mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for the automated loading of wrapping material in an agricultural baling apparatus, comprises a reservoir housing three rolls of wrapping material (4,6,8), at least two of the rolls being of differing wrapping material (4,6,8), each roll of wrapping material (4,6,8) having a leading end forming a gathered string, a support with a retention notch for each gathered string of wrapping material, each gathered string of wrapping material being located in an associated retention notch, a pair of opposing feed rollers, a severing apparatus to provide a severing location downstream of the feed rollers, and a gathering apparatus located between the reservoir and the pair of feed rollers, the gathering apparatus being adapted to gather side edges of a wrapping material to form each string of gathered wrapping material; characterised in that the automated loading apparatus further comprises a displacement apparatus configured to move the gathered string between a first position in which the gathered string is located at least in part within the associated retention notch and a second position in which the gathered string is located at least in part in contact with the feed rollers. a reservoir housing three rolls of wrapping material (4,6,8), at least two of the rolls being of differing wrapping material (4,6,8), each roll of wrapping material (4,6,8) having a leading end forming a gathered string, a support with a retention notch for each gathered string of wrapping material, each gathered string of wrapping material being located in an associated retention notch, a pair of opposing feed rollers, a severing apparatus to provide a severing location downstream of the feed rollers, and a gathering apparatus located between the reservoir and the pair of feed rollers, the gathering apparatus being adapted to gather side edges of a wrapping material to form each string of gathered wrapping material; characterised in that the automated loading apparatus further comprises a displacement apparatus configured to move the gathered string between a first position in which the gathered string is located at least in part within the associated retention notch and a second position in which the gathered string is located at least in part in contact with the feed rollers.
A valve opening-closing timing control device comprising: a driving rotating body that rotates synchronously with a crankshaft of an internal combustion engine; a following rotating body that rotates integrally with a cam shaft of the internal combustion engine on the same rotation axis as the driving rotating body; a phase control mechanism that controls changing of relative rotational phases of the driving rotating body and the following rotating body; and a torsion coil spring that is engaged between the following rotating body and a front member provided in the driving rotating body, and biases the following rotating body with respect to the driving rotating body in an advance direction or a retarded direction, wherein the front member includes a plurality of bearing surfaces provided so as to be attached with countersunk head screws to the driving rotating body, and an engaging part that engages an end of the torsion coil spring with the torsion coil spring in a twisted state, characterized in that the engaging part includes a mounting part for a manipulating tool with which the end of the torsion coil spring is moved in a direction in which torsion strength of the torsion coil spring increases. a driving rotating body that rotates synchronously with a crankshaft of an internal combustion engine; a following rotating body that rotates integrally with a cam shaft of the internal combustion engine on the same rotation axis as the driving rotating body; a phase control mechanism that controls changing of relative rotational phases of the driving rotating body and the following rotating body; and a torsion coil spring that is engaged between the following rotating body and a front member provided in the driving rotating body, and biases the following rotating body with respect to the driving rotating body in an advance direction or a retarded direction, wherein the front member includes a plurality of bearing surfaces provided so as to be attached with countersunk head screws to the driving rotating body, and an engaging part that engages an end of the torsion coil spring with the torsion coil spring in a twisted state, characterized in that the engaging part includes a mounting part for a manipulating tool with which the end of the torsion coil spring is moved in a direction in which torsion strength of the torsion coil spring increases.
A method for determining the prognosis of a glioma, comprising: a step of detecting actin alpha cardiac muscle 1 (ACTC1) protein and/or mRNA encoding ACTC1 protein in a sample containing glioma collected from a patient, and a step of determining that the glioma has a poor prognosis when ACTC1 protein and/or mRNA encoding ACTC1 protein is detected in the detecting step.
Control method for adjusting a driving behaviour of an electric bicycle when pushing the electric bicycle, at least comprising the following steps • identifying activation of a pushing assistant by a user, • detecting a speed (v) of the electric bicycle, • ascertaining a steering angle (α) of a handlebar of the electric bicycle, • controlling an electric motor of a drive unit of the electric bicycle depending on the identified activation of the pushing assistant, the detected speed (v) and the ascertained steering angle (α) for adjusting the speed (v) and/or an acceleration (a) of the electric bicycle, characterized in that, • by controlling the electric motor, a speed (v) of the electric bicycle which continuously decreases as the magnitude of the steering angle (α) increases and/or an acceleration (a) of the electric vehicle which continuously decreases as the magnitude of the steering angle (α) increases is set, and/or, • by controlling the electric motor, a constant speed (v min) of the electric bicycle and/or a constant acceleration (a min) of the electric bicycle is set for a magnitude of the steering angle ( α) greater than or equal to a steering angle threshold value (SWa), and/or • the control of the electric motor is additionally performed depending on a plurality of predefined steering angle ranges (1, 2), wherein a speed (v) of the electric bicycle associated with the respective steering angle range (1, 2) and/or an acceleration (a) of the electric bicycle associated with the respective steering angle range (1, 2) is set by the control of the electric motor depending on a magnitude of the steering angle (α). • identifying activation of a pushing assistant by a user, • detecting a speed (v) of the electric bicycle, • ascertaining a steering angle (α) of a handlebar of the electric bicycle, • controlling an electric motor of a drive unit of the electric bicycle depending on the identified activation of the pushing assistant, the detected speed (v) and the ascertained steering angle (α) for adjusting the speed (v) and/or an acceleration (a) of the electric bicycle, characterized in that, • by controlling the electric motor, a speed (v) of the electric bicycle which continuously decreases as the magnitude of the steering angle (α) increases and/or an acceleration (a) of the electric vehicle which continuously decreases as the magnitude of the steering angle (α) increases is set, and/or, • by controlling the electric motor, a constant speed (v min) of the electric bicycle and/or a constant acceleration (a min) of the electric bicycle is set for a magnitude of the steering angle ( α) greater than or equal to a steering angle threshold value (SWa), and/or • the control of the electric motor is additionally performed depending on a plurality of predefined steering angle ranges (1, 2), wherein a speed (v) of the electric bicycle associated with the respective steering angle range (1, 2) and/or an acceleration (a) of the electric bicycle associated with the respective steering angle range (1, 2) is set by the control of the electric motor depending on a magnitude of the steering angle (α).
A communication method performed at an electronic device, the method comprising; receiving first identification information about an external electronic device through an auxiliary device that is connected with the electronic device, wherein the auxiliary device comprises at least one of an input pen, a keyboard device, a battery cover, or a decoration device; comparing the received first identification information to second identification information about the electronic device stored in the electronic device; connecting with the external electronic device through local communication based on at least one of the first identification information or the second identification information, if the first identification information and the second identification information are different from each other; and ending the local communication if a connection between the auxiliary device and the electronic device is released.
A method for detection of or determining an amount of microbial contamination in an aqueous preparation, the method comprising the steps of a) providing an aqueous preparation comprising at least one particulate material, b) providing at least one lytic agent, c) contacting the aqueous preparation of step a) with the at least one lytic agent of step b) at a concentration and for a time sufficient to lyse a microbial contamination present in the aqueous preparation such that ATP which is set free from the microbial contamination is dissolved in the aqueous preparation, and d) determining an amount of ATP content present in the aqueous preparation of step c), wherein the presence of microbial contamination is detected or the amount of microbial contamination is determined when the amount of ATP content is > 0, wherein the aqueous preparation of step a) has a solids content from 10.0 to 82.0 wt.-%, based on the total weight of the aqueous preparation, wherein the aqueous preparation of step a) is not diluted beyond a factor of 2 between method steps a) to d), and wherein the aqueous preparation is an aqueous suspension. a) providing an aqueous preparation comprising at least one particulate material, b) providing at least one lytic agent, c) contacting the aqueous preparation of step a) with the at least one lytic agent of step b) at a concentration and for a time sufficient to lyse a microbial contamination present in the aqueous preparation such that ATP which is set free from the microbial contamination is dissolved in the aqueous preparation, and d) determining an amount of ATP content present in the aqueous preparation of step c), wherein the presence of microbial contamination is detected or the amount of microbial contamination is determined when the amount of ATP content is > 0, wherein the aqueous preparation of step a) is not diluted beyond a factor of 2 between method steps a) to d), and wherein the aqueous preparation is an aqueous suspension.
A material comprising a transparent substrate coated with a stack of thin layers successively comprising, starting from the substrate, an alternation of only three silver-based functional metallic layers referred to, starting from the substrate, as first, second and third functional layers and of four dielectric coatings, referred to, starting from the substrate, as M1, M2, M3 and M4, each dielectric coating comprising at least one dielectric layer, so that each functional metallic layer is positioned between two dielectric coatings, characterized in that: - the thickness of the first functional layer is less than the thickness of the second functional layer, - the thickness of the first functional layer is less than the thickness of the third functional layer, - the thickness of the third functional metallic layer is between 13 and 18 nm, - the dielectric coatings M1 and M2 each have an optical thickness Eo1 and Eo2 satisfying the following equation: Eo2 < 1.1 Eo1, the has a light transmission of less than 60.0% and a light reflection on the external side of greater than or equal to 20.0%. - the thickness of the first functional layer is less than the thickness of the second functional layer, - the thickness of the first functional layer is less than the thickness of the third functional layer, - the thickness of the third functional metallic layer is between 13 and 18 nm, - the dielectric coatings M1 and M2 each have an optical thickness Eo1 and Eo2 satisfying the following equation: Eo2 < 1.1 Eo1,
A stable skin lightening/even toning composition for preventing or lessening pigmentation of normal human skin or of hyper-pigmented human skin, said composition comprising (i) a skin lightening effective amount of highly purified hexylresorcinol, (ii) optionally, from about 0.01 to about 20 weight percent of at least one other skin lightening agent, and (iii) a dermatologically acceptable carrier, wherein said hexylresorcinol has a purity of at least 99 wt % and a resorcinol content, if present, of no greater than 0.1 wt %.
A method of fabricating a pressure compensated insulated glass unit, the method comprising: a) providing a vented insulated glass unit having a first lite, a second lite, and a spacer between the first and second lites, wherein an electrochromic device coating is disposed on a surface of at least one of the lites, the spacer comprising one or more open vent ports; b) heating or cooling the vented insulated glass unit; c) introducing an inert gas into the interior volume of the heated or cooled, vented insulated glass unit via the one or more vent ports; and d) after introducing the inert gas in c), sealing the one or more open vent ports before the insulated glass unit comes to ambient temperature. a) providing a vented insulated glass unit having a first lite, a second lite, and a spacer between the first and second lites, wherein an electrochromic device coating is disposed on a surface of at least one of the lites, the spacer comprising one or more open vent ports; b) heating or cooling the vented insulated glass unit; c) introducing an inert gas into the interior volume of the heated or cooled, vented insulated glass unit via the one or more vent ports; and d) after introducing the inert gas in c), sealing the one or more open vent ports before the insulated glass unit comes to ambient temperature.
A method comprising: - receiving a route request, from a navigation device, between a starting location and a destination location; - determining, using a processor, a navigation route from the received route request; - encoding the navigation route with a sequence of path decisions comprising a path decision at each intersection between the starting location and the destination location, each path decision having a pair of values representing a number of outlets at the respective intersection and an outlet to-be-taken at the respective intersection; and - transmitting the encoded navigation route to the navigation device, wherein the processor of the navigation device is configured to use the number of outlets for a comparison of a respective intersection encoded in a map version of a provider of the encoded navigation route and a respective intersection identified in a map version of the navigation device. - receiving a route request, from a navigation device, between a starting location and a destination location; - determining, using a processor, a navigation route from the received route request; - encoding the navigation route with a sequence of path decisions comprising a path decision at each intersection between the starting location and the destination location, each path decision having a pair of values representing a number of outlets at the respective intersection and an outlet to-be-taken at the respective intersection; and - transmitting the encoded navigation route to the navigation device, wherein the processor of the navigation device is configured to use the number of outlets for a comparison of a respective intersection encoded in a map version of a provider of the encoded navigation route and a respective intersection identified in a map version of the navigation device.
A system for filtering signal interference from sensor signals associated with headers configured for use with agricultural vehicles, the system including a header comprising a frame and a powered component supported relative to the frame, the powered component comprising a reel of the header, the system also including a sensor configured to detect electromagnetic waves indicative of a parameter associated with the header, and an electronic control unit operably connected to the sensor such that the electronic control unit is configured to receive signals from the sensor associated with the detection of the electromagnetic waves, the electronic control unit being further configured to filter interference from the signals deriving from motion of the powered component relative to the sensor, the system being characterized in that it further comprises a speed sensor configured to measure a rotational speed of the reel, the electronic control unit being operably connected to the speed sensor such that the electronic control unit is configured to receive data from the speed sensor associated with the rotational speed of the reel, the electronic control unit being configured to filter the interference from the signals based at least in part on the measured rotational speed of the reel. an electronic control unit operably connected to the sensor such that the electronic control unit is configured to receive signals from the sensor associated with the detection of the electromagnetic waves, the electronic control unit being further configured to filter interference from the signals deriving from motion of the powered component relative to the sensor, the system being characterized in that it further comprises a speed sensor configured to measure a rotational speed of the reel, the electronic control unit being operably connected to the speed sensor such that the electronic control unit is configured to receive data from the speed sensor associated with the rotational speed of the reel, the electronic control unit being configured to filter the interference from the signals based at least in part on the measured rotational speed of the reel.
A method of receiving and storing content in a device, comprising: initiating delivery of content from at least one service to the device; receiving a user selection of a cache depth for a cache to store the content in the device, wherein the cache depth comprises a number of discrete content instances to store in the cache and is between zero and a maximum cache depth, wherein the maximum cache depth comprises a maximum number of discrete content instances that can be retained on the device for the at least one service; receiving the discrete content instances from the at least one service; storing the received discrete content instances in the cache, such that the total number of stored discrete content instances does not exceed the cache depth; and receiving a service information record from the at least one service, wherein the service information record comprises: a field specifying the maximum cache depth to be used by the device; and a field specifying the maximum size of a discrete content instance for the at least one service, wherein said maximum size of a discrete content instance and the selected cache depth is used by the device to calculate the size of the cache required. initiating delivery of content from at least one service to the device; receiving a user selection of a cache depth for a cache to store the content in the device, wherein the cache depth comprises a number of discrete content instances to store in the cache and is between zero and a maximum cache depth, wherein the maximum cache depth comprises a maximum number of discrete content instances that can be retained on the device for the at least one service; receiving the discrete content instances from the at least one service; storing the received discrete content instances in the cache, such that the total number of stored discrete content instances does not exceed the cache depth; and receiving a service information record from the at least one service, wherein the service information record comprises: a field specifying the maximum cache depth to be used by the device; and a field specifying the maximum size of a discrete content instance for the at least one service, wherein said maximum size of a discrete content instance and the selected cache depth is used by the device to calculate the size of the cache required. a field specifying the maximum cache depth to be used by the device; and a field specifying the maximum size of a discrete content instance for the at least one service, wherein said maximum size of a discrete content instance and the selected cache depth is used by the device to calculate the size of the cache required.
Arrangement, designed and configured for automatically removing a strip consisting of red meat, the so-called dark meat, from a fish fillet, comprising a conveying unit for transporting the fish fillet to be processed from an inlet area of the fish fillet into the arrangement to an outlet area of the fish fillet out of the arrangement in transport direction T along a transport path and, starting from the inlet area in the direction of the outlet area successively along the transport path, a first means for detecting red meat in the fish fillet to be processed, a first cutting apparatus for removing a middle, central partial strip of red meat from the fish fillet, a means for opening up the fish fillet freed from the middle partial strip in such a manner that the cut surfaces (F 1, F 2) of a ventral-side partial strip of red meat still attached to the fish fillet and of a dorsal-side partial strip of red meat still attached to the fish fillet, which are produced by the first cutting apparatus, point upwards away from the conveying unit, a cutting unit for removing the ventral-side and the dorsal-side partial strip of red meat from the fish fillet, the cutting unit comprising a second cutting apparatus for removing the ventral-side partial strip and a third cutting apparatus for removing the dorsal-side partial strip, as well as a control device, at least the means for identifying red meat and the three cutting apparatuses (21, 24, 25) being connected to the control device, in such a manner that all cuts can be made based on the data and/or information determined by the means for detecting red meat.
A multilayer non-oriented thermoformable packaging sheet comprising a first rigid component layer comprising a blend of an aromatic polyester and a styrenic polymer; a second rigid component layer comprising a blend of an aromatic polyester and a styrenic polymer; and a coextruded film positioned between and affixed to both the first and second rigid component layers; wherein the total amount of styrenic polymer present in the sheet relative to the total weight of the sheet is at least 3.0 % by weight; wherein the sheet has a thickness of at least 5 mil (127 μm) and a normalized impact strength of 0.16 ft*lbf/mil (8.54 mN*m/μm) or less total energy as measured in accordance with ASTM D3763-08 test method, and wherein the styrenic polymer comprises a general purpose polystyrene. a first rigid component layer comprising a blend of an aromatic polyester and a styrenic polymer; a second rigid component layer comprising a blend of an aromatic polyester and a styrenic polymer; and a coextruded film positioned between and affixed to both the first and second rigid component layers; wherein the total amount of styrenic polymer present in the sheet relative to the total weight of the sheet is at least 3.0 % by weight; wherein the sheet has a thickness of at least 5 mil (127 μm) and a normalized impact strength of 0.16 ft*lbf/mil (8.54 mN*m/μm) or less total energy as measured in accordance with ASTM D3763-08 test method, and