mhurhangee/ep-ind-claims huggingface dataset:
Method for harvesting threshed crops, with the following method steps: a) reaping and picking up the threshed crops, b) threshing out and separating the grain/chaff mixture from the total straw fraction, and c) feeding the grain/chaff mixture into a hopper, characterized by the following method steps: d) chopping the total straw fraction and separating the latter into a first and a second straw fraction (5.1, 5.2), e) depositing the first straw fraction (5.1) on the field, f) comminuting the second straw fraction (5.2), g) mixing the second straw fraction (5.2) and the grain/chaff mixture to form a mixture of grains, chaff and second straw fraction, and entering the mixture into a hopper, and h) transferring the mixture of grains, chaff and second straw fraction from the hopper into a transport vehicle or depositing the mixture of grains, chaff and second straw fraction on the field. a) reaping and picking up the threshed crops, b) threshing out and separating the grain/chaff mixture from the total straw fraction, and c) feeding the grain/chaff mixture into a hopper, characterized by the following method steps: d) chopping the total straw fraction and separating the latter into a first and a second straw fraction (5.1, 5.2), e) depositing the first straw fraction (5.1) on the field, f) comminuting the second straw fraction (5.2), g) mixing the second straw fraction (5.2) and the grain/chaff mixture to form a mixture of grains, chaff and second straw fraction, and entering the mixture into a hopper, and h) transferring the mixture of grains, chaff and second straw fraction from the hopper into a transport vehicle or depositing the mixture of grains, chaff and second straw fraction on the field.
A method applied to one or more components of a drive shaft (14U, 14L) of an aircraft, the method comprising: obtaining data based on samples of a vibration signal from at least one sensor configured to measure vibration; processing, by at least one processor, the data including converting the vibration signal into a frequency domain signal, extracting a shaft order based feature from the frequency domain signal, and comparing the shaft order based feature extracted from the frequency domain signal with a threshold established from a healthy drive shaft to obtain a qualitative and quantitative assessment of a health of the one or more components of the drive shaft of the aircraft with detection of a condition indicator based on an application of the data to at least one physics-based model, wherein processing the data further comprises sampling, time-stamping and segmenting the vibration signals into a plurality of segments representative of a revolution of the drive shaft (14U, 14L) based on a nominal speed of the drive shaft as part of processing the data, resampling the vibration signal segments from constant time based sampling to constant angular based sampling, and averaging the resampled segments as part of processing the data; and outputting the assessment. obtaining data based on samples of a vibration signal from at least one sensor configured to measure vibration; processing, by at least one processor, the data including converting the vibration signal into a frequency domain signal, extracting a shaft order based feature from the frequency domain signal, and comparing the shaft order based feature extracted from the frequency domain signal with a threshold established from a healthy drive shaft to obtain a qualitative and quantitative assessment of a health of the one or more components of the drive shaft of the aircraft with detection of a condition indicator based on an application of the data to at least one physics-based model, wherein processing the data further comprises sampling, time-stamping and segmenting the vibration signals into a plurality of segments representative of a revolution of the drive shaft (14U, 14L) based on a nominal speed of the drive shaft as part of processing the data, resampling the vibration signal segments from constant time based sampling to constant angular based sampling, and averaging the resampled segments as part of processing the data; and outputting the assessment.
A profile connector (20, 30), including • a base (21, 31), and • two elastically deformable projections (22, 32), which start at the base (21, 31) and extend in a same direction (+x), characterized in that • the base (21, 31) has recesses or slots, which border the respective one of the two projections (22, 32), and the recesses (21 b) or the slots extend in the direction away from the projections (22, 32). • a base (21, 31), and • two elastically deformable projections (22, 32), which start at the base (21, 31) and extend in a same direction (+x), • the base (21, 31) has recesses or slots, which border the respective one of the two projections (22, 32), and the recesses (21 b) or the slots extend in the direction away from the projections (22, 32).
Vehicle for passenger transport, preferably a train or a bus, comprising: a) a passenger compartment, which comprises passenger seats and which is limited upwards by a passenger compartment ceiling and laterally at least in sections by a window surface; and b) a luggage rack, preferably an overhead luggage rack, arranged above the passenger seats, comprising: b 1) a, preferably horizontal, support member extending in the longitudinal direction of the vehicle for accommodating luggage, which is arranged at the height of the window surface; and b 2) a mount, by which the support member is mounted to the passenger compartment ceiling; wherein the mount of the luggage rack is open in at least some sections for a view from the passenger compartment to the outside; characterized in that the window surface, for the view from the passenger compartment where the mount is open, is a panoramic window surface, comprising a first panoramic window section oriented substantially in the vehicle height direction and a second panoramic window section which is curved and/or inclined with respect to the first panoramic window section and which connects the first panoramic window section to a vehicle roof. a) a passenger compartment, which comprises passenger seats and which is limited upwards by a passenger compartment ceiling and laterally at least in sections by a window surface; and b) a luggage rack, preferably an overhead luggage rack, arranged above the passenger seats, comprising: b 1) a, preferably horizontal, support member extending in the longitudinal direction of the vehicle for accommodating luggage, which is arranged at the height of the window surface; and b 2) a mount, by which the support member is mounted to the passenger compartment ceiling; b 1) a, preferably horizontal, support member extending in the longitudinal direction of the vehicle for accommodating luggage, which is arranged at the height of the window surface; and b 2) a mount, by which the support member is mounted to the passenger compartment ceiling; wherein the mount of the luggage rack is open in at least some sections for a view from the passenger compartment to the outside; characterized in that the window surface, for the view from the passenger compartment where the mount is open, is a panoramic window surface, comprising a first panoramic window section oriented substantially in the vehicle height direction and a second panoramic window section which is curved and/or inclined with respect to the first panoramic window section and which connects the first panoramic window section to a vehicle roof.
Method of electrochemical production of synthesis gas, comprising the following steps: - reducing carbon dioxide (CO 2) to a first product gas comprising carbon monoxide in a carbon dioxide electrolysis cell, - splitting water to give a second product gas comprising hydrogen (H 2) in a water electrolysis cell, wherein a first catholyte is guided from the carbon dioxide electrolysis cell and/or a second catholyte from the water electrolysis cell into a gas scrubbing apparatus, and the first product gas is freed of non-reduced carbon dioxide (CO 2) in the gas scrubbing apparatus by means of the first catholyte and/or second catholyte as absorbent wherein the first product gas and the second product gas are combined. - reducing carbon dioxide (CO 2) to a first product gas comprising carbon monoxide in a carbon dioxide electrolysis cell, - splitting water to give a second product gas comprising hydrogen (H 2) in a water electrolysis cell, wherein a first catholyte is guided from the carbon dioxide electrolysis cell and/or a second catholyte from the water electrolysis cell into a gas scrubbing apparatus, and the first product gas is freed of non-reduced carbon dioxide (CO 2) in the gas scrubbing apparatus by means of the first catholyte and/or second catholyte as absorbent wherein the first product gas and the second product gas are combined.
A shelf assembly for products to be placed in a space, which at least is limited in depth by a rear boundary surface and laterally by lateral boundary surfaces (3, 4), the shelf assembly having a shelving section with a front and a rear, which shelving section comprises a shelf, the shelving section being rotatable about an axis of rotation between a display position, in which the shelf is accessible from the front of the shelving section, and a refill position, in which the shelf is accessible from the rear of the shelving section, wherein the shelf assembly further comprises a support, which comprises a sledge rotatably supporting the shelving section, and being movable in depth of the space, in a forward-rearward direction, and an arm having a first end pivotally connected with the shelving section at a bottom end thereof, at a distance from the axis of rotation, and having a second end pivotally connected with a fixed portion of the support, such that when the shelving section is rotated from the display position to the refill position, due to the arm, which is pivoting during the rotation, the sledge is first moved forwards a distance from a starting position, and then rearwards back to its starting position, and wherein the shelving section further comprises a frame having opposite first and second side posts (17, 18), wherein the shelf is mounted between the side posts at an arbitrary height, wherein the shelf is provided with a respective clamping portion at opposite ends of the shelf, wherein the clamping portions fix the shelf at the side posts, wherein each clamping portion comprises a hook portion engaged with a respective side post at a first surface thereof, and a tightening portion engaged with an opposite second surface of the side post, whereby the side post is clamped between the hook portion and the tightening portion, and wherein the tightening portion is untightenable for arbitrary height movement of the shelf.
A luminaire having a light source (13, 100), a deflecting element arranged in front of the light source in the direction of the radiated light and symmetrical with respect to a symmetry reference for deflecting the light beams coming from the light source, and means for positioning the light source outside the symmetry reference in such a way that the light cone emitted by the luminaire can be varied in an exterior space, wherein the luminaire comprises a plurality of electrically controllable light sources for positioning the light cone of the luminaire, characterized in that the deflecting element is a rotationally symmetrical lens and the symmetry reference is an axis of symmetry, wherein the lateral surface of the lens is provided with a reflective coating.
A method for estimating fluid saturation of a hydrocarbon-bearing rock from a rock image, comprising: - obtaining a 3D image of a rock from the hydrocarbon-bearing formation in the field, wherein the 3D image is comprised of a plurality of voxels and the 3D image has a resolution; - processing the 3D image to segment the 3D image by selecting each voxel of the 3D image to represent either a pore space in the rock or solid material in the rock; - estimating an image pore volume of the rock from the segmented 3D image, the image pore volume lacking a sub-resolution pore volume of the rock; and - determining a corrected pore volume adapted to account for the sub-resolution pore volume of the rock; characterized by - estimating an image-derived wetting fluid saturation (12, 14) of the rock using a direct flow simulation on the 3D image; and - determining a corrected wetting fluid saturation (16, 18) of the rock from the image-derived wetting fluid saturation (12, 14), the image pore volume and the corrected pore volume of the rock. - obtaining a 3D image of a rock from the hydrocarbon-bearing formation in the field, wherein the 3D image is comprised of a plurality of voxels and the 3D image has a resolution; - processing the 3D image to segment the 3D image by selecting each voxel of the 3D image to represent either a pore space in the rock or solid material in the rock; - estimating an image pore volume of the rock from the segmented 3D image, the image pore volume lacking a sub-resolution pore volume of the rock; and - determining a corrected pore volume adapted to account for the sub-resolution pore volume of the rock; characterized by - estimating an image-derived wetting fluid saturation (12, 14) of the rock using a direct flow simulation on the 3D image; and - determining a corrected wetting fluid saturation (16, 18) of the rock from the image-derived wetting fluid saturation (12, 14), the image pore volume and the corrected pore volume of the rock.
A solar module support, comprising: a substrate; and characterized by: a first switching circuit configured in the substrate, comprising: two L-shaped wire segments; two resilient members; and a bridging wire segment; and a first solar module socket disposed in the substrate for installing a first solar cell module, wherein when the first solar cell module is engaged with the first solar module socket, the resilient members are pressed down so that the L-shaped wire segments are separated from the bridging wire segment and a first current passes through the first solar cell module, and when the first solar cell module detaches from the first solar module socket, the resilient members return to their original respective positions so that the L-shaped wire segments connect to the bridging wire segment and a second current passes through the first switching circuit. a first switching circuit configured in the substrate, comprising: two L-shaped wire segments; two resilient members; and a bridging wire segment; and two L-shaped wire segments; two resilient members; and a bridging wire segment; and a first solar module socket disposed in the substrate for installing a first solar cell module, wherein when the first solar cell module is engaged with the first solar module socket, the resilient members are pressed down so that the L-shaped wire segments are separated from the bridging wire segment and a first current passes through the first solar cell module, and when the first solar cell module detaches from the first solar module socket, the resilient members return to their original respective positions so that the L-shaped wire segments connect to the bridging wire segment and a second current passes through the first switching circuit.
Process for producing a transparent optical component having cells filled with optical material, said process comprising the following steps: /1/ obtaining a base optical component comprising a set of cells that are separated and juxtaposed parallel to a surface of said component, each cell being open with an opening cross section parallel to the surface of the component; and /2/ introducing an optical material inside each cell up to a mean filling level (h 1,..., h 5) determined for said cell, and measured along a direction perpendicular to the surface of the component, the process being characterized in that random or pseudo-random variations of the mean filling levels of the cells (h 1,..., h 5) are intentionally introduced between at least some of the cells of the component, so as to reduce a light scattering in order to improve a transparency of said component, and in that the variations of the filling levels (h 1,..., h 5) between different cells of the component are determined so that phase shifts experienced by visible light rays (R 1,..., R 5) respectively passing through the cells along said direction perpendicular to the surface of the component have a root mean square deviation of less than a quarter of a wavelength (λ) of said light. /1/ obtaining a base optical component comprising a set of cells that are separated and juxtaposed parallel to a surface of said component, each cell being open with an opening cross section parallel to the surface of the component; and /2/ introducing an optical material inside each cell up to a mean filling level (h 1,..., h 5) determined for said cell, and measured along a direction perpendicular to the surface of the component,
Power tool, comprising an electric motor, a motor control unit for operating the electric motor, an input interface for inputting a target value of an operating state of the electric motor into the motor control unit and a motor sensor device for detecting the operating state of the electric motor, wherein a secondary control unit independent of the motor control unit is provided, which is connected for communication with the motor sensor device and with the input interface and is set up to compare the operating state of the electric motor detected by the motor sensor device with the target specification input via the input interface and to switch off the electric motor in the event of a defined deviation of the operating state from the target specification by means of a control device, characterised in that the control device comprises a computer program product executed within the motor control unit with program code means of safety class B in order to provide a redundant switch-off path, and wherein the auxiliary control unit is arranged to transmit an error signal for switching off the electric motor directly to the control device of the motor control unit.
A method for obtaining IPv6 configuration information in an IPv6 transition network, wherein the network comprises a user side device, an IPv4 network, and an IPv6 network, the user side device is connected to the IPv4 network, and the user side device supports an IPv6 rapid deployment, 6rd technology or supports an IPv4-based IPv6 technology, comprising: receiving, by an apparatus for providing IPv6 configuration information in the IPv4 network, an IPv6 configuration information obtaining request packet sent by the user side device, wherein the IPv6 configuration information obtaining request packet is a DHCPv4 packet, and comprises identification information, and the identification information is used to identify IPv6 configuration information that the IPv6 configuration information obtaining request packet requests to obtain, the IPv6 configuration information obtaining request being a request to obtain the IPv6 address of a DNS server in the IPv6 network or a request to obtain the IPv6 address of a DHCPv6 server in the IPv6 network; and sending, by the apparatus for providing IPv6 configuration information, a response packet to the user side device, wherein the response packet is a DHCPv4 packet, and carries the IPv6 configuration information that the IPv6 configuration information obtaining request packet requests to obtain. receiving, by an apparatus for providing IPv6 configuration information in the IPv4 network, an IPv6 configuration information obtaining request packet sent by the user side device, wherein the IPv6 configuration information obtaining request packet is a DHCPv4 packet, and comprises identification information, and the identification information is used to identify IPv6 configuration information that the IPv6 configuration information obtaining request packet requests to obtain, the IPv6 configuration information obtaining request being a request to obtain the IPv6 address of a DNS server in the IPv6 network or a request to obtain the IPv6 address of a DHCPv6 server in the IPv6 network; and sending, by the apparatus for providing IPv6 configuration information, a response packet to the user side device, wherein the response packet is a DHCPv4 packet, and carries the IPv6 configuration information that the IPv6 configuration information obtaining request packet requests to obtain.
Composition comprising plant-derived miRNA molecule plant-miR-20 or its synthetic equivalents for use in the therapy of leukemia, wherein plant-miR20 is represented by SEQ. ID No. 1.
Double-walled dinner plate having a cavity which is at least partially filled with a phase change material that stores or radiates thermal energy as latent heat by phase transformation from a solid to a liquid state or from a liquid to a solid state, characterized in that a sponge-like polymer structure is provided in the cavity, in which the phase change material is enclosed.
A connector (500; 1100) for connecting a dialyser to a fluid-carrying line (3, 9, 10, 12), wherein the connector (500; 1100) includes a coupling portion (15, 33), especially a male Hansen connector portion, for fluid-tight connection to a connector element, especially a female Hansen connector adapter, of the line (3, 9, 10, 12), wherein in a flow channel (16; 24) of the connector, a shut-off device is integrated which shuts off the flow cross-section of the flow channel (16, 24) below a predetermined pressure, characterized in that the shut-off device is to be opened in a pressure-dependent manner and independently of the flow direction by an applied fluid pressure difference.
A process for the detection or quantitative determination of an inhibitor of a peptidase of the hemostatic system in a sample, wherein said peptidase of the hemostatic system is a coagulation factor selected from the group consisting of factors IIa (thrombin), VIIa, IXa, Xa, XIa, and fragments and mutants of the mentioned peptidases showing at least 80% of the capability of the mentioned peptidases of converting their substrates of the coagulation system enzymatically, and said sample is selected from blood, plasma, serum, cerebrospinal fluid, urine, sweat or another fluid, comprising contacting the inhibitor in the sample with said peptidase of the hemostatic system coupled to a polymer; wherein said polymer is a polyalkylene glycol or a copolymer including alkylene glycol units, and wherein said peptidase of the hemostatic system loses its reactivity in the coagulation system because of the polymer coupling, but is still able to neutralize inhibitors of the coagulation system with a molecular weight of from 100 to 2,500 Da and to convert substrates of the coagulation system with a molecular weight of from 100 to 2,500 Da enzymatically, and either (i) measuring the activity of the polymer-coupled peptidase after having been contacted with the inhibitor in the sample, and comparing the activity of the coupled peptidase after said contacting with the sample with one or more reference values in order to determine an inhibition of the activity, if any; or (ii) measuring the clotting time of the sample after having been contacted with the coupled peptidase, and comparing the clotting time with one or more reference values in order to determine a change of the clotting time, if any. (i) measuring the activity of the polymer-coupled peptidase after having been contacted with the inhibitor in the sample, and comparing the activity of the coupled peptidase after said contacting with the sample with one or more reference values in order to determine an inhibition of the activity, if any; or (ii) measuring the clotting time of the sample after having been contacted with the coupled peptidase, and comparing the clotting time with one or more reference values in order to determine a change of the clotting time, if any.