mhurhangee/ep-ind-claims huggingface dataset:
Double valve intended to cooperate with a lid of an anti-spill cup for a child, having a first valve for the introduction of air, and a second valve for the passage of a liquid, said first valve comprising a base, an intermediate part referred to as the "body", and a duckbill-shaped flap-valve, and said second valve comprising a base and a body and having an upper outer surface which is at least partly concave and forms a flap-valve which allows the passage of the said liquid, the said first and second valves (2, 3) being connected by a linking portion, characterised in that the said first and second valves (2, 3) are oriented in opposite directions (SENS1, SENS2), the direction of a valve (2, 3) being defined from its base (21, 35) towards its flap-valve (23, 32), and in that the said linking portion extends between the said body and the said duckbill-shaped flap-valve of the first valve, and in that the height of the said duckbill-shaped flap-valve is substantially smaller than the height of the said body of the second valve, so that, when the base of the second valve is resting on a surface, the said duckbill-shaped flap-valve is not in contact with the said surface.
A method for transmitting data, comprising receiving, by a terminal device, first resource indication information transmitted by a network device, wherein the first resource indication information indicates a first frequency domain resource for transmitting a target channel in at least one time domain resource unit, time domain resources for transmitting the target channel on a plurality of frequency domain resource units of the first frequency domain resource are the same, and the target channel comprises a data channel or a control channel of the terminal device; and receiving, by the terminal device, second resource indication information transmitted by the network device, wherein the second resource indication information indicates a time domain resource for transmitting the target channel on each of a plurality of frequency domain resource units of a second frequency domain resource in the at least one time domain resource unit, time domain resources for transmitting the target channel on the plurality of frequency domain resource units of the second frequency domain resource are at least partially different, and the second frequency domain resource is other frequency domain resource that can be used for channel transmission other than the first frequency domain resource; wherein the method further comprises: receiving, by the terminal device, information of the same time domain resource transmitted by the network device, and the information of the same time domain resource comprises: a starting symbol for the terminal device to transmit the target channel in the at least one time domain resource unit, a number of symbols for transmitting the target channel in the at least one time domain resource unit, a mini-slot for transmitting the target channel in the at least one time domain resource unit and a number of mini-slots for transmitting the target channel in the at least one time domain resource unit; wherein the receiving, by a terminal device, first resource indication information transmitted by the network device includes: receiving, by the terminal device, the first resource indication information transmitted by the network device through system information or radio resource control signaling; and the terminal device receives, only in part of the frequency domain resources, indication information transmitted by the network device for respectively indicating the time domain resource for transmitting the target channel on each frequency domain resource unit.
Electric fluid pump having a pump shaft with an axis and having an electric pump drive which is designed as a wet section and has a rotor arranged on the shaft and a stator surrounding said rotor across an annular gap, wherein the rotor is provided with means which, during rotary operation thereof, produce an at least partially axially directed fluid flow in the wet section of the pump drive wherein the means for producing the at least partially axially directed fluid flow comprise a rotor cavity allowing an axial flow through the rotor wherein openings (14, 15) for the cavity are formed on the two rotor ends, wherein an opening on one end is situated radially further out than an opening on the opposite end, wherein the openings (14, 15) are formed by holes in the rotor end walls, wherein the rotor has a cylindrical shape and has a multiplicity of cavities, which are arranged at circumferential spacings, are separated from one another by webs and are each provided with an opening at one end, characterized in that the rotor has cavities triangular in cross section separated from one another by spoke-shaped webs.
A method for classifying a sequence of input images representing a target particle (11a-11f) in a sample over time, the method being characterised in that it comprises the implementation, by data processing means of a client, the following steps: (b) concatenating said input images of the sequence in the form of a three-dimensional stack; (c) Direct classifying said three-dimensional stack by means of a convolution neural network, CNN, said CNN being composed of a succession of convolution blocks composed of a so-called 3D convolution layer, applying to an input feature map of dimension four filters of dimension four so as to generate an output feature map of dimension four, an activation layer and a 3D pooling layer, then a flattening layer, and finally one or more fully connected layers, the succession of convolution blocks comprising at least two convolution blocks, including a first block and a second block, the 3D convolution layer of the first block applying 30 filters of dimension 3x3x3x1 and the 3D convolution layer of the second block applying 60 filters of dimension 3x3x3x30. (b) concatenating said input images of the sequence in the form of a three-dimensional stack; (c) Direct classifying said three-dimensional stack by means of a convolution neural network, CNN, said CNN being composed of a succession of convolution blocks composed of a so-called 3D convolution layer, applying to an input feature map of dimension four filters of dimension four so as to generate an output feature map of dimension four, an activation layer and a 3D pooling layer, then a flattening layer, and finally one or more fully connected layers,
Galley system, comprising: - at least one electrically operated galley device, - at least one fuel cell, - a plurality of compartments (6, 20) for housing the galley devices, and - an air extraction means, wherein at least one of the plurality of compartments (6, 20) comprises at least one air extraction port (9, 13) coupled with the air extraction means, wherein said at least one compartment (6, 20) is adapted for housing the at least one fuel cell and for removing at least a part of heat emanated from said at least one fuel cell through the air extraction means, and wherein at least one of the at least one electrically operated galley device is electrically coupled with the at least one fuel cell unit, characterized in that the air extraction means is an already existing air extraction means installed in a galley system, allowing to draw of at least a part of heat generated in the fuel cell process during the air extraction by constantly providing a sufficient flow of air with a comparably low temperature over a heat dissipating surface in thermal contact with said fuel cell. - at least one electrically operated galley device, - at least one fuel cell, - a plurality of compartments (6, 20) for housing the galley devices, and - an air extraction means,
An electrically operated actuator for operating a window sash of a roof window which is pivotally suspended from a window frame by a horizontal pivot axis, said actuator being configured to pivot said window sash between at least an open position and a fully closed position, said actuator comprising an electronic control unit controlling the operation of said actuator by means of an electric drive motor, the speed of said electric drive motor and/or the position of said window sash being detected by a position sensor of the electrically operated actuator, said electronic control unit being configured to monitor an electric current directly consumed by said electric drive motor, and/or to calculate and monitor a rate of change over time in said electric current consumed by said electric drive motor, said electric current or said rate of change in said electric current being an indicator of a closing force applied onto said window sash by said actuator, said actuator being adapted to perform a first closing operation while said electronic control unit monitors said indicator of a closing force, said actuator being adapted to initiate a first reversing operation upon said indicator of closing force exceeding a threshold during said first closing operation, and said actuator being characterised in that it is configured to initiate a subsequent, second closing operation after said first reversing operation, said threshold being selected from a plurality of predetermined thresholds in response to the speed of said electric drive motor and/or the position of said window sash. said actuator being configured to pivot said window sash between at least an open position and a fully closed position, said actuator comprising an electronic control unit controlling the operation of said actuator by means of an electric drive motor, the speed of said electric drive motor and/or the position of said window sash being detected by a position sensor of the electrically operated actuator, said electronic control unit being configured to monitor an electric current directly consumed by said electric drive motor, and/or to calculate and monitor a rate of change over time in said electric current consumed by said electric drive motor, said electric current or said rate of change in said electric current being an indicator of a closing force applied onto said window sash by said actuator, said actuator being adapted to perform a first closing operation while said electronic control unit monitors said indicator of a closing force, said actuator being adapted to initiate a first reversing operation upon said indicator of closing force exceeding a threshold during said first closing operation, and said actuator being characterised in that it is configured to initiate a subsequent, second closing operation after said first reversing operation, said threshold being selected from a plurality of predetermined thresholds in response to the speed of said electric drive motor and/or the position of said window sash.
Polypeptide fragment isolated from human interleukin 33 (hIL-33), biologically active, chosen from the fragments having as their sequence the amino acids 95 to 270 (SEQ ID NO: 2), 99 to 270 (SEQ ID NO: 3) or 109 to 270 (SEQ ID NO: 4) of human interleukin 33 (hIL-33), said fragments being natural products of the cleaving of hIL-33 by at least one protease of human neutrophils.
Therapeutic fusion protein for use in the treatment or prevention of a blood coagulation disorder comprising (a) a coagulation factor, wherein the coagulation factor is selected from the list consisting of Factor IX, Factor VIII, van Willebrand Factor, Factor V, Factor X, Factor XI, Factor XII, Factor XIII, Factor I, Factor II (Prothrombin), Protein C, Protein S, GAS6, and Protein Z,, (b) a half-life enhancing polypeptide, and (c) a peptide linker which joins the coagulation factor and the half-life enhancing polypeptide; wherein the peptide linker is cleavable by proteases involved in coagulation or activated by coagulation enzymes and in that the therapeutic fusion protein has in comparison to the respective therapeutic fusion protein linked by a noncleavable linker having the amino acid sequence GGGGGGV: (i) an increased molar specific activity in at least one coagulation-related assay; and (ii) an increased elimination rate of the activated coagulation factor after the peptide linker is proteolytically cleaved in a coagulation-related mode. (a) a coagulation factor, wherein the coagulation factor is selected from the list consisting of Factor IX, Factor VIII, van Willebrand Factor, Factor V, Factor X, Factor XI, Factor XII, Factor XIII, Factor I, Factor II (Prothrombin), Protein C, Protein S, GAS6, and Protein Z,, (b) a half-life enhancing polypeptide, and (c) a peptide linker which joins the coagulation factor and the half-life enhancing polypeptide; (i) an increased molar specific activity in at least one coagulation-related assay; and (ii) an increased elimination rate of the activated coagulation factor after the peptide linker is proteolytically cleaved in a coagulation-related mode.
Cleansing composition for keratin fibres specially human hair comprising at least one anionic surfactant, at least one non-ionic surfactant and at least one amphoteric surfactant at a concentration of 5 to 50% by weight calculated to total composition characterised in that it comprises at least one monoglyceride with 12 to 22 C atoms in fatty acid moiety and silicone Quaternium-18.
A dynamic spacing mechanism for a shutter or blind assembly comprising blind slats, the mechanism comprising a drive screw and a plurality of riding modules (20 a, 20 b, 20 c, 20 d, 20 e) configured for being mounted thereon and associated with the blind slats, the dynamic spacing mechanism being configured for dynamically changing the distance between riding modules between a first distance and a second distance (S1, S2), said drive screw having a longitudinal axis (X M) and being configured for revolving thereabout, and configured for allowing axial displacement of each of the riding modules along an operative portion of length L of the drive screw, said dynamic spacing mechanism further comprising: - a dynamic guide member extending, at least in part, parallel to and along the drive screw, configured for engaging at least some of said riding modules so as to allow rotational displacement thereof with respect to the drive screw; - a restricting arrangement configured for restricting rotational movement of those of the riding modules, which are not engaged with the dynamic guide member, entailing axial movement thereof along the drive screw; said dynamic guide member being configured for displacement parallel to the longitudinal axis to define various positions of the dynamic guide member with respect to the drive screw, in at least some of which positions, the dynamic guide member has a working portion juxtaposing a part of the operative portion of the drive screw, in which the riding modules are spaced from one another by said first distance, and wherein in the remainder of the operative portion of the drive screw, the riding modules are spaced from one another by said second distance, the length of the working portion of said dynamic guide member varying with said displacement; characterized in that the spacing mechanism comprises a static module (20 0) configured for providing engagement between the drive screw and the dynamic guide member, said static module being disposed at an end of the drive screw is in constant engagement with the dynamic guide member. - a dynamic guide member extending, at least in part, parallel to and along the drive screw, configured for engaging at least some of said riding modules so as to allow rotational displacement thereof with respect to the drive screw; - a restricting arrangement configured for restricting rotational movement of those of the riding modules, which are not engaged with the dynamic guide member, entailing axial movement thereof along the drive screw;
A method comprising: from a statistical distribution (210, 710) of different color states (105, 115, 135, 145, 155, 165, 175) in an image subdivided in pixels, selecting, using a processor, pixel color states (220, 720) by performing comparisons (230, 730) between predetermined values (725a, 725b, 725c, 725d) and values (T1, T2) bound to per-pixel state probabilities (710a, 710b, 710c, 710d); and diffusing, using the processor, errors to per-pixel state probabilities (710b, 710c, 710d) of subsequent pixels, the errors based on drifts between selected color states and per-pixel state probabilities. from a statistical distribution (210, 710) of different color states (105, 115, 135, 145, 155, 165, 175) in an image subdivided in pixels, selecting, using a processor, pixel color states (220, 720) by performing comparisons (230, 730) between predetermined values (725a, 725b, 725c, 725d) and values (T1, T2) bound to per-pixel state probabilities (710a, 710b, 710c, 710d); and diffusing, using the processor, errors to per-pixel state probabilities (710b, 710c, 710d) of subsequent pixels, the errors based on drifts between selected color states and per-pixel state probabilities.
Pharmaceutical composition for oral administration, comprising a phosphodiesterase inhibitor selected from sildenafil citrate and at least one sugar alcohol selected from mannitol, sorbitol, xylitol, maltitol, lactitol, erythritol, threitol and Isomalt, and sodium hydrogen carbonate as pharmaceutical excipients in the following weight proportions: phosphodiesterase inhibitor: 10 to 150 parts by weight in total; sugar alcohol: 50 to 600 parts by weight in total; sodium hydrogen carbonate: 2 to 100 parts by weight; and a pharmaceutically acceptable organic acid, wherein the phosphodiesterase inhibitor and the sugar alcohol are present as a powder mixture or as granules, or as a powder mixture or as granules in a compacted tablet, and wherein the sugar alcohol includes or is Isomalt. phosphodiesterase inhibitor: 10 to 150 parts by weight in total; sugar alcohol: 50 to 600 parts by weight in total; sodium hydrogen carbonate: 2 to 100 parts by weight; and a pharmaceutically acceptable organic acid,
A biosensor measurement machine for performing a measurement employing a biosensor chip having a reaction portion in which a sample is introduced and a biochemical reaction is generated through which information obtained is output to the machine for determining an analyte concentration of the sample, said machine comprising: a voltage application unit for applying a voltage to the biosensor chip; and a measurement unit arranged to measure current generated by the voltage application unit when applying said voltage to the biosensor chip, and to obtain a value for said current measured at the end of a predetermined initial measurement time period; characterised by a control unit, configured to determine whether measuring of said current should be continued for a further measurement time period if the obtained current value is smaller than a predesigned reference value, or the measuring terminated at the end of the initial measurement time period and said measured current value be used for determining an analyte concentration of the sample on the basis of the measured current value obtained at the end of the initial measurement time period if the obtained current value is greater than the predesigned reference value. a voltage application unit for applying a voltage to the biosensor chip; and a measurement unit arranged to measure current generated by the voltage application unit when applying said voltage to the biosensor chip, and to obtain a value for said current measured at the end of a predetermined initial measurement time period; characterised by a control unit, configured to determine whether measuring of said current should be continued for a further measurement time period if the obtained current value is smaller than a predesigned reference value, or the measuring terminated at the end of the initial measurement time period and said measured current value be used for determining an analyte concentration of the sample on the basis of the measured current value obtained at the end of the initial measurement time period if the obtained current value is greater than the predesigned reference value.
A compressor with a housing that forms a flow chamber within which a compressor impeller is rotatably mounted, and an inlet channel which connects an inlet of the compressor to the flow chamber, wherein the transition between the flow chamber and the inlet channel is situated exclusively in an inlet plane of the compressor impeller, and wherein a tubular flow guide element by which at least a portion of the inlet channel is sub-divided into a central flow region and a peripheral flow region is arranged exclusively in the inlet channel, and wherein the peripheral flow region is designed so as to not be closable, characterized in that the largest cross-sectional dimension and the smallest cross-sectional dimension of the peripheral flow region, as well as the largest cross-sectional dimension of the central flow region, respectively reduce in size starting from the inlet-side end to the impeller-side end of the flow guide element, wherein the extent of the reduction of the largest cross-sectional dimension of the peripheral flow region is greater than that of the smallest cross-sectional dimension of the peripheral flow region, and even greater than that of the central flow region.
A method for evaluating video transmission quality, comprising: determining a lost packet in a video frame and a slice to which the lost packet belongs; determining a location of one most important lost packet in the slice to which the lost packet belongs; determining the quality of the video frame according to the location of the most important lost packet in every slice; wherein the determining the location of the most important lost packet in the slice comprises: acquiring a serial number of the lost packet in the slice to which the lost packet belongs and a reference relation between all packets in the slice; and determining the location of the most important lost packet in the slice according to the reference relation between all packets in the slice, wherein the most important lost packet is a lost packet having the largest influence on the video quality of the slice and causes that a largest number of packets in the slice cannot be decoded correctly. determining a lost packet in a video frame and a slice to which the lost packet belongs; determining a location of one most important lost packet in the slice to which the lost packet belongs; determining the quality of the video frame according to the location of the most important lost packet in every slice; acquiring a serial number of the lost packet in the slice to which the lost packet belongs and a reference relation between all packets in the slice; and determining the location of the most important lost packet in the slice according to the reference relation between all packets in the slice, wherein the most important lost packet is a lost packet having the largest influence on the video quality of the slice and causes that a largest number of packets in the slice cannot be decoded correctly.