mhurhangee/ep-ind-claims huggingface dataset:
A display characterized by comprising: a first interface section provided with a relief-type diffraction grating constituted by a plurality of grooves, a distance between centers of the grooves being within a range of 0.5 μm to 2 μm, a depth of the grooves is within a range of 0.05 μm to 1 μm, a second interface section provided with a plurality of recesses or projections arranged two-dimensionally at a center-to-center distance smaller than the minimum center-to-center distance of the plural grooves and each having a forward tapered shape; a light transmission layer with a main surface including the first and second interface sections (12a, 12b); and a reflection layer covering the main surface of the light transmission layer, wherein the first interface section is formed by arranging a plurality of first pixels, the plural first pixels including two or more pixels different from each other in at least one of spatial frequency, azimuth angle, and depth of the plural grooves, and ratio of an area of the diffraction grating to that of the first pixels, and the second interface section is formed by arranging a plurality of second pixels, the plural second pixels including two or more pixels different from each other in at least shapes of the plural recesses or projections. a first interface section provided with a relief-type diffraction grating constituted by a plurality of grooves, a distance between centers of the grooves being within a range of 0.5 μm to 2 μm, a depth of the grooves is within a range of 0.05 μm to 1 μm, a second interface section provided with a plurality of recesses or projections arranged two-dimensionally at a center-to-center distance smaller than the minimum center-to-center distance of the plural grooves and each having a forward tapered shape; a light transmission layer with a main surface including the first and second interface sections (12a, 12b); and a reflection layer covering the main surface of the light transmission layer, wherein the first interface section is formed by arranging a plurality of first pixels, the plural first pixels including two or more pixels different from each other in at least one of spatial frequency, azimuth angle, and depth of the plural grooves, and ratio of an area of the diffraction grating to that of the first pixels, and the second interface section is formed by arranging a plurality of second pixels, the plural second pixels including two or more pixels different from each other in at least shapes of the plural recesses or projections.
A coated detergent particle having a distorted oblate spheroidal shape with perpendicular dimensions x, y and z, wherein x is from 1 to 2 mm, y is from 2 to 8mm, and z is from 2 to 8 mm, wherein the particle comprises: (a) from 20wt% to 59wt% detersive surfactant selected from anionic detersive surfactant and/or non-ionic detersive surfactant; (b) from 10wt% to 40wt% inorganic salts selected from sodium carbonate, sodium sesquicarbonate, sodium bicarbonate and any mixtures thereof; (c) optionally, from 10wt% to 40wt% citric acid and/or salts thereof; wherein the detersive surfactant comprises from 51wt% to 100wt% alkyl benzene sulphonate, wherein the coating comprises the inorganic salt (b), and wherein the core comprises the detersive surfactant (a), wherein the oblate spheroidal shape is distorted such that the ratio of the surface area to volume of the particle is different to the value of NL, S / V ≠ NL wherein NL is defined as: NL = 3 2 b + 3 b 4 εa 2 ln 1 + ε 1 − ε wherein a = is half of the greater of y or z (long radius of the oblate) b = half of the dimension x (short radius of the oblate) ∈ = the eccentricity, wherein ε = 1 − b 2 a 2 wherein the oblate spheroidal shape of the particle is distorted such that the ratio of the surface area to volume of the particle is greater than NL multiplied by 1.005, S / V > NL × 1.005, or wherein the oblate spheroidal shape of the particle is distorted such that the ratio of the surface area to volume of the particle is less than NL multiplied by 0.99, S / V < NL × 0.99. (a) from 20wt% to 59wt% detersive surfactant selected from anionic detersive surfactant and/or non-ionic detersive surfactant; (b) from 10wt% to 40wt% inorganic salts selected from sodium carbonate, sodium sesquicarbonate, sodium bicarbonate and any mixtures thereof; (c) optionally, from 10wt% to 40wt% citric acid and/or salts thereof; wherein NL is defined as: NL = 3 2 b + 3 b 4 εa 2 ln 1 + ε 1 − ε wherein a = is half of the greater of y or z (long radius of the oblate) b = half of the dimension x (short radius of the oblate) ∈ = the eccentricity,
Cerdulatinib or a pharmaceutically acceptable salt thereof for use in treating multiple myeloma in a human patient in need thereof, wherein said use comprises administering to the patient an effective amount of said cerdulatinib or pharmaceutically acceptable salt thereof, wherein the effective amount of cerdulatinib, or a pharmaceutically acceptable salt thereof, is from 25 mg to 65 mg twice daily.
A method of constructing a model of the face of an individual, comprising: - a localization step (L; E 2, E 4) consisting of localizing, by means of an acquisition apparatus (V 1, V 2, V 3) and at each time of a plurality of acquisition times (1, j, m), one and the same plurality of points characteristic of said face of the individual, while determining an error coefficient during the recognition of the characteristic points, so as to form a corresponding plurality of particular models of said face of the individual, each comprising the positions of said points characteristic of the face of the individual at the time (1; j; m) associated with the particular model in question; - an adjustment step (A; E6) consisting of determining, for each particular model of said face of the individual, a model adjusted with respect to a reference model of said face of the individual, the adjusted model being obtained on the basis of the particular model in question such that the distance between the adjusted model and the reference model is minimal in the sense of a given metric; and - a construction step (C; E8) consisting of constructing, from the adjusted models obtained in the adjustment step (A; E6), said model of the face of the individual, by determining, for each characteristic point of the face, a point of said model of the face of the individual as the barycentre of corresponding points in the various adjusted models, weighted by a coefficient linked to the determined error coefficient. - a localization step (L; E 2, E 4) consisting of localizing, by means of an acquisition apparatus (V 1, V 2, V 3) and at each time of a plurality of acquisition times (1, j, m), one and the same plurality of points characteristic of said face of the individual, while determining an error coefficient during the recognition of the characteristic points, so as to form a corresponding plurality of particular models of said face of the individual, each comprising the positions of said points characteristic of the face of the individual at the time (1; j; m) associated with the particular model in question; - an adjustment step (A; E6) consisting of determining, for each particular model of said face of the individual, a model adjusted with respect to a reference model of said face of the individual, the adjusted model being obtained on the basis of the particular model in question such that the distance between the adjusted model and the reference model is minimal in the sense of a given metric; and - a construction step (C; E8) consisting of constructing, from the adjusted models obtained in the adjustment step (A; E6), said model of the face of the individual, by determining, for each characteristic point of the face, a point of said model of the face of the individual as the barycentre of corresponding points in the various adjusted models, weighted by a coefficient linked to the determined error coefficient.
Method for monitoring at least one component and/or component type (26, 28, 30, 48, 58, 64, 66) of a roller bar carpet (22a, 22b) of a continuously operating press for the production of pressed boards, in particular material boards made of wood and/or other renewable agricultural products such as chipboards, fiberboards, strawboards and shavings boards, as well as plastic boards, characterized in that at least one spatial region, through which the at least one component and/or component type (26, 28, 30, 48, 58, 64, 66) passes under normal conditions, is detected by means of at least one optical detector as a two-dimensional optical image, at least one actual state of at least one defined image section of the image is compared with a predefinable target state, if any deviations between the at least one actual state and the target state exceed a predefined limit amount, at least one warning message is generated. at least one actual state of at least one defined image section of the image is compared with a predefinable target state, if any deviations between the at least one actual state and the target state exceed a predefined limit amount, at least one warning message is generated.
A motor vehicle light controller, which is arranged for controlling a brightness of semiconductor light sources (D72, D73,..., D84) of a motor vehicle headlight, which are located in a series circuit supplied by a constant current regulator (52.7) and can be switched on and off individually by actuation of individualized semiconductor light source bypass switches (U72, U73,..., U84), wherein the controller is arranged for establishing mean brightnesses of the semiconductor light sources (D72, D73,..., D84) by actuation of the bypass switches (U72, U73,..., U84) with pulse-width-modulated signals, the period length of which is the same for the semiconductor light sources (D72, D73,..., D84), and the controller is arranged for switching on semiconductor light sources (D72, D73, D74), the mean brightness of which is to be set at various values, within a period of the pulse-width-modulated signal each individually at various times and to switch them off jointly at an identical time for the semiconductor light sources (D72, D73, D74), characterized in that the light controller is arranged for controlling the brightness of the semiconductor light sources (D72, D73, D74), generating sequences of serial data, and forwarding them to the headlight, and for each bypass switch (U72, U73, U74), each of the sequences have a control bit controlling its switching state.
A method of preparing a Si/C composite, the method comprising: i) mixing an aromatic group-containing silicon alkoxide compound selected from the group consisting of phenyltriethoxysilane (PTES), phenyltrimethoxysilane (PTMS), and diphenyldiethoxysilane (DDES), or a mixture of two or more thereofand a linear silicon alkoxide compound selected from the group consisting of tetraethyl orthosilicate (TEOS), tetramethyl orthosilicate (TMOS), tetrapropyl orthosilicate (TPOS), and tetrabutyl orthosilicate (TBOS), or a mixture of two or more thereof with an organic solvent to form a SiO 2 /C composite; ii) mixing the SiO 2 /C composite obtained in step i) with an alkali metal or an alkaline earth metal and heat treating the mixture in a temperature range of 350°C to 1400°C and in an inert atmosphere to reduce SiO 2; and iii) acid treating the heat-treated product obtained in step ii) to remove an oxide, wherein an amount of the aromatic group-containing silicon alkoxide compound is in a range of 0.1 parts by weight to 20 parts by weight based on the organic solvent, wherein a mixing ratio of the aromatic group-containing silicon alkoxide compound to the linear silicon alkoxide compound is in a range of 1:0.3 to 1:60 as a molar ratio, wherein the alkali metal is lithium, sodium, potassium, rubidium, cesium, or francium, wherein the alkaline earth metal is beryllium, magnesium, calcium, strontium, barium, or radium, wherein the amount of carbon in the Si/C composite is in a range of 1 wt% to 50 wt% based on a total weight of the Si/C composite. i) mixing an aromatic group-containing silicon alkoxide compound selected from the group consisting of phenyltriethoxysilane (PTES), phenyltrimethoxysilane (PTMS), and diphenyldiethoxysilane (DDES), or a mixture of two or more thereofand a linear silicon alkoxide compound selected from the group consisting of tetraethyl orthosilicate (TEOS), tetramethyl orthosilicate (TMOS), tetrapropyl orthosilicate (TPOS), and tetrabutyl orthosilicate (TBOS), or a mixture of two or more thereof with an organic solvent to form a SiO 2 /C composite; ii) mixing the SiO 2 /C composite obtained in step i) with an alkali metal or an alkaline earth metal and heat treating the mixture in a temperature range of 350°C to 1400°C and in an inert atmosphere to reduce SiO 2; and iii) acid treating the heat-treated product obtained in step ii) to remove an oxide,
Use of a graphene-based sheet for incrementing the protection to fire and/or the mechanical damping and/or the thermal dissipation of a composite material and/or for shielding against electro-magnetic waves, wherein said graphene-based sheet comprising graphene nanoplatelets in a weight concentration comprised between 75% and 99% and a polymeric matrix in a weight concentration comprised between 1% and 25%, preferably no more than 20%.
An assembly for installation on a support wall, having a built-in construction group and a built-in housing enclosing said built-in construction group, which housing can be inserted in a mounting recess of the support wall in an installation depth direction (y) during a flush-mounting process, the built-in housing having a compensation unit with which the overall height (h) of the built-in housing is adjustable in the installation depth direction (y) such that during the flush-mounting process, the overall height (h) of the built-in housing can be adapted to an installation depth (Δy) of the mounting recess of the support wall, the built-in housing having a sealing collar, which in the installed position (I, II) of the built-in housing overlaps and/or surrounds, in a fluid-tight manner, a wall section of the support wall delimiting the mounting recess on the edge, characterized in that the sealing collar is a separate component, wherein the sealing collar is configured as sealing fleece and is attached to the built-in housing, on the outside thereof, by means of an attachment clip.
Level transmitter for determining the level of a medium in a container, wherein the level transmitter transmits broadband transmission pulses with a preselected pulse repetition frequency and determines the level via a pulse echo procedure, wherein a circuit is provided for the optimization of the emission of broadband transmission pulses, said circuit comprising the following components: two transmission signal generators (transmitter A, B) at whose inputs a clock rate (TAKT) is applied to control the pulse repetition frequency, wherein the transmission signal generator (transmitter A) and the transmission signal generator (transmitter B) are designed in such a way that they generate transmission signals with a different polarity, a changeover switch, which is connected to the outputs of the two transmission signal generators (transmitter A, B), and a code generator circuit, which generates a random sequence (PNCode) which is present at the changeover switch, wherein the changeover switch is set up to switch back and forth between the outputs of the two signal generators (transmitter A, B) depending on the random sequence (PNCode) that is present. two transmission signal generators (transmitter A, B) at whose inputs a clock rate (TAKT) is applied to control the pulse repetition frequency, wherein the transmission signal generator (transmitter A) and the transmission signal generator (transmitter B) are designed in such a way that they generate transmission signals with a different polarity, a changeover switch, which is connected to the outputs of the two transmission signal generators (transmitter A, B), and a code generator circuit, which generates a random sequence (PNCode) which is present at the changeover switch, wherein the changeover switch is set up to switch back and forth between the outputs of the two signal generators (transmitter A, B) depending on the random sequence (PNCode) that is present.
A process for producing an interpenetrating polymer network material comprising i) providing an aqueous solution comprising microcrystalline cellulose, microfibrillated cellulose or a mixture thereof and at least one monomer, wherein at least one of said monomers is acrylamide; ii) polymerizing in situ the at least one monomer to form IPN together with the MCC, MFC or mixture thereof; and iii) obtaining the IPN material. i) providing an aqueous solution comprising microcrystalline cellulose, microfibrillated cellulose or a mixture thereof and at least one monomer, wherein at least one of said monomers is acrylamide; ii) polymerizing in situ the at least one monomer to form IPN together with the MCC, MFC or mixture thereof; and iii) obtaining the IPN material.
Method for preventing a two-wheeled vehicle, in particular a cycle, from falling when making a jump, having the steps • detecting a jump of the two-wheeled vehicle by sensing the lifting off of at least one wheel of the cycle, and • detecting (210, 220) a tendency of the two-wheeled vehicle to roll over, and • generating a counter-torque at at least one of the lifting-off wheels in order to reduce the tendency to roll over. • detecting a jump of the two-wheeled vehicle by sensing the lifting off of at least one wheel of the cycle, and • detecting (210, 220) a tendency of the two-wheeled vehicle to roll over, and • generating a counter-torque at at least one of the lifting-off wheels in order to reduce the tendency to roll over.
A determining apparatus for determining whether an attack to a server using an attack code has succeeded or failed, the determining apparatus comprising: an attack type determining unit that determines an attack type of an attack code included in an attack request that is addressed to the server; a feature extracting unit that executes emulation of an attack with the attack code to the server based on the determined attack type, and that extracts a feature that appears in a response issued by the server when the emulation results in a successful attack to the server; and a determining unit that determines that the attack with the attack code has succeeded when a response from the server for which a success or failure of the attack is to be determined has the feature extracted based on the emulation that is executed based on the attack type; wherein the attack type determining unit determines, using a keyword included in the attack code, the attack type of the attack code to be one of an attack type using an operating system command, an attack type using a program code, an attack type using an SQL command, an attack type using a HyperText Transfer Protocol (HTTP) response, and an attack type using a file operation. an attack type determining unit that determines an attack type of an attack code included in an attack request that is addressed to the server; a feature extracting unit that executes emulation of an attack with the attack code to the server based on the determined attack type, and that extracts a feature that appears in a response issued by the server when the emulation results in a successful attack to the server; and a determining unit that determines that the attack with the attack code has succeeded when a response from the server for which a success or failure of the attack is to be determined has the feature extracted based on the emulation that is executed based on the attack type;
Trial repositioning block (1, 1', 1", 100) for defining at least one cutting plane on a femur F with a total knee arthroplasty, comprising: - at least one patient-specific proximal reference region, which is placed against a distal surface of the femur, - a distal sidewall (4, 4', 4"), - and/or preferably a dorsal sidewall (5, 5', 5"), characterized in that - the distal sidewall (4, 4', 4") defines a distal reference surface (8, 8', 8"), which according to the patient-specific surgical plan coincides with the tibia cut with an extension of a knee joint, - and/or the dorsal side wall (5, 5', 5") defines a dorsal reference surface (9, 9', 9"), which according to the patient-specific surgical plan coincides with the tibia cut with the flexion of the knee joint coincides with the tibia cut, wherein a thickness of the distal side wall (4, 4', 4") and/or the dorsal side wall (4, 4', 4") is individually adapted to the patient respectively to the patient-specific surgical plan. - at least one patient-specific proximal reference region, which is placed against a distal surface of the femur, - a distal sidewall (4, 4', 4"), - and/or preferably a dorsal sidewall (5, 5', 5"), - the distal sidewall (4, 4', 4") defines a distal reference surface (8, 8', 8"), which according to the patient-specific surgical plan coincides with the tibia cut with an extension of a knee joint, - and/or the dorsal side wall (5, 5', 5") defines a dorsal reference surface (9, 9', 9"), which according to the patient-specific surgical plan coincides with the tibia cut with the flexion of the knee joint coincides with the tibia cut,
A system for cleaning a workpiece, the system comprising a first station (12, 22, 32), wherein the first station (12, 22, 32) comprises a first robotic mechanism for transferring a workpiece; a second station (16, 26, 36), wherein the second station comprises a second robotic mechanism for transferring a workpiece; a chamber (14, 24, 34), wherein the chamber is operable to clean a workpiece, wherein the chamber (14, 24, 34) comprises an entrance (13, 24A), wherein the entrance is operable for enabling a workpiece to be transferred from the first station (12, 22, 32) to the chamber (14, 24, 34) by the first robotic mechanism, wherein the chamber (14, 24, 34) comprises an exit (15, 24B), wherein the exit is operable for enabling a workpiece to be transferred from the chamber (14, 24, 34) to the second station (16, 26, 36) by the second robotic mechanism, wherein the first station (12, 22, 32) is isolated from the second station (16, 26, 36), wherein the system is further configured such that the environment of the second station (16, 26, 36) is cleaner than the environment of the first station (12, 22, 32), and wherein the system further comprises a mechanism to establish a flow from the second station (16, 26, 36) to the chamber (14, 24, 34) during the opening of the exit (15, 24B) and/or to establish a flow from the chamber (14, 24, 34) to the first station (12, 22, 32) during the opening of the entrance (13, 24A).
A Na + -K + -2Cl - cotransporter isoform 1 ("NKCC1") inhibitor for use in a method of treating epileptic seizures in a subject susceptible to epileptic seizures and having ammonia neurotoxicity in astrocytes, said method comprising: selecting a subject susceptible to epileptic seizures and having ammonia neurotoxicity in astrocytes, and administering to the selected subject said NKCC1 inhibitor under conditions effective to treat epileptic seizures, optionally further comprising repeating said administering. selecting a subject susceptible to epileptic seizures and having ammonia neurotoxicity in astrocytes, and administering to the selected subject said NKCC1 inhibitor under conditions effective to treat epileptic seizures, optionally further comprising repeating said administering.