mhurhangee/ep-ind-claims huggingface dataset:
A semi-mounted reversible plow comprising an attachment frame, wherein the attachment frame has a plurality of link points (2, 3, 4) having upper and lower links to attach a tractor, as well as a plow frame carrying a plurality of plow bodies, wherein the plow frame is supported via a carriage with at least one wheel, wherein the plow frame is turned via a slewing gear with a rotational axis and turning arm into the repsective operating position of the plow frame, and wherein the plow frame is connected via an intermediate frame and as a whole is pivot-mounted in a horizontal direction to the attachment frame and free trailing around the upright standing axis connected to the tractor and the lower links (2, 3) with the attachment frame wherein a transverse axis is provided between the plow frame and the intermediate frame, around which the plow frame is arranged pivotably in vertical direction wherein an imaginary extension of the rotational axis is arranged to cross the plow frame in the operating position on a furrow side at a distance from a center of gravity of the plow frame and the plow bodies, characterized in that a hydraulic cylinder is arranged between plough frame and attachment frame in a distance to the transverse axis and is connected to the cross-member of the slewing gear and to the intermediate frame, wherein weight of the semi-mounted reversible plow can be transferred to the tractor wherein a torque is applied onto the plow frame around the transverse axis, wherein the imaginary extension of the rotational axis is arranged to cross the plow frame in the operating position always on a furrow side from the center of gravity of the plow frame and the draw frame is cardan-connected with the attachment frame or the intermediate frame and the travel gear and build as a torsion resistant stabilizer for fixing an upright position of the wheel.
An electrochemical lateral flow biosensor (ELFB) strip comprising: (a) a polymeric hydrophobic membrane, wherein said membrane provides a solid support and enables the capillary flow along the strip; (b) a conjugation pad, wherein said pad is placed over and in contact with said membrane at one end of the strip and contains the adsorbed dehydrated labelled conjugate particles, wherein said conjugate particles are coated with the biorecognition element of the assay and coated or filled with an electrochemically active component; (c) a sampling pad, wherein said pad is placed on top of and in contact with said conjugation pad and provides adsorption of the liquid sample; (d) a screen-printed electrode, wherein said electrode is coated with the immobilised capture antibodies; and (e) a wick pad, wherein said pad is placed on top and in contact with said screen-printed electrode and provides absorption of excess reagents maintaining a lateral flow along the strip. (a) a polymeric hydrophobic membrane, wherein said membrane provides a solid support and enables the capillary flow along the strip; (b) a conjugation pad, wherein said pad is placed over and in contact with said membrane at one end of the strip and contains the adsorbed dehydrated labelled conjugate particles, wherein said conjugate particles are coated with the biorecognition element of the assay and coated or filled with an electrochemically active component; (c) a sampling pad, wherein said pad is placed on top of and in contact with said conjugation pad and provides adsorption of the liquid sample; (d) a screen-printed electrode, wherein said electrode is coated with the immobilised capture antibodies; and (e) a wick pad, wherein said pad is placed on top and in contact with said screen-printed electrode and provides absorption of excess reagents maintaining a lateral flow along the strip.
An electron microscope that uses an electron beam of which spin direction is polarized, and of which polarized spin direction reverses over time, comprising: a laser; a polarization apparatus that polarizes a laser beam generated by the laser into a circularly polarized laser beam and that is capable of reversing the direction of the circular polarization over time; a semiconductor photocathode that is provided with a strained superlattice semiconductor layer and generates a polarized electron beam of which spin direction is polarized, when irradiated with the circularly polarized laser beam polarized by the polarization apparatus; a transmission electron microscope that utilizes the polarized electron beam generated by the semiconductor photocathode; an electron beam intensity distribution recording apparatus that is arranged at a face reached by the polarized electron beam that has transmitted through a sample; a reversal instruction apparatus that sends a signal to the polarization apparatus to reverse the direction of the circular polarization, and also sends in synchronization therewith a signal to the electron beam intensity distribution recording apparatus; and a difference acquisition apparatus that calculates a difference between an electron beam intensity distribution recorded by the electron beam intensity distribution recording apparatus before the reversal instruction apparatus sends the signal, and an electron beam intensity distribution recorded by the electron beam intensity distribution recording apparatus after the reversal instruction apparatus sends the signal. a laser; a polarization apparatus that polarizes a laser beam generated by the laser into a circularly polarized laser beam and that is capable of reversing the direction of the circular polarization over time; a semiconductor photocathode that is provided with a strained superlattice semiconductor layer and generates a polarized electron beam of which spin direction is polarized, when irradiated with the circularly polarized laser beam polarized by the polarization apparatus; a transmission electron microscope that utilizes the polarized electron beam generated by the semiconductor photocathode; an electron beam intensity distribution recording apparatus that is arranged at a face reached by the polarized electron beam that has transmitted through a sample; a reversal instruction apparatus that sends a signal to the polarization apparatus to reverse the direction of the circular polarization, and also sends in synchronization therewith a signal to the electron beam intensity distribution recording apparatus; and a difference acquisition apparatus that calculates a difference between an electron beam intensity distribution recorded by the electron beam intensity distribution recording apparatus before the reversal instruction apparatus sends the signal, and an electron beam intensity distribution recorded by the electron beam intensity distribution recording apparatus after the reversal instruction apparatus sends the signal.
An optical amplifier comprising: a pumping light source (21, 121) adapted to supply a pumping light to an optical fiber as an amplification medium; an ASE light power detector (41, 141) adapted to detect an ASE light power outside an amplification signal band of the amplification medium when pumped by the pumping light source, including an external ASE power flowing through the amplifier from an upstream side and adding up with the ASE power generated by the amplifier; and a control unit (C, C1000) adapted to control the pumping light source and to set initially a gain within the amplification signal band by using the ASE light power detected by the ASE light power detector outside the amplification signal band, wherein the control unit is adapted to control the pumping light source so as to compensate for an influence of the external ASE power to set initially the gain within the amplification signal band, and wherein the control unit is adapted to compensate for the influence of the external ASE power using a predetermined proportional relationship which is effective between the external ASE power outside the amplification signal band and the external ASE power within the amplification signal band and using a predetermined proportional relationship which is effective between the ASE power outside the amplification signal band and the ASE power within the amplification signal band when supplying the pumping light, the control unit being further adapted to obtain said predetermined proportional relationships by conducting a calibration process a pumping light source (21, 121) adapted to supply a pumping light to an optical fiber as an amplification medium; an ASE light power detector (41, 141) adapted to detect an ASE light power outside an amplification signal band of the amplification medium when pumped by the pumping light source, including an external ASE power flowing through the amplifier from an upstream side and adding up with the ASE power generated by the amplifier; and a control unit (C, C1000) adapted to control the pumping light source and to set initially a gain within the amplification signal band by using the ASE light power detected by the ASE light power detector outside the amplification signal band, wherein the control unit is adapted to control the pumping light source so as to compensate for an influence of the external ASE power to set initially the gain within the amplification signal band, and wherein the control unit is adapted to compensate for the influence of the external ASE power using a predetermined proportional relationship which is effective between the external ASE power outside the amplification signal band and the external ASE power within the amplification signal band and using a predetermined proportional relationship which is effective between the ASE power outside the amplification signal band and the ASE power within the amplification signal band when supplying the pumping light, the control unit being further adapted to obtain said predetermined proportional relationships by conducting a calibration process
Avalanche rescue system comprising a carrying system adapted to be carried on a users torso, and an air bag module to be carried by the carrying system, said air bag module having - a first air bag, a second air bag and a third air bag (18-3, 18-4), said air bags being collapsed in a normal state and expanded in an activated state, - an inflation apparatus being connected to the air bags to provide compressed gas to the air bags to inflate and expand the air bags, wherein the first air bag is adapted to expand at a first lateral side of the users torso, the second air bag is adapted to expand at a second lateral side of the users torso and the third air bag (18-3, 18-4) is adapted to expand in front of a chest or behind a back of the users torso. - a first air bag, a second air bag and a third air bag (18-3, 18-4), said air bags being collapsed in a normal state and expanded in an activated state, - an inflation apparatus being connected to the air bags to provide compressed gas to the air bags to inflate and expand the air bags,
Respiratory therapy apparatus including a device arranged to provide an alternating resistance to respiratory flow through the device and a sensor unit arranged to sense sound made by the device, characterised in that the sensor unit includes a processor arranged to compute a measure of pressure created in the device from a frequency of the sound by multiplying the detected frequency by a fixed factor and adding to the product a fixed constant.
Turbine blade for a gas turbine with a blade root and an aerodynamically curved blade leaf arranged above the blade root, wherein the blade leaf has a pressure-side blade wall and a suction-side blade wall which extend together from a leading edge, onto which a working medium can flow, of the blade leaf to a trailing edge of the blade leaf, wherein a plurality of cooling-air outlet openings are formed on the pressure-side blade wall which, starting from the trailing edge, each extend upstream relative to the direction of flow of a working medium which flows around the blade leaf and through which cooling air routed through the inside of the blade leaf can issue, wherein at least one of the cooling-air outlet openings has an essentially rectangular or trapezoidal shape with rounded corners which preferably widens out in the direction in which the cooling air issues, characterized in that at least the lower corner, facing the leading edge, of this at least one cooling-air outlet opening forms a relief notch which projects outward from the rectangular shape and has a rounded notch base.
A multi-pipe external-heating coal decomposition equipment, comprising an airtight non-rotating kiln body; wherein a channel for impelling and decomposing coal is formed in the non-rotating kiln body, the channel has a coal inlet, a coal outlet, a collecting pipe for coal decomposition gas, and an impelling board arranged in the channel for pushing the coal forth; the channel is connected with a support rotating facility formed outside of the non-rotating kiln body for rotating the channel, the support rotating facility is mechanically connected with both ends of the channel extending outside of the non-rotating kiln body, the mechanical connection being a gear connection or a chain connection; a heat transfer chamber is formed between the channel and an inner wall of the non-rotating kiln body, which is connected with a gas heating facility provided outside the non-rotating kiln body and comprises a heated gas outlet; the gas heating facility comprises a fuel supply pipe, an air supply pipe and a combustor chamber; the heated gas outlet is provided at a side of heat transfer chamber far from the gas heating facility and is used to preheat coal through pipes; the channel is composed by multiple parallel close-packed pipes, the rotation of each of the pipes is controlled by the support rotating facility, one end of each of the pipes has a feed cabinet to communicate with the coal inlet, and the other end of each of the pipes has an output cabinet to communicate with the coal outlet.
A control system comprising: a terminal operated by a user comprising: a first acquisition unit configured to acquire designated work information which includes information designating target object to be transported and information designating a transport destination of the target object, indicating details of work performed by a movable body, such details including information of the target object unloaded from a vehicle V, information of the transport destination area AR1 in which the target object is placed and information of the transport route R on which the target object P is transported; an output unit configured to output the designated work information to a computation device; a second acquisition unit configured to acquire, from the computation device, set work information which is information of the set transport route including the transport route generated based on the information of a transport route designated by the user, indicating the details of the work performed by the movable body generated based on the designated work information; and a display control unit configured to display the set work information on a display unit; the computation device configured to set the set work information based on the designated work information, and output the set work information set; and the movable body configured to perform work based on the set work information. a first acquisition unit configured to acquire designated work information which includes information designating target object to be transported and information designating a transport destination of the target object, indicating details of work performed by a movable body, such details including information of the target object unloaded from a vehicle V, information of the transport destination area AR1 in which the target object is placed and information of the transport route R on which the target object P is transported; an output unit configured to output the designated work information to a computation device; a second acquisition unit configured to acquire, from the computation device, set work information which is information of the set transport route including the transport route generated based on the information of a transport route designated by the user, indicating the details of the work performed by the movable body generated based on the designated work information; and a display control unit configured to display the set work information on a display unit; the computation device configured to set the set work information based on the designated work information, and output the set work information set; and the movable body configured to perform work based on the set work information.
A method of enhancing the tonal and spatial characteristics of a digital image, comprising the steps of: a) receiving a source digital image including a plurality of pixels wherein the source digital image is in a luminance-chrominance representation having a luminance digital image channel and at least two chrominance digital image channels; b) generating a tone scale function that can be used to enhance the tonal characteristics of the source digital image; c) classifying the tone scale function into one of two or more categories wherein the classification categories include expansive and compressive; d) using the tone scale function, a spatial filter, and the luminance digital image channel to generate an enhanced luminance digital image channel when the tone scale function has been classified as compressive; and e) using the tone scale function and the luminance digital image channel to generate an enhanced luminance digital image channel when the tone scale function has been classified as expansive. a) receiving a source digital image including a plurality of pixels wherein the source digital image is in a luminance-chrominance representation having a luminance digital image channel and at least two chrominance digital image channels; b) generating a tone scale function that can be used to enhance the tonal characteristics of the source digital image; c) classifying the tone scale function into one of two or more categories wherein the classification categories include expansive and compressive; d) using the tone scale function, a spatial filter, and the luminance digital image channel to generate an enhanced luminance digital image channel when the tone scale function has been classified as compressive; and e) using the tone scale function and the luminance digital image channel to generate an enhanced luminance digital image channel when the tone scale function has been classified as expansive.
Safety system for a wind turbine with a pitch system which comprises several drive systems (15, 16, 17) and a minimum of one safety switching device by means of which, depending on a minimum of one control signal, each of the drive systems (15, 16, 17) can be actuated to execute a travel path to a safe position, - a safety circuit provided in a machine part adjacent to the pitch system which encompasses a transmission device and a controller using which a minimum of one control signal can be generated, which can be transmitted by means of the transmission device from the controller to the safety switching device, whereby - the control signal can be generated and/or emitted by the controller in the form of a minimum of two control signals (EFC 1, EFC 2), the control signals (EFC 1, EFC 2) can be transmitted by the transmission device from the controller to the safety switching device, - by means of the safety switching device through evaluation of the control signals (EFC 1, EFC 2) a safety-relevant fault in a safety circuit can be detected and if such a fault is present, each of the drive systems (15, 16, 17) can be actuated to execute a travel path to the safe position, characterized in that - the pitch system can be rotated relative to the adjacent machine part and the transmission device is a rotary transmission device, - a minimum of two test signals can be generated by the safety switching device, - the test signals can be transmitted from the safety switching device to the controller by means of the transmission device, - the control signals (EFC1, EFC 2) can be formed from the test signals by means of the controller. - a safety circuit provided in a machine part adjacent to the pitch system which encompasses a transmission device and a controller using which a minimum of one control signal can be generated, which can be transmitted by means of the transmission device from the controller to the safety switching device, whereby - the control signal can be generated and/or emitted by the controller in the form of a minimum of two control signals (EFC 1, EFC 2), the control signals (EFC 1, EFC 2) can be transmitted by the transmission device from the controller to the safety switching device, - by means of the safety switching device through evaluation of the control signals (EFC 1, EFC 2) a safety-relevant fault in a safety circuit can be detected and if such a fault is present, each of the drive systems (15, 16, 17) can be actuated to execute a travel path to the safe position, - the pitch system can be rotated relative to the adjacent machine part and the transmission device is a rotary transmission device, - a minimum of two test signals can be generated by the safety switching device, - the test signals can be transmitted from the safety switching device to the controller by means of the transmission device, - the control signals (EFC1, EFC 2) can be formed from the test signals by means of the controller.
A method for extracting proanthocyanidin-type polyphenols from Cranberry juice (Vaccinium macrocarpon) which consists in: - first of all, eliminating the inert substances contained in this juice by dilution of the concentrated juice with water, - fixing the proanthocyanidin-type polyphenols on a polymeric adsorbent material of the styrene / divinyl benzene type, - rinsing the resin column with water, - stopping the rinsing of the column when the dry matter content in the rinsing liquid has a very low value, - eluting the proanthocyanidin-type polyphenols fixed on the resin column with aqueous ethanol, - collecting the ethanolic eluate which is subjected to vacuum evaporation by regularly adding water during the evaporation to obtain a concentrated juice, so that at the end of evaporation of the alcohol the proanthocyanidin-type polyphenols are in a purely aqueous medium, - evaporating the aqueous phase by high vacuum distillation and - finally obtaining the proanthocyanidin-type polyphenols concentrate in a pulverulent form, containing at least 20% of total proanthocyanidins. - first of all, eliminating the inert substances contained in this juice by dilution of the concentrated juice with water, - fixing the proanthocyanidin-type polyphenols on a polymeric adsorbent material of the styrene / divinyl benzene type, - rinsing the resin column with water, - stopping the rinsing of the column when the dry matter content in the rinsing liquid has a very low value, - eluting the proanthocyanidin-type polyphenols fixed on the resin column with aqueous ethanol, - collecting the ethanolic eluate which is subjected to vacuum evaporation by regularly adding water during the evaporation to obtain a concentrated juice, so that at the end of evaporation of the alcohol the proanthocyanidin-type polyphenols are in a purely aqueous medium, - evaporating the aqueous phase by high vacuum distillation and - finally obtaining the proanthocyanidin-type polyphenols concentrate in a pulverulent form, containing at least 20% of total proanthocyanidins.