mhurhangee/ep-ind-claims huggingface dataset:
A stack assembly, comprising: a glass element comprising a thickness of less than or equal to 200 microns; and a support layer adjacent to the glass element, the support layer comprising a first layer and a second layer, wherein the first layer comprises a first material and an adhesive material that joins the first material with the glass element, wherein the first layer comprises a first stiffness of from 9 × 10 5 N/m to 2.0 × 10 6 N/m, and the second layer comprises a second stiffness of from 1 × 10 5 N/m to 3 × 10 5 N/m, and wherein the first stiffness and the second stiffness are measured according to the method in the description. a glass element comprising a thickness of less than or equal to 200 microns; and a support layer adjacent to the glass element, the support layer comprising a first layer and a second layer, wherein the first layer comprises a first material and an adhesive material that joins the first material with the glass element, wherein the first layer comprises a first stiffness of from 9 × 10 5 N/m to 2.0 × 10 6 N/m, and the second layer comprises a second stiffness of from 1 × 10 5 N/m to 3 × 10 5 N/m, and wherein the first stiffness and the second stiffness are measured according to the method in the description.
A fuel cell system, comprising a fuel cell stack, a housing, a first coolant port, a second coolant port, and a cooling device having a coolant pump and a heat exchanger in fluid communication with the coolant pump, wherein the housing comprises an upper side and a bottom side, wherein the fuel cell stack is arranged inside the housing, wherein the first coolant port and the second coolant port each comprise a coolant tube having an inner tube, an outer tube and a gap between the inner tube and the outer tube, wherein each of the first coolant port and the second coolant port reach through the housing in an inclined way such that an inner end is further to the upper side than an outer end, and wherein the first coolant port and the second coolant port are coupled to the cooling device and a first coolant path of the fuel cell stack to form a coolant loop. a fuel cell stack, a housing, a first coolant port, a second coolant port, and a cooling device having a coolant pump and a heat exchanger in fluid communication with the coolant pump, wherein the housing comprises an upper side and a bottom side, wherein the fuel cell stack is arranged inside the housing, wherein the first coolant port and the second coolant port each comprise a coolant tube having an inner tube, an outer tube and a gap between the inner tube and the outer tube, wherein each of the first coolant port and the second coolant port reach through the housing in an inclined way such that an inner end is further to the upper side than an outer end, and wherein the first coolant port and the second coolant port are coupled to the cooling device and a first coolant path of the fuel cell stack to form a coolant loop.
A method for processing detected audio waveforms in a first mode and a second mode, comprising: detecting, by a microphone, an audio waveform input; time stamping the audio waveform input; detecting a touchless gesture; time stamping the detected touchless gesture; and selectively processing, by one or more processors coupled to the microphone, the audio waveform input in the second mode when the time stamp of the audio waveform input approximately matches the time stamp of the detected touchless gesture; further comprising enabling a gesture detection procedure in response to the microphone detecting the audio waveform input. detecting, by a microphone, an audio waveform input; time stamping the audio waveform input; detecting a touchless gesture; time stamping the detected touchless gesture; and selectively processing, by one or more processors coupled to the microphone, the audio waveform input in the second mode when the time stamp of the audio waveform input approximately matches the time stamp of the detected touchless gesture; further comprising enabling a gesture detection procedure in response to the microphone detecting the audio waveform input.
A computed tomography detector array comprising: a monolithic scintillator that comprises: at least a first scintillator region, a second scintillator region, and an optically reflective barrier therebetween; wherein the detector array is configured to detect X-ray radiation traversing an examination region and impinging the monolithic scintillator and generate first projection data indicative of an energy of x-ray radiation absorbed by the first scintillator region and second projection data indicative of an energy of x-ray radiation traversing the first scintillator region and absorbed by the second scintillator region, and wherein the optically reflective barrier is oriented parallel to a surface of the detector array configured to initially receive X-ray radiation; and wherein the optically reflective barrier comprises two barriers (330, 332) parallel to the surface of the detector array configured to initially receive the X-ray radiation, wherein the two barriers of the optically reflective barrier are located at the outer parts of the optically reflective barrier, wherein a crystal structure of the two barriers of the optically reflective barrier has been structurally altered by laser, and wherein the two barriers of the optically reflective barrier are separated by a distance between 2 microns and 100 microns, and; wherein a material of the optically reflective barrier between the two barriers of the optically reflective barrier is of the same physical bulk as a material of the monolithic scintillator, wherein the material of the monolithic scintillator is a physically connected material. at least a first scintillator region, a second scintillator region, and an optically reflective barrier therebetween; wherein the detector array is configured to detect X-ray radiation traversing an examination region and impinging the monolithic scintillator and generate first projection data indicative of an energy of x-ray radiation absorbed by the first scintillator region and second projection data indicative of an energy of x-ray radiation traversing the first scintillator region and absorbed by the second scintillator region, and wherein the optically reflective barrier is oriented parallel to a surface of the detector array configured to initially receive X-ray radiation; and wherein the optically reflective barrier comprises two barriers (330, 332) parallel to the surface of the detector array configured to initially receive the X-ray radiation, wherein the two barriers of the optically reflective barrier are located at the outer parts of the optically reflective barrier, wherein a crystal structure of the two barriers of the optically reflective barrier has been structurally altered by laser, and wherein the two barriers of the optically reflective barrier are separated by a distance between 2 microns and 100 microns, and; wherein a material of the optically reflective barrier between the two barriers of the optically reflective barrier is of the same physical bulk as a material of the monolithic scintillator, wherein the material of the monolithic scintillator is a physically connected material.
A process for producing cumene, the process comprising: (a) contacting benzene and a C 3 alkylating agent under alkylation conditions with an alkylation catalyst in an alkylation zone to produce an alkylation effluent comprising cumene and alkylaromatic compounds heavier than cumene, wherein said alkylation catalyst comprises at least one zeolite catalyst selected from the group consisting of ZSM-3, ZSM-4, ZSM-5, ZSM-11, ZSM-12, ZSM-14, ZSM-18, ZSM-20, ZSM-22, ZSM-23, ZSM-35, ZSM-48, zeolite beta, zeolite Y, Ultrastable Y, Dealuminized Y (Deal Y), mordenite, MCM-22, PSH-3, SSZ-25, ERB-1, ITQ-1, ITQ-2, MCM-36, MCM-49, MCM-56, and UZM-8; (b) recovering cumene from said alkylation effluent to leave a byproduct stream containing said alkylaromatic compounds heavier than cumene; (c) separating the byproduct stream into a polyisopropylbenzene-containing stream, an aromatic overhead stream which comprises butylbenzene and/or cymene in a total concentration of up to 50 weight %, and a bottoms stream; (d) recycling at least part of the aromatic overhead stream to the alkylation zone; and (e) contacting the polyisopropylbenzene-containing stream with benzene in the presence of a transalkylation catalyst in a transalkylation zone to produce a transalkylation effluent comprising cumene; wherein the butylbenzene and/or cymene in the overhead stream react in the alkylation reactor partly to produce compounds heavier than triisopropylbenzene (TIPB) and partly to produce C 15 - cumene precursor compounds, such as sec-butylcumenes, tert-butylcumenes and methyl-diisopropylbenzenes, wherein these cumene precursor compounds are recovered from the alkylation effluent in step (c) as part of the polyisopropylbenzene-containing stream and are recycled to the transalkylation zone where they react with benzene to produce additional cumene. (a) contacting benzene and a C 3 alkylating agent under alkylation conditions with an alkylation catalyst in an alkylation zone to produce an alkylation effluent comprising cumene and alkylaromatic compounds heavier than cumene, wherein said alkylation catalyst comprises at least one zeolite catalyst selected from the group consisting of ZSM-3, ZSM-4, ZSM-5, ZSM-11, ZSM-12, ZSM-14, ZSM-18, ZSM-20, ZSM-22, ZSM-23, ZSM-35, ZSM-48, zeolite beta, zeolite Y, Ultrastable Y, Dealuminized Y (Deal Y), mordenite, MCM-22, PSH-3, SSZ-25, ERB-1, ITQ-1, ITQ-2, MCM-36, MCM-49, MCM-56, and UZM-8; (b) recovering cumene from said alkylation effluent to leave a byproduct stream containing said alkylaromatic compounds heavier than cumene; (c) separating the byproduct stream into a polyisopropylbenzene-containing stream, an aromatic overhead stream which comprises butylbenzene and/or cymene in a total concentration of up to 50 weight %, and a bottoms stream; (d) recycling at least part of the aromatic overhead stream to the alkylation zone; and (e) contacting the polyisopropylbenzene-containing stream with benzene in the presence of a transalkylation catalyst in a transalkylation zone to produce a transalkylation effluent comprising cumene;
An Aspergillus niger ( A. niger) F22 strain having a nematicidal activity against the plant-parasitic nematodes Bursaphelenchus xylophilus ( B. xylophilus), and Meloidogyne spp., wherein the A. niger F22 strain is deposited with accession number KCTC 12771BP.
A communication method of a source device comprising: detecting a status of a first link directly connected from the source device to a destination device or a status of a second link connected from the source device to the destination device via a relay device; selecting any one of the first link and the second link based on a result of the detection; and transmitting data using the selected link, wherein the selecting any one of the first link and the second link comprises switching any one of the first link and the second link to the selected link based on the result of the detection in a preset link change interval, the communication method further comprising informing the destination device and the relay device of parameters including the preset link change interval or data sensing time for the destination device to detect whether data is transmitted through the selected link. detecting a status of a first link directly connected from the source device to a destination device or a status of a second link connected from the source device to the destination device via a relay device; selecting any one of the first link and the second link based on a result of the detection; and transmitting data using the selected link, wherein the selecting any one of the first link and the second link comprises switching any one of the first link and the second link to the selected link based on the result of the detection in a preset link change interval, the communication method further comprising informing the destination device and the relay device of parameters including the preset link change interval or data sensing time for the destination device to detect whether data is transmitted through the selected link.
A shunt resistor module, comprising: a shunt resistor; and a printed circuit board substrate configured so that the shunt resistor is directly fixed thereto, wherein the shunt resistor includes: a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, characterised in that the PCB substrate includes an assembly guide portion formed to be cut inward by a predetermined depth from an outermost side thereof to have a cut width corresponding to a thickness of the voltage measurement lead pin, and wherein the voltage measurement lead pin is fit into the assembly guide portion so that the resistor unit and the terminal unit are placed on a front surface of the PCB substrate and the end portion of the voltage measurement lead pin is caught at a rear surface of the PCB substrate. a shunt resistor; and a printed circuit board substrate configured so that the shunt resistor is directly fixed thereto, wherein the shunt resistor includes: a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, a resistor unit having a predetermined resistance; plate-shaped terminal units respectively configured to extend at both sides of the resistor unit; and a voltage measurement lead pin configured to protrude perpendicular to the terminal unit and having an end portion bent to be parallel to the terminal unit, characterised in that the PCB substrate includes an assembly guide portion formed to be cut inward by a predetermined depth from an outermost side thereof to have a cut width corresponding to a thickness of the voltage measurement lead pin, and wherein the voltage measurement lead pin is fit into the assembly guide portion so that the resistor unit and the terminal unit are placed on a front surface of the PCB substrate and the end portion of the voltage measurement lead pin is caught at a rear surface of the PCB substrate.
A method of making a coated substrate comprising: a. depositing a single layer undercoating comprising a mixture of alumina and silica over at least a portion of the substrate; b. fluidizing a precursor for titania nanostructures selected from titanium tetra iso-propoxide, titanium tetra chloride, titanium tetra n-butoxide, titanium tetraethoxide, titanium tetra methoxide, titanyl acetylacetonate, titanium tetrapropoxide and titanium tetra (triethanolaminato), wherein the fluidizing comprises atomizing the precursor into an aerosol; c. passing the aerosol through a high energy zone selected from a hot wall reactor, a chemical vapor particle deposition reactor, a combustion deposition reactor, a plasma chamber, laser beam and a microwave chamber; and d. forcing the fluidized precursor toward the substrate using compressed gas, to coat the undercoating with a layer of nanostructures. a. depositing a single layer undercoating comprising a mixture of alumina and silica over at least a portion of the substrate; b. fluidizing a precursor for titania nanostructures selected from titanium tetra iso-propoxide, titanium tetra chloride, titanium tetra n-butoxide, titanium tetraethoxide, titanium tetra methoxide, titanyl acetylacetonate, titanium tetrapropoxide and titanium tetra (triethanolaminato), wherein the fluidizing comprises atomizing the precursor into an aerosol; c. passing the aerosol through a high energy zone selected from a hot wall reactor, a chemical vapor particle deposition reactor, a combustion deposition reactor, a plasma chamber, laser beam and a microwave chamber; and d. forcing the fluidized precursor toward the substrate using compressed gas, to coat the undercoating with a layer of nanostructures.
A method comprising: displaying, via a touch-sensitive display of an electronic device, a soft input panel, SIP, keyboard (304, 226) in a straight layout, the keyboard including a plurality of keys; wherein in the straight layout the plurality of keys are arranged in one or more straight lines parallel to an edge of the touch-sensitive display; while displaying the SIP keyboard in the straight layout, displaying a graphical element at a top portion of the straight layout, the graphical element designating a first specific location for receiving a swipe input; receiving, via the touch sensitive display, a swipe input beginning at the first specific location of the graphical element and continuing in an arc motion toward a location on the straight layout keyboard; and in response to receiving the swipe, transitioning the display of the keyboard from the straight layout to an arc layout wherein transitioning the display of the keyboard from the straight layout to the arc layout includes moving, over a period of time, each of the plurality of keys from being arranged in the one or more straight lines parallel to the side of the touch surface to being arranged in one or more arced curves; and receiving input comprising a touch at a second specific location on the display, and a sliding across the display in an arc motion toward a further location on the display and in response to receiving the input comprising the touch at the second specific location on the display and the sliding across the display in the arc motion toward the further location on the display, reverting the display of the keyboard from the arc layout to the straight layout. displaying, via a touch-sensitive display of an electronic device, a soft input panel, SIP, keyboard (304, 226) in a straight layout, the keyboard including a plurality of keys; wherein in the straight layout the plurality of keys are arranged in one or more straight lines parallel to an edge of the touch-sensitive display; while displaying the SIP keyboard in the straight layout, displaying a graphical element at a top portion of the straight layout, the graphical element designating a first specific location for receiving a swipe input; receiving, via the touch sensitive display, a swipe input beginning at the first specific location of the graphical element and continuing in an arc motion toward a location on the straight layout keyboard; and in response to receiving the swipe, transitioning the display of the keyboard from the straight layout to an arc layout wherein transitioning the display of the keyboard from the straight layout to the arc layout includes moving, over a period of time, each of the plurality of keys from being arranged in the one or more straight lines parallel to the side of the touch surface to being arranged in one or more arced curves; and receiving input comprising a touch at a second specific location on the display, and
A method for packaging articles into printed packaging blanks, wherein the method comprises at least the following steps: - positioning a plurality of packaging blanks in a magazine, - extracting the packaging blanks from the magazine, and - bringing together the packaging blanks extracted from the magazine with articles so that a particular packaging blank hereby forms a particular packaging or a particular part of a particular packaging, in each case for at least one article, wherein the method provides the packaging blanks to be printed onto, wherein printing onto a particular packaging blank is carried out temporally after it has been positioned in the magazine and temporally before it is in each case brought together with the particular at least one article, the method being characterised in that at least one printhead prints onto a particular packaging blank while the particular packaging blank is located inside the magazine. - positioning a plurality of packaging blanks in a magazine, - extracting the packaging blanks from the magazine, and - bringing together the packaging blanks extracted from the magazine with articles so that a particular packaging blank hereby forms a particular packaging or a particular part of a particular packaging, in each case for at least one article,
A unitary substrate comprising: a first major surface comprising a plurality of staggered light redirecting features (235a-d); and an opposing second major surface comprising a plurality of staggered collimating microlenses (228a-d), each light redirecting feature (235a-d) corresponding to a different collimating microlens (228a-d) and comprising: an input surface (237a-d) for receiving light from an optical waveguide; and a light redirecting surface (235a-d) for redirecting the received light to the corresponding collimating microlens (228a-d) through the substrate to provide a collimated light, the light redirecting surface (235a-d) making an oblique angle with the input surface (237a-d); wherein the substrate and the pluralities of the collimating microlenses (228a-d) and the light redirecting features (235a-d) form a unitary construction. a first major surface comprising a plurality of staggered light redirecting features (235a-d); and an opposing second major surface comprising a plurality of staggered collimating microlenses (228a-d), each light redirecting feature (235a-d) corresponding to a different collimating microlens (228a-d) and comprising: an input surface (237a-d) for receiving light from an optical waveguide; and a light redirecting surface (235a-d) for redirecting the received light to the corresponding collimating microlens (228a-d) through the substrate to provide a collimated light, the light redirecting surface (235a-d) making an oblique angle with the input surface (237a-d); an input surface (237a-d) for receiving light from an optical waveguide; and a light redirecting surface (235a-d) for redirecting the received light to the corresponding collimating microlens (228a-d) through the substrate to provide a collimated light, the light redirecting surface (235a-d) making an oblique angle with the input surface (237a-d); wherein the substrate and the pluralities of the collimating microlenses (228a-d) and the light redirecting features (235a-d) form a unitary construction.
A method for determining risk factors for Alzheimer's disease in an individual, comprising: assaying a biological medium obtained from an individual for Biomarker 1 wherein Biomarker 1 is a peptide having an amino acid sequence L/IAENR and has a mass-to-charge ratio (m/z) of 602.3 at a charge state of 1 and wherein the presence of the Biomarker 1 in the individual indicates a risk factor for Alzheimer's disease.