of the sorter can be swivelled, b) wherein the base body has a plurality of (n) flat support surfaces (T 1, T 2,... T n), which extend parallel to the swivel axis and are arranged evenly around it, c) wherein the base body can be swivelled about the swivel axis such that selectively precisely one of the support surfaces (T 1, T 2,... T n) is swivelled into the conveying path and then runs parallel to the conveying direction and acts as conveying plane (E F) for receiving a product delivered to the sorter and for conveying it further in the conveying direction, characterized in that d) the support surfaces (T 1, T 2,... T n) of the base body form a regular prism.
Method (100, 200) for treating plants in a field, comprising the following steps: selecting a treatment tool for treating plants, the treatment tool having a specific spatial accuracy; capturing an image of the field, the image being correlated with positional information; determining (S106, S206) a position of a plant to be treated in the field by means of semantic segmentation of the image, the position of the plant being determined with a spatial resolution which corresponds to the spatial accuracy of the treatment tool; guiding the treatment tool to the position of the plant; and treating the plant with the treatment tool. selecting a treatment tool for treating plants, the treatment tool having a specific spatial accuracy; capturing an image of the field, the image being correlated with positional information; determining (S106, S206) a position of a plant to be treated in the field by means of semantic segmentation of the image, the position of the plant being determined with a spatial resolution which corresponds to the spatial accuracy of the treatment tool; guiding the treatment tool to the position of the plant; and treating the plant with the treatment tool.
A process for purifying a crude furan 2,5-dicarboxylic acid (cFDCA) composition comprising: a) providing in an oxidation zone a cFDCA composition comprising furan 2,5-dicarboxylic acid (FDCA) solids, 5-formyl furan-2-carboxyic acid (FFCA), and a oxidation solvent composition which is an aqueous acetic acid solution having an acetic acid concentration of 80 to 99 wt.% before adding it to the oxidation zone; or the oxidation solvent composition as added comprises a mixture of water and acetic acid which has a water content of 0 % to 15 % by weight; b) combining a hydrogenation solvent composition with said FDCA solids and dissolving at least a portion of the FDCA solids to thereby produce a solvated FDCA (sFDCA) composition comprising dissolved FDCA, the hydrogenation solvent composition, and FFCA; c) in a hydrogenation reaction zone, hydrogenating the sFDCA composition by contacting the sFDCA composition with hydrogen at a temperature within a range of 130 °C to 225 °C and under a hydrogen partial pressure within a range of 69 kPa to 6.2 MPa (10 psi to 900 psi) in the presence of a hydrogenation catalyst to thereby hydrogenate FFCA and produce a furan 2,5-dicarboxylic acid (hFDCA) composition comprising a hydrogenated FFCA species, dissolved FDCA, and said hydrogenation solvent; and e) separating at least a portion of the dissolved FDCA from the hFDCA composition to obtain a product FDCA (pFDCA) composition, wherein the hydrogenation reaction is conducted under conditions such that the hFDCA composition contains no more than 2 wt% of tetrahydrofuran-2,5-dicarboxylic acid (THFDCA), based on the weight of the hFDCA composition, which includes liquids and solids. a) providing in an oxidation zone a cFDCA composition comprising furan 2,5-dicarboxylic acid (FDCA) solids, 5-formyl furan-2-carboxyic acid (FFCA), and a oxidation solvent composition which is an aqueous acetic acid solution having an acetic acid concentration of 80 to 99 wt.% before adding it to the oxidation zone; or the oxidation solvent composition as added comprises a mixture of water and acetic acid which has a water content of 0 % to 15 % by weight; b) combining a hydrogenation solvent composition with said FDCA solids and dissolving at least a portion of the FDCA solids to thereby produce a solvated FDCA (sFDCA) composition comprising dissolved FDCA, the hydrogenation solvent composition, and FFCA; c) in a hydrogenation reaction zone, hydrogenating the sFDCA composition by contacting the sFDCA composition with hydrogen at a temperature within a range of 130 °C to 225 °C and under a hydrogen partial pressure within a range of 69 kPa to 6.2 MPa (10 psi to 900 psi) in the presence of a hydrogenation catalyst to thereby hydrogenate FFCA and produce a furan 2,5-dicarboxylic acid (hFDCA) composition comprising a hydrogenated FFCA species, dissolved FDCA, and said hydrogenation solvent; and e) separating at least a portion of the dissolved FDCA from the hFDCA composition to obtain a product FDCA (pFDCA) composition,
A controller for driving a motor, comprising: an input part that receives, from each of two brake sensors (104a, 104b), a signal indicating that a corresponding brake is in an ON state or a signal indicating that the brake is in an OFF state; a control coefficient computing part computing a control coefficient that determines a value of a control parameter that controls the motor relative to a target value of the control parameter, the target value being a value of the control parameter at which the motor achieves a desired power generation efficiency, the control coefficient computing part increasing the control coefficient along a first slope over time until it reaches a maximum value of the control coefficient when a first signal indicating that only one of the brakes is in the ON state is received from the input part, the control coefficient computing part increasing the control coefficient along a second slope over time until it reaches the maximum value of the control coefficient when a second signal indicating that both of the brakes are in the ON state is received from the input part, the second slope rising faster than the first slope; and a control part (1203, 1204) that derives a value of the control parameter in accordance with the target value of the control parameter and the control coefficient computed by the control coefficient computing part, the control part (1203, 1204) forwarding the derived value of the control parameter to the motor to control driving of the motor. an input part that receives, from each of two brake sensors (104a, 104b), a signal indicating that a corresponding brake is in an ON state or a signal indicating that the brake is in an OFF state; a control coefficient computing part computing a control coefficient that determines a value of a control parameter that controls the motor relative to a target value of the control parameter, the target value being a value of the control parameter at which the motor achieves a desired power generation efficiency, the control coefficient computing part increasing the control coefficient along a first slope over time until it reaches a maximum value of the control coefficient when a first signal indicating that only one of the brakes is in the ON state is received from the input part, the control coefficient computing part increasing the control coefficient along a second slope over time until it reaches the maximum value of the control coefficient when a second signal indicating that both of the brakes are in the ON state is received from the input part, the second slope rising faster than the first slope; and a control part (1203, 1204) that derives a value of the control parameter in accordance with the target value of the control parameter and the control coefficient computed by the control coefficient computing part, the control part (1203, 1204) forwarding the derived value of the control parameter to the motor to control driving of the motor.
Foot unit for a sanitary mounting device comprising a connecting element with a connecting section for connecting the foot unit to the mounting device and a foot element with a support surface, with which the foot element can be supported on a support structure, wherein the connecting element and the foot element are connected to one another via a swivel joint, wherein the swivel joint has a swivel section on the foot element side and a swivel section on the connecting element side, which swivel sections (9, 10) are each pivotably engaged with one another, and wherein the foot element is pivotable via the swivel joint about a swivel axis relative to the stationary connecting element between a first position and a second position, characterized in that the swivel joint has a first stop and a further stop, wherein the foot element is pivotable between the two stops (13, 14). a connecting element with a connecting section for connecting the foot unit to the mounting device and a foot element with a support surface, with which the foot element can be supported on a support structure, wherein the connecting element and the foot element are connected to one another via a swivel joint, wherein the swivel joint has a swivel section on the foot element side and a swivel section on the connecting element side, which swivel sections (9, 10) are each pivotably engaged with one another, and wherein the foot element is pivotable via the swivel joint about a swivel axis relative to the stationary connecting element between a first position and a second position, characterized in that the swivel joint has a first stop and a further stop, wherein the foot element is pivotable between the two stops (13, 14).
An isolation tool assembly for isolating a section of a pipe, the isolation tool assembly comprising: a seal unit adapted for location in a section of a pipe via an opening in the pipe wall and comprising at least two seal elements (22, 24) configured to engage the pipe wall to isolate a section of the pipe; a seal actuator operable to urge the seal elements (22, 24) into sealing engagement with the pipe wall; and a lock arrangement operable to prevent de-activation of the seal elements (22, 24) to maintain isolation of the section of the pipe, the lock arrangement comprising a lock member coupled to or forming part of the seal actuator and a lock piston configured to engage the lock member to prevent movement of the seal actuator to a position which would deactivate the seal elements (22,24). a seal unit adapted for location in a section of a pipe via an opening in the pipe wall and comprising at least two seal elements (22, 24) configured to engage the pipe wall to isolate a section of the pipe; a seal actuator operable to urge the seal elements (22, 24) into sealing engagement with the pipe wall; and a lock arrangement operable to prevent de-activation of the seal elements (22, 24) to maintain isolation of the section of the pipe, the lock arrangement comprising a lock member coupled to or forming part of the seal actuator and a lock piston configured to engage the lock member to prevent movement of the seal actuator to a position which would deactivate the seal elements (22,24).
An injectable formulation comprising the Jack Bean derived lectin of Seq. ID. No. 1: Ala Asp Thr Ile Val Ala Val Glu Leu Asp Thr Tyr Pro Asn Thr Asp Ile Gly Asp Pro Ser Tyr Pro His Ile Gly Ile Asp Ile Lys Ser Val Arg Ser Lys Lys Thr Ala Lys Trp Asn Met Gln Asn Gly Lys Val Gly Thr Ala His Ile Ile Tyr Asn Ser Val Asp Lys Arg Leu Ser Ala Val Val Ser Tyr Pro Asn Ala Asp Ser Ala Thr Val Ser Tyr Asp Val Asp Leu Asp Asn Val Leu Pro Glu Trp Val Arg Val Gly Leu Ser Ala Ser Thr Gly Leu Tyr Lys Glu Thr Asn Thr Ile Leu Ser Trp Ser Phe Thr Ser Lys Leu Lys Ser Asn Thr His Glu Thr Asn Ala Leu His Phe Met Asn Gln Phe Ser Lys Asp Gln Lys Asp Leu Ile Leu Gln Gly Asp Ala Thr Thr Gly Thr Asp Gly Asn Leu Glu Leu Thr Arg Val Ser Ser Asn Gly Ser Pro Gln Gly Ser Ser Val Gly Arg Ala Leu Phe Tyr Ala Pro Val His Ile Trp Glu Ser Ser Ala Val Val Ala Ser Phe Glu Ala Thr Phe Thr Phe Leu Ile Lys Ser Pro Asp Ser His Pro Ala Asp Gly Ile Ala Phe Phe Ile Ser Asn Ile Asp Ser Ser Ile Pro Ser Gly Ser Thr Gly Arg Leu Leu Gly Leu Phe Pro Asp Ala Asn or a pharmaceutically acceptable salt thereof in amounts of 1 to 10, 10 to 100, 50 to 250 mg for use in the treatment of disease of bone marrow aplasia and deficiency of skin stem cells.
A verification method for electronic device insurance, so that an insurance fraud operation performed through screen sharing can be detected and intercepted, performed by a client of an object device of insurance, and comprising: sending, to a server, an electronic device insurance verification request initiated by a user on the object device; displaying an insurance verification page in response to an insurance verification page display instruction received from the server; monitoring a sharing interface that is of the device and that is used for screen sharing, to determine whether a screen sharing behavior occurs after the device displays the insurance verification page, wherein monitoring the sharing interface to determine whether a screen sharing behavior occurs after the device displays the insurance verification page comprises detecting upstream traffic of the device within a predetermined time period after the electronic device insurance verification request is initiated, and after it is detected that the sharing interface is invoked and it is detected that the upstream traffic exceeds a traffic threshold, determining that a screen sharing behavior occurs after the device displays the insurance verification page; and blocking current insurance verification if a screen sharing behavior occurs. sending, to a server, an electronic device insurance verification request initiated by a user on the object device; displaying an insurance verification page in response to an insurance verification page display instruction received from the server; monitoring a sharing interface that is of the device and that is used for screen sharing, to determine whether a screen sharing behavior occurs after the device displays the insurance verification page, wherein monitoring the sharing interface to determine whether a screen sharing behavior occurs after the device displays the insurance verification page comprises detecting upstream traffic of the device within a predetermined time period after the electronic device insurance verification request is initiated, and after it is detected that the sharing interface is invoked and it is detected that the upstream traffic exceeds a traffic threshold, determining that a screen sharing behavior occurs after the device displays the insurance verification page; and detecting upstream traffic of the device within a predetermined time period after the electronic device insurance verification request is initiated, and after it is detected that the sharing interface is invoked and it is detected that the upstream traffic exceeds a traffic threshold, determining that a screen sharing behavior occurs after the device displays the insurance verification page; and blocking current insurance verification if a screen sharing behavior occurs.
A power converter configured to convert AC mains power to a DC output voltage which is lower than a peak absolute voltage of the AC mains, the AC mains having a half-cycle consisting of a low-voltage part and a high-voltage part, the power converter comprising: a capacitor configured to store charge at a voltage range which is intermediate the peak voltage and the DC output voltage; a gated rectification stage comprising a rectifier for rectifying an AC mains power, and at least one switch configured to supply the rectified AC mains power to the capacitor during only the low-voltage part of a half-cycle of the AC mains; and a switched mode DC-DC power conversion stage comprising at least one further switch (420, 430) caracterised in that it is configured to convert power from the capacitor to the DC output voltage during only the high-voltage part of a half-cycle of the AC mains. a capacitor configured to store charge at a voltage range which is intermediate the peak voltage and the DC output voltage; a gated rectification stage comprising a rectifier for rectifying an AC mains power, and at least one switch configured to supply the rectified AC mains power to the capacitor during only the low-voltage part of a half-cycle of the AC mains; and a switched mode DC-DC power conversion stage comprising at least one further switch (420, 430)
A method for inspecting an object, comprising: a. directing illumination light, the illumination light defining a light beam opening angle, from a configurable area light source onto a beam splitter via an illumination lens along an illumination beam path onto a surface of an object; b. directing reflected light from the surface of the object along an imaging beam path; c. imaging the reflected light from the surface of the object with an imaging lens onto an image plane of a camera; d. changing the diameter of the illumination light and thereby changing the opening angle of the light beam; e. repeating the steps a - d; and generating a field of view on the surface of the object in real time images with different beam opening angles and collimation angles, respectively, wherein the configurable area light source is a 2-dimensional arrangement of a plurality of light emitting elements; wherein the plurality of light emitting elements includes a plurality of light emitting diodes; wherein the 2-dimensional arrangement of the plurality of light emitting elements is defined by an arrangement of the plurality of light emitting elements in a plurality of concentric geometrical shapes; wherein a control and drive device is assigned to the configurable area light source so that the plurality of concentric and addressable geometrical shapes are generated in order to obtain different beam diameters, wherein the plurality of concentric geometrical shapes include a plurality of concentric hexagons. a. directing illumination light, the illumination light defining a light beam opening angle, from a configurable area light source onto a beam splitter via an illumination lens along an illumination beam path onto a surface of an object; b. directing reflected light from the surface of the object along an imaging beam path; c. imaging the reflected light from the surface of the object with an imaging lens onto an image plane of a camera; d. changing the diameter of the illumination light and thereby changing the opening angle of the light beam; e. repeating the steps a - d; and
Method for influencing a future soil temperature in an asparagus dam, wherein the method comprises the following steps: reading in at least one temperature value captured in the asparagus dam and weather forecast information; and determining an expected soil temperature value using a temperature model of the asparagus dam, the temperature value and/or a temporal profile of the temperature value and the weather forecast information in order to predict the future soil temperature in an asparagus dam, wherein, in the step of determining, the soil temperature value is furthermore determined using a position value representing a film orientation or a position of the film on the asparagus dam, wherein, in the step of determining, a first soil temperature value is determined for an exposed dark, in particular black, film side, a second soil temperature value for an exposed bright, in particular white, film side and/or at least a third soil temperature value for a filmless asparagus dam, and selecting the correct film orientation or position of the film in order to achieve a future temperature in the asparagus dam in an optimum range for optimum growth conditions in the cultivation of asparagus. reading in at least one temperature value captured in the asparagus dam and weather forecast information; and determining an expected soil temperature value using a temperature model of the asparagus dam, the temperature value and/or a temporal profile of the temperature value and the weather forecast information in order to predict the future soil temperature in an asparagus dam, wherein, in the step of determining, the soil temperature value is furthermore determined using a position value representing a film orientation or a position of the film on the asparagus dam, wherein, in the step of determining, a first soil temperature value is determined for an exposed dark, in particular black, film side, a second soil temperature value for an exposed bright, in particular white, film side and/or at least a third soil temperature value for a filmless asparagus dam, and selecting the correct film orientation or position of the film in order to achieve a future temperature in the asparagus dam in an optimum range for optimum growth conditions in the cultivation of asparagus.