mhurhangee/ep-ind-claims huggingface dataset:
A lighting apparatus for simulating color vision deficiency, the apparatus comprising: a yellow light emitter emitting yellow light comprising a narrow-band spectral peak with a maximum wavelength between 570 nanometers and 600 nanometers and a band-width of between 1 nanometers and 40 nanometers at half maximum; wherein the yellow light is combined with white light having a color rendering index of at least 70 and a correlated color temperature between 2400K to 10000K to form an output beam; wherein the luminous flux of white light in the output beam is at least one tenth the luminous flux of yellow light in the output beam as measured with a lux meter anywhere within the central ten degrees of the output beam of the lighting apparatus, the lighting apparatus characterized in that at least a portion of the white light is emitted by a white light emitter incorporated into the lighting apparatus. a yellow light emitter emitting yellow light comprising a narrow-band spectral peak with a maximum wavelength between 570 nanometers and 600 nanometers and a band-width of between 1 nanometers and 40 nanometers at half maximum; wherein the yellow light is combined with white light having a color rendering index of at least 70 and a correlated color temperature between 2400K to 10000K to form an output beam; wherein the luminous flux of white light in the output beam is at least one tenth the luminous flux of yellow light in the output beam as measured with a lux meter anywhere within the central ten degrees of the output beam of the lighting apparatus, the lighting apparatus characterized in that at least a portion of the white light is emitted by a white light emitter incorporated into the lighting apparatus.
Method for the operation of an electric motor driven centrifugal pump in a hydraulic system having at least one self-controlled load, wherein a gradient (dQ akt /dt) of the volumetric flow rate ( Q akt) of the centrifugal pump is determined and the current setpoint delivery head ( H_ soll) of the centrifugal pump is calculated from a mathematical operation on the gradient (dQ akt /dt) weighted with a gain factor and the last specified setpoint delivery head ( H soll,alt), in which the operation describes a positive feedback between the setpoint delivery head (H soll) and the volumetric flow rate (Q akt), and the gain factor is determined from a calculation rule, characterised by the calculation rule being dynamically adjusted during the operation of the centrifugal pump using the current volume flow ( Q akt) and the current delivery head ( H akt) as the current operating point ( B akt) of the centrifugal pump in the pump performance map and the slope or a point of a current and/or past system characteristic curve (12, 13) of the hydraulic system.
A method for making PEG functionalized iron oxide nanoparticles comprising thermally decomposing iron acetyl acetonate in the presence of functionalized PEG molecules or the presence of functionalized PEG molecules and benzyl ether, and wherein the temperature for the thermal decomposition is between 80 to 300 °C.
A method for forming one or more tracks on a non-conductive substrate, said method comprising the following steps: • forming a layer of coating material on an operative face of said non-conductive substrate; • disposing a stencil on said layer of coating material thereby covering a selected portion of said layer of coating material while leaving exposed a portion of said layer of coating material corresponding to a pattern to be formed thereby forming an assembly of said non-conductive substrate, said layer of coating material and said stencil; • eroding said exposed portion of said layer of coating material by propelling an abrasive material using a blasting gun towards said assembly on said operative face; and • separating said stencil from said abraded assembly; characterised in that said non-conductive substrate is low temperature co-fired ceramic (LTCC) and said abrasive material is a mixture of alumina and glass, wherein said glass is composed of Bi 2 O 3, V 2 O 5, P 2 O 5 and SiO 2 so that the shrinkage and coefficient of thermal expansion of said mixture of alumina and glass is compatible with that of said non-conductive substrate; wherein said non-conductive substrate and said abrasive material has at least one of the following properties: • the difference in the thermal expansion coefficient between said non-conductive substrate and said abrasive material is equal to or less than 5 × 10 -6 /°C; and • the difference in the shrinkage between said non-conductive substrate and said abrasive material is equal to or less than 0.5%. • forming a layer of coating material on an operative face of said non-conductive substrate; • disposing a stencil on said layer of coating material thereby covering a selected portion of said layer of coating material while leaving exposed a portion of said layer of coating material corresponding to a pattern to be formed thereby forming an assembly of said non-conductive substrate, said layer of coating material and said stencil; • eroding said exposed portion of said layer of coating material by propelling an abrasive material using a blasting gun towards said assembly on said operative face; and • separating said stencil from said abraded assembly; • the difference in the thermal expansion coefficient between said non-conductive substrate and said abrasive material is equal to or less than 5 × 10 -6 /°C; and • the difference in the shrinkage between said non-conductive substrate and said abrasive material is equal to or less than 0.5%.
Double chainring suitable for engagement to a bicycle crank spider, the double chainring comprising: a small chainring having first mounting openings; and a large chainring having second mounting openings, wherein the first mounting openings and the second mounting openings are suitable for engagement with respective third mounting openings provided on respective mounts of the spider so as to assemble the small chainring and the large chainring to the spider; wherein each chainring (2, 3) has a side facing the spider and a side facing away from the spider, in an assembled state; wherein the small chainring has axial protrusions at the side facing the spider suitable for engaging axially against the spider in the assembled state; and wherein the large chainring has axial recesses at the side facing the spider suitable for axially receiving the respective mounts in the assembled state, characterized in that at least one of the axial protrusions has a respective axial projection extending from the axial protrusion at the side facing the spider and around the respective first mounting opening, wherein the axial projection is suitable for axial insertion into the respective third mounting opening and for engaging with an inner surface of the respective third mounting opening in the assembled state. a small chainring having first mounting openings; and a large chainring having second mounting openings, wherein the first mounting openings and the second mounting openings are suitable for engagement with respective third mounting openings provided on respective mounts of the spider so as to assemble the small chainring and the large chainring to the spider; wherein each chainring (2, 3) has a side facing the spider and a side facing away from the spider, in an assembled state; wherein the small chainring has axial protrusions at the side facing the spider suitable for engaging axially against the spider in the assembled state; and wherein the large chainring has axial recesses at the side facing the spider suitable for axially receiving the respective mounts in the assembled state, characterized in that at least one of the axial protrusions has a respective axial projection extending from the axial protrusion at the side facing the spider and around the respective first mounting opening, wherein the axial projection is suitable for axial insertion into the respective third mounting opening and for engaging with an inner surface of the respective third mounting opening in the assembled state.
A device for identifying a position of an elevator cabin having a sensor and evaluation unit (20, 22, 24) accommodated in a sensor casing, realized for interacting with a strip comprising a length and/or position coding, capable of being provided on the elevator cabin and connected to a switch unit which offers a safety switch and/or a contact breaker point for an emergency function, in particular an emergency stop of the elevator cabin, said sensor and evaluation unit being realized for generating a position and/or speed signal from the length and/or position coding as well as for generating or receiving a status signal of the elevator cabin door corresponding to an open status of an elevator door, characterized in that monitoring means for activating the switch unit are allocated to the sensor and evaluation unit and realized such that the emergency function can be activated in response to the position and/or speed signal as well as to the status signal of the elevator cabin door if a cabin movement exceeds a predetermined speed threshold value and/or acceleration threshold value and/or movement travel threshold value when the elevator cabin door is open.
A method comprising: establishing (102, 202) a call connection by an interactive voice response system, the IVR system providing voice services with respect to a user account to a user; acquiring (104, 204) a number of service modules recommended to the user, the service modules including one or more voice service modules and/or one or more human service modules, and the acquiring including: acquiring account information of the user; acquiring network behavior data of the user as service demand data based on the account information; and acquiring the service modules recommended to the user according to the service demand data; and assembling (106, 310, 406) the service modules into a menu for a voice display according to an assembling policy, the assembling policy ignoring any recommended human service module(s) when a number of voice service modules in the service modules is not equal to zero. establishing (102, 202) a call connection by an interactive voice response system, the IVR system providing voice services with respect to a user account to a user; acquiring (104, 204) a number of service modules recommended to the user, the service modules including one or more voice service modules and/or one or more human service modules, and the acquiring including: acquiring account information of the user; acquiring network behavior data of the user as service demand data based on the account information; and acquiring the service modules recommended to the user according to the service demand data; and acquiring account information of the user; acquiring network behavior data of the user as service demand data based on the account information; and acquiring the service modules recommended to the user according to the service demand data; and assembling (106, 310, 406) the service modules into a menu for a voice display according to an assembling policy, the assembling policy ignoring any recommended human service module(s) when a number of voice service modules in the service modules is not equal to zero.
An oral care composition comprising: a. arginine in free or salt form; and b. zinc ions, wherein the zinc ions are present in the composition at a concentration of from 0.0005 mols/100g to 0.00062 mols/100g, based on the total weight of the composition. a. arginine in free or salt form; and b. zinc ions,
A negative allosteric modulator of the metabotropic glutamate receptor 5 (mGluR5) for use in the treatment of a mature brain damage, which is a brain damage which does not progress further and wherein cell death in the brain has subsided, and neuroprotective treatment is no longer effective, wherein said mature brain damage has been caused by stroke, which has resulted in a post-stroke disorder which is sensori- and motor dysfunction.
A synthetic data generation apparatus for generating synthetic data that maintains the relationships among all attributes in original data containing category attributes, the apparatus comprising: a coding unit that codes a value of each of category attributes contained in original data into a value of a numerical attribute in accordance with a coding rule; a data formatting unit that generates first synthetic data from the original data after coding using a synthetic data generation method for numerical attributes; a conversion unit that, if the value of the numerical attribute which is contained in the first synthetic data and corresponds to the value of one of the category attributes exceeds a range of values that can be assumed by the value of that numerical attribute, converts the value of that numerical attribute to a value included in the range of values that can be assumed by the value of that numerical attribute; and a decoding unit that decodes the value of the numerical attribute which is contained in the first synthetic data after conversion and corresponds to the value of one of the category attributes to the value of that category attribute in accordance with the coding rule to obtain synthetic data. a coding unit that codes a value of each of category attributes contained in original data into a value of a numerical attribute in accordance with a coding rule; a data formatting unit that generates first synthetic data from the original data after coding using a synthetic data generation method for numerical attributes; a conversion unit that, if the value of the numerical attribute which is contained in the first synthetic data and corresponds to the value of one of the category attributes exceeds a range of values that can be assumed by the value of that numerical attribute, converts the value of that numerical attribute to a value included in the range of values that can be assumed by the value of that numerical attribute; and a decoding unit that decodes the value of the numerical attribute which is contained in the first synthetic data after conversion and corresponds to the value of one of the category attributes to the value of that category attribute in accordance with the coding rule to obtain synthetic data.
Heat exchanger, notably an evaporator for a vehicle air conditioning circuit, defining a combined path for a first fluid which is made up of a plurality of first elementary paths (13, 14) and a combined path for a second fluid which is made up of a plurality of second elementary paths, the first and second elementary paths being arranged in alternation in a first direction so that each elementary path for one of the fluids is in thermal contact with at least one adjacent elementary path for the other fluid, each first elementary path (13, 14) having an elongate configuration in a second direction, the first elementary paths (13, 14) being constituted by tubes having at least one wall with a wall thickness less than or equal to 0.3 mm, preferably of between 0.24 mm and 0.28 mm, characterized in that the tubes define circulation ducts for the first fluid having a hydraulic diameter of less than 1.2 mm, preferably of between 0.89 mm and 1.07 mm.
A ceramic plate consisting of silicon nitride,YMgSi 2 O 5 N, Y 8 Si 4 N 4 O 14 and Y 2 Si 3 O 3 N 4 wherein a maximum value of a content ratio of the YMgSi 2 O 5 N as determined by quantitative analysis of a surface composition using an X-ray diffraction method is less than 8.0% by mass on the basis of a total amount of components detected using the X-ray diffraction method, a total content ratio of the Y 8 Si 4 N 4 O 14 and the Y 2 Si 3 O 3 N 4 as determined by quantitative analysis of a surface composition using an X-ray diffraction method is 0.5% by mass or more and less than 4.0% by mass on the basis of a total amount of components detected using the X-ray diffraction method, a ratio of a total amount of the Y 8 Si 4 N 4 O 14 and the Y 2 Si 3 O 3 N 4 to a total amount of the YMgSi 2 O 5 N, the Y 8 Si 4 N 4 O 14, and the Y 2 Si 3 O 3 N 4 as determined by quantitative analysis of a surface composition using an X-ray diffraction method is 0.350 or less. a maximum value of a content ratio of the YMgSi 2 O 5 N as determined by quantitative analysis of a surface composition using an X-ray diffraction method is less than 8.0% by mass on the basis of a total amount of components detected using the X-ray diffraction method, a total content ratio of the Y 8 Si 4 N 4 O 14 and the Y 2 Si 3 O 3 N 4 as determined by quantitative analysis of a surface composition using an X-ray diffraction method is 0.5% by mass or more and less than 4.0% by mass on the basis of a total amount of components detected using the X-ray diffraction method, a ratio of a total amount of the Y 8 Si 4 N 4 O 14 and the Y 2 Si 3 O 3 N 4 to a total amount of the YMgSi 2 O 5 N, the Y 8 Si 4 N 4 O 14, and the Y 2 Si 3 O 3 N 4 as determined by quantitative analysis of a surface composition using an X-ray diffraction method is 0.350 or less.
A method of manufacturing a power module substrate, comprising: radiating energy light to the surface of a ceramic base material including silicon to form scribe lines in the surface of the ceramic base material; performing a surface treatment on the ceramic base material having the scribe lines formed therein; dividing the ceramic base material along the scribe lines to form a ceramic substrate; and brazing metal members to the ceramic substrate, wherein the surface treatment is a blast process of blowing ZrO 2 powder to the upper and lower surfaces of the ceramic base material, wherein the concentration of a silicon oxide and a silicon composite oxide in the surface of the ceramic base material having the scribe lines formed therein is less than or equal to 2.7 Atom%, and wherein the concentration of a silicon oxide and a silicon composite oxide in the surface of the ceramic substrate is determined using an electron probe microanalyzer under conditions of an operation pressure of 1.3 Pa, acceleration voltage of 15.0 kV and a probe current of 5.0 x 10 -8 A, with a vapor-deposited Au film with a thickness of less than 100 nm. radiating energy light to the surface of a ceramic base material including silicon to form scribe lines in the surface of the ceramic base material; performing a surface treatment on the ceramic base material having the scribe lines formed therein; dividing the ceramic base material along the scribe lines to form a ceramic substrate; and brazing metal members to the ceramic substrate, wherein the surface treatment is a blast process of blowing ZrO 2 powder to the upper and lower surfaces of the ceramic base material, wherein the concentration of a silicon oxide and a silicon composite oxide in the surface of the ceramic base material having the scribe lines formed therein is less than or equal to 2.7 Atom%, and wherein the concentration of a silicon oxide and a silicon composite oxide in the surface of the ceramic substrate is determined using an electron probe microanalyzer under conditions of an operation pressure of 1.3 Pa, acceleration voltage of 15.0 kV and a probe current of 5.0 x 10 -8 A, with a vapor-deposited Au film with a thickness of less than 100 nm.
Fungicidal mixture comprising in synergistically effective amounts N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide; and difenoconazole; where N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide and difenoconazole are present in a weight ratio of from 10:1 to 1:10. N-(3',4',5'-trifluorobiphenyl-2-yl)-3-difluoromethyl-1-methyl-1H-pyrazole-4-carboxamide; and difenoconazole;
A polypeptide comprising a variant of the general amyloid interaction motif (GAIM) of filamentous bacteriophage gene 3 protein (g3p) of the starting amino acid sequence SEQ ID NO:16, wherein the variant differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: a) substitution of T50 with any amino acid and H55T; b) N137G; c) N142A; d) R143V and Q144N; or R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and e) Q156V, G157N, ΔT158, ΔD159, ΔP160, and V161G; or Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; wherein the variant optionally further differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: f) ΔM1; or ΔM1 and ΔA2; and g) substitution of N38 with any amino acid other than cysteine; or substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine. a) substitution of T50 with any amino acid and H55T; b) N137G; c) N142A; d) R143V and Q144N; or R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and R143V, Q144N, and A146V; or R143V, Q144N, and A146T; or R143V, Q144N, and A146K; and e) Q156V, G157N, ΔT158, ΔD159, ΔP160, and V161G; or Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; wherein the variant optionally further differs from SEQ ID NO:16 by one or more sets of amino acid changes selected from: Q156Y, G157N, ΔT158, ΔD159, ΔP160, and V161G; or G157N, ΔT158, ΔD159, ΔP160, and V161G; or ΔT158, ΔD159, ΔP160, and V161G; f) ΔM1; or ΔM1 and ΔA2; and g) substitution of N38 with any amino acid other than cysteine; or substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine. substitution of N38 with any amino acid other than cysteine, and substitution of G40 with any amino acid other than cysteine; or substitution of G40 with any amino acid other than cysteine, threonine, or serine.
A method for the preparation of a (2,3,4,4-tetramethylcyclopentyl)methyl carboxylate compound, comprising a step of subjecting alpha-halotetramethylcyclohexanone represented by the following general formula or: wherein X represents a chlorine atom or a bromine atom, to a Favorskii rearrangement to obtain a 2,3,4,4-tetramethylcyclopentane compound represented by the following general formula: wherein R 1 represents a hydrogen atom or a monovalent C 1-15 hydrocarbon group, a step of subjecting 2,3,4,4-tetramethylcyclopentane compound to reduction to obtain (2,3,4,4-tetramethylcyclopentyl)methanol represented by the following general formula: and a step of subjecting (2,3,4,4-tetramethylcyclopentyl) methanol to acylation to obtain a (2,3,4,4-tetramethylcyclopentyl)methyl carboxylate compound represented by the following general formula: wherein R 2 represents a monovalent C 1-15 hydrocarbon group.