mhurhangee/ep-ind-claims huggingface dataset:
A door (100, 210, 300) for a printing device (200, 400), comprising: a spring (105, 215, 335) having a first and a second end, the second end coupled to the door and the first end biased away from a surface of the door; and characterized by a groove (110, 340) into which the first end of the spring may be placed into; wherein when the first end of the spring is placed into the groove, the door is deflected in the direction that the spring is biased. a spring (105, 215, 335) having a first and a second end, the second end coupled to the door and the first end biased away from a surface of the door; and characterized by a groove (110, 340) into which the first end of the spring may be placed into; wherein when the first end of the spring is placed into the groove, the door is deflected in the direction that the spring is biased.
A method for preparing a forming limit diagram in press forming, characterized in that a forming limit curve is obtained by subjecting a surface, of a steel sheet having a tensile strength of not less than 980 MPa to be press-formed, to marking so as to form a marking pattern, wherein a distance between reference points at centers of individual marking patterns is 0.5-1.0 mm, bulging the steel sheet with a punch having a top minimum curvature radius of 3-10 mm, and measuring, to determine a maximum principal strain and minimum principal strain, at a time of generating cracks on the surface of the steel sheet, at a top portion of the punch, a change in the distance between reference points of the marking pattern.
A software development device for generating, from a source code, an execution code executed by a target controller having one or more pads, comprising: an analysis means for analyzing the source code to extract a designation for the one or more pads, wherein each of the one or more pads is a physical interface between the target controller and a respective hardware device external the target controller; an acquirement means (1142, 1143, 1144) for acquiring hardware information of the target controller, wherein the hardware information includes information for specifying a relationship between a pin of the target controller and a pad of the one or more pads; and a generation means (1142, 1143, 1144) for determining, with reference to the acquired hardware information, a connection between one or more pins of the target controller and the designated one or more pads and generating an execution code including a code corresponding to the determined connection. an analysis means for analyzing the source code to extract a designation for the one or more pads, wherein each of the one or more pads is a physical interface between the target controller and a respective hardware device external the target controller; an acquirement means (1142, 1143, 1144) for acquiring hardware information of the target controller, wherein the hardware information includes information for specifying a relationship between a pin of the target controller and a pad of the one or more pads; and a generation means (1142, 1143, 1144) for determining, with reference to the acquired hardware information, a connection between one or more pins of the target controller and the designated one or more pads and generating an execution code including a code corresponding to the determined connection.
A control unit (100, 300) for controlling an illumination parameter of one or more light sources of a plurality of light sources (120, 220), each of the plurality of light sources (120, 220) being operable in a disable mode or an enable mode, the control unit (100, 300) being arranged to - select the one or more light sources of the plurality of light sources (120, 220) by bringing only the selected light sources into the enable mode; - receive an input signal representing a required value of the illumination parameter for the selected one or more light sources, characterised in that - the bringing of only the selected one or more light sources into the enable mode causes only the selected one or more light sources to respond to a broadcast signal representing the required value of the illumination parameter; and in that - the control unit is further arranged to: - convert the input signal to the broadcast signal for the plurality of light sources, the broadcast signal containing no individual addressing information for any of the one or more light sources of the plurality of light sources; - broadcast the broadcast signal to be provided to the plurality of light sources (120, 220) thereby enabling only the selected one or more light sources to comply with the required value of the illumination parameter. - select the one or more light sources of the plurality of light sources (120, 220) by bringing only the selected light sources into the enable mode; - receive an input signal representing a required value of the illumination parameter for the selected one or more light sources, characterised in that - the bringing of only the selected one or more light sources into the enable mode causes only the selected one or more light sources to respond to a broadcast signal representing the required value of the illumination parameter; and in that - the control unit is further arranged to: - convert the input signal to the broadcast signal for the plurality of light sources, the broadcast signal containing no individual addressing information for any of the one or more light sources of the plurality of light sources; - broadcast the broadcast signal to be provided to the plurality of light sources (120, 220) thereby enabling only the selected one or more light sources to comply with the required value of the illumination parameter.
Heat-resistant clothing, in particular firefighting clothing, with an alternating weave fabric, characterised in that the alternating weave fabric forms an inner lining.
A compound of formula, or a pharmaceutically acceptable salt, solvate or polymorph thereof, including all tautomers and stereoisomers thereof wherein: R 1 represents H; optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy, NH 2, -NHC 1-3 alkyl and - N(C 1-3 alkyl) 2); -C Oalkyl; haloalkyl; haloalkoxy; or -alkylaryl; each R 2 independently represents H; optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy, NH 2, -NHC 1-3 alkyl and -N(C 1-3 alkyl) 2); -alkylaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and-C NHC 1-6 alkyl); -NHalkyl; -N(alkyl) 2; amino; hydroxyl; alkoxy or halo; n represents 0, 1 or 2; R 3 represents H or alkyl; R 4 represents H or alkyl; R 5 represents H or alkyl; W and X each independently represent C=O; C=S; or CH 2; Y represents aryl or 6-membered monocyclic heteroaryl; and Z represents aryl or heteroaryl. R 1 represents H; optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy, NH 2, -NHC 1-3 alkyl and - N(C 1-3 alkyl) 2); -C Oalkyl; haloalkyl; haloalkoxy; or -alkylaryl; each R 2 independently represents H; optionally substituted alkyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkoxy, NH 2, -NHC 1-3 alkyl and -N(C 1-3 alkyl) 2); -alkylaryl; optionally substituted carbocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, C 1-6 haloalkyl, C 1-6 haloalkoxy and halo); optionally substituted heterocyclyl (wherein optional substituents include one or more substituents each independently selected from C 1-6 alkyl, C 1-6 alkoxy, -C OC 1-6 alkyl, -C C 1-6 alkyl and-C NHC 1-6 alkyl); -NHalkyl; -N(alkyl) 2; amino; hydroxyl; alkoxy or halo; n represents 0, 1 or 2; R 3 represents H or alkyl; R 4 represents H or alkyl; R 5 represents H or alkyl; W and X each independently represent C=O; C=S; or CH 2; Y represents aryl or 6-membered monocyclic heteroaryl; and Z represents aryl or heteroaryl.
A method for preparing a graft copolymer, comprising: preparing a reaction solution comprising a copolymer comprising a unit derived from a diene-based monomer and a unit derived from an alkene-based monomer, an aromatic vinyl-based monomer, a vinyl cyan-based monomer, and a reaction solvent; and adding the reaction solution to perform primary polymerization at 100 to 110 °C, wherein the copolymer comprises the unit derived from the diene-based monomer in an amount of 5 to 10 wt%, and the graft copolymer has an average rubber particle size of 2 to 5 μm as measured using a Coulter counter after 0.5 g of a graft copolymer was dissolved in 100 ml of methyl ethyl ketone, and wherein the primary polymerization is performed by primarily polymerizing the reaction solution at 100 to 110 °C while stirring at 50 to 90 rpm. preparing a reaction solution comprising a copolymer comprising a unit derived from a diene-based monomer and a unit derived from an alkene-based monomer, an aromatic vinyl-based monomer, a vinyl cyan-based monomer, and a reaction solvent; and adding the reaction solution to perform primary polymerization at 100 to 110 °C, wherein the copolymer comprises the unit derived from the diene-based monomer in an amount of 5 to 10 wt%, and the graft copolymer has an average rubber particle size of 2 to 5 μm as measured using a Coulter counter after 0.5 g of a graft copolymer was dissolved in 100 ml of methyl ethyl ketone, and wherein the primary polymerization is performed by primarily polymerizing the reaction solution at 100 to 110 °C while stirring at 50 to 90 rpm.
A DC circuit breaker comprising: - a mechanical switch provided on an electrical path through which a direct current flows; and - a semiconductor switch connected in parallel with the mechanical switch, the mechanical switch including a disconnector and a circuit breaker connected in series, having a controller such that during normal operation the direct current flows through the mechanical switch, when interrupting the direct current, the circuit breaker being made nonconductive to allow the direct current to be commutated to the semiconductor switch, subsequently contacts of the disconnector being disconnected from each other and subsequently the semiconductor switch being made nonconductive. - a mechanical switch provided on an electrical path through which a direct current flows; and - a semiconductor switch connected in parallel with the mechanical switch, the mechanical switch including a disconnector and a circuit breaker connected in series, having a controller such that during normal operation the direct current flows through the mechanical switch, when interrupting the direct current, the circuit breaker being made nonconductive to allow the direct current to be commutated to the semiconductor switch, subsequently contacts of the disconnector being disconnected from each other and subsequently the semiconductor switch being made nonconductive.
A backlight self-adaptive adjustment method, applied for television backlight adjustment, characterized in that the backlight self-adaptive adjustment method comprises the following operations: acquiring one frame of picture every preset time interval in a video mode, wherein the video mode refers to displaying a video on a display screen; calculating a plurality of brightness difference values between brightness values of a first picture acquired at a moment and brightness values of a second picture acquired within the preset time interval from the moment; calculating an amount of white pixels of a row of pixels in the first picture in determination that a maximum brightness difference value among the plurality of brightness difference values is less than a first preset value; and determining that the first picture satisfies a preset backlight self-adaptive adjustment condition in determination that a proportion of the amount of the white pixels to an amount of pixels in the whole row is larger than a second preset value; acquiring a brightness value of a pixel in a third picture captured from current ambient by a camera, in determination that the first picture satisfies the preset backlight self-adaptive adjustment condition; and setting a backlight value of a display video window area of the display screen based on the brightness value of the pixel in the third picture. acquiring one frame of picture every preset time interval in a video mode, wherein the video mode refers to displaying a video on a display screen; calculating a plurality of brightness difference values between brightness values of a first picture acquired at a moment and brightness values of a second picture acquired within the preset time interval from the moment; calculating an amount of white pixels of a row of pixels in the first picture in determination that a maximum brightness difference value among the plurality of brightness difference values is less than a first preset value; and determining that the first picture satisfies a preset backlight self-adaptive adjustment condition in determination that a proportion of the amount of the white pixels to an amount of pixels in the whole row is larger than a second preset value; acquiring a brightness value of a pixel in a third picture captured from current ambient by a camera, in determination that the first picture satisfies the preset backlight self-adaptive adjustment condition; and setting a backlight value of a display video window area of the display screen based on the brightness value of the pixel in the third picture.
An ex vivo method of combining mesenchymal stem cells with a bone substrate, the method comprising; digesting tissue having mesenchymal stem cells together with unwanted cells; centrifuging the digested tissue to form a centrifuged cell pellet of stromal vascular fraction having the mesenchymal stem cells and the unwanted cells; adding the stromal vascular fraction with the mesenchymal stem cells to seed the bone substrate so as to form a seeded bone substrate; culturing the mesenchymal stem cells and the seeded bone substrate for a period of time to allow the mesenchymal stem cells to adhere to the bone substrate; and rinsing the bone substrate to remove the unwanted cells from the bone substrate. digesting tissue having mesenchymal stem cells together with unwanted cells; centrifuging the digested tissue to form a centrifuged cell pellet of stromal vascular fraction having the mesenchymal stem cells and the unwanted cells; adding the stromal vascular fraction with the mesenchymal stem cells to seed the bone substrate so as to form a seeded bone substrate; culturing the mesenchymal stem cells and the seeded bone substrate for a period of time to allow the mesenchymal stem cells to adhere to the bone substrate; and rinsing the bone substrate to remove the unwanted cells from the bone substrate.
A vehicle sensing and control system, comprising: an environment sensor configured to sense an environment outside of the vehicle; a processor in communication with the environment sensor and configured to identify a cycle (13, 23, 33, 43, 63, 73, 83) travelling in the environment (11, determine an angular displacement (27, 37, 47, 57, 77, 87) of the cycle with respect to an axis perpendicular to the ground and identify a potential hazard presented by the cycle based at least partially on changes in the angular displacement of the cycle, wherein the processor is further characterized by: sensing a number of oscillations (35, 45) of the cycle about the axis during a predetermined time period; and determining if the number of oscillations exceeds a predetermined value. an environment sensor configured to sense an environment outside of the vehicle; a processor in communication with the environment sensor and configured to identify a cycle (13, 23, 33, 43, 63, 73, 83) travelling in the environment (11, determine an angular displacement (27, 37, 47, 57, 77, 87) of the cycle with respect to an axis perpendicular to the ground and identify a potential hazard presented by the cycle based at least partially on changes in the angular displacement of the cycle, wherein the processor is further characterized by: sensing a number of oscillations (35, 45) of the cycle about the axis during a predetermined time period; and determining if the number of oscillations exceeds a predetermined value.
Method for machine learning in a computing unit, for a control device of a machine, wherein ensemble methods and classification models are utilized, wherein by means of an at least first data set which comprises data acquired by at least one sensor for an at least first time region, an at least first machine learning model is trained, wherein a second machine learning model is trained, wherein by means of the trained, at least first machine learning model, data for an at least first prognosis time region is prognosticated and therefrom an at least first prognosis data set is formed, wherein by means of the trained second machine learning model, data for a second prognosis time region is prognosticated and therefrom a second prognosis data set is formed, wherein at least by means of the first prognosis data set and the second prognosis data set a linkage machine learning model is trained, wherein by means of the linkage machine learning model, data for the second prognosis time region is prognosticated and therefrom a third prognosis data set is formed, and wherein at least by means of the third prognosis data set, control variables are formed and with these control variables, the control device is controlled, characterised in that the second machine learning model is trained by means of a second data set, which comprises data acquired by the at least one sensor for a second time region which is separate from the at least first time region, wherein the second machine learning model is formed incrementally on the basis of a machine evaluation of the first machine learning model with respect to its accuracy and reliability, wherein in the second machine learning model results of the evaluation of the first machine learning model can be used and wherein the second prognosis time region overlaps with the at least first prognosis time region.
A method for producing a pharmaceutical formulation for controlled release of at least one therapeutic agent, the method comprising: a) contacting a silk fibroin solution with at least one therapeutic agent; b) forming, using the silk fibroin solution of step a), a silk fibroin article comprising the at least one therapeutic agent; and c) altering the conformation of the article, wherein the altering is achieved by at least one of contacting said article with methanol at a concentration of at least 90% or treating said article with shear stress, in order to increase crystallinity or liquid crystallinity, thus controlling the release of the at least one therapeutic agent from the silk fibroin article and, wherein the controlled release of said at least one therapeutic agent from the pharmaceutical formulation occurs over a period of about 12 hours to about 90 days. a) contacting a silk fibroin solution with at least one therapeutic agent; b) forming, using the silk fibroin solution of step a), a silk fibroin article comprising the at least one therapeutic agent; and c) altering the conformation of the article, wherein the altering is achieved by at least one of contacting said article with methanol at a concentration of at least 90% or treating said article with shear stress, in order to increase crystallinity or liquid crystallinity, thus controlling the release of the at least one therapeutic agent from the silk fibroin article and,
A casing, in particular an exhaust casing, for a turbomachine, comprising an inner hub having an axis of revolution and an outer annular shell extending around the hub, said shell being configured to define with the hub an annular flow duct of a gas stream and being rigidly connected to the hub by arms, the hub comprising at one longitudinal end, a scalloped annular flange comprising solid portions (22c1) distributed at regular intervals around said axis and spaced apart from each other by hollow portions (22c2), characterized in that the hub is produced by assembling by welding several angular sectors of hub which are arranged circumferentially end to end around said axis, each sector being connected to an adjacent hub sector by a longitudinal weld bead which extends over the entire axial extent of the hub and which is axially aligned with a hollow portion (22c2) of the scalloped flange.
A method for detecting and controlling an amount of a cationic species in a water stream, comprising: a. drawing a water sample from said water stream; b. adding a pre-determined quantity of at least one fluorescent tracer to said water sample to form a solution comprising a complex of this fluorescent tracer and the cationic species, wherein said fluorescent tracer is (4,4',4",4′′′-(Porphine-5, 10, 15, 20-tetrayl) tetrakis (benzenesulfonic acid); c. exciting said complex at a wavelength of about 420 nm, measuring a fluorescence emission spectrum of said complex in a range of about 500 nm to about 700 nm and determining the presence or absence of the cationic species in the complex of said solution based on an attenuation of an emission peak and a shift of the emission peak in a range of about 640 nm to about 655 nm; d. detecting the quantity of the cationic species in said water sample: e. adding an amount of an anionic neutralizer proportional to the quantity of the cationic species detected in step (d) to said water stream to obtain a water stream with the desired level of the cationic species; and f. optionally repeating the steps (a) to (e) for controlling the amount of the cationic species in said water stream below a threshold level. a. drawing a water sample from said water stream; b. adding a pre-determined quantity of at least one fluorescent tracer to said water sample to form a solution comprising a complex of this fluorescent tracer and the cationic species, wherein said fluorescent tracer is (4,4',4",4′′′-(Porphine-5, 10, 15, 20-tetrayl) tetrakis (benzenesulfonic acid); c. exciting said complex at a wavelength of about 420 nm, measuring a fluorescence emission spectrum of said complex in a range of about 500 nm to about 700 nm and determining the presence or absence of the cationic species in the complex of said solution based on an attenuation of an emission peak and a shift of the emission peak in a range of about 640 nm to about 655 nm; d. detecting the quantity of the cationic species in said water sample: e. adding an amount of an anionic neutralizer proportional to the quantity of the cationic species detected in step (d) to said water stream to obtain a water stream with the desired level of the cationic species; and f. optionally repeating the steps (a) to (e) for controlling the amount of the cationic species in said water stream below a threshold level. e. adding an amount of an anionic neutralizer proportional to the quantity of the cationic species detected in step (d) to said water stream to obtain a water stream with the desired level of the cationic species; and f. optionally repeating the steps (a) to (e) for controlling the amount of the cationic species in said water stream below a threshold level.