mhurhangee/ep-ind-claims huggingface dataset:
A sound system for a vehicle, comprising: one or more speakers; and a controller electrically coupled to the one or more speakers including executable instructions stored in non-transitory memory that cause the controller to increase a frequency of occurrence and audible level of a sound that is generated via the one or more speakers according to a state of a user control, wherein the user control includes an operating range that is subdivided into a plurality of sound group regions, each of the plurality of sound group regions including one or more sounds unique to a sound group region within the plurality of sound group regions, and wherein the one or more speakers are included within a vehicle passenger cabin. one or more speakers; and a controller electrically coupled to the one or more speakers including executable instructions stored in non-transitory memory that cause the controller to increase a frequency of occurrence and audible level of a sound that is generated via the one or more speakers according to a state of a user control, wherein
A polyethylene composition comprising: a first polyethylene resin having a density of from 0.915 g/cc to 0.970 g/cc and a melt index (I 2) from 10 g/10 min to 200 g/10 min, when measured according to ASTM D1238 at 190°C and 2.16 kg load; and a second polyethylene resin having a density of from 0.860 g/cc to 0.930 g/cc and a melt index (I 2) of from 400 g/10 min to 2000 g/10 min; wherein the density of the first polyethylene resin is greater than the density of the second polyethylene resin and the first polyethylene resin, the second polyethylene resin, or both are copolymers of ethylene monomer and at least one α-olefin comonomer, the α-olefin comonomer including C 3 -C 12 α-olefins. a first polyethylene resin having a density of from 0.915 g/cc to 0.970 g/cc and a melt index (I 2) from 10 g/10 min to 200 g/10 min, when measured according to ASTM D1238 at 190°C and 2.16 kg load; and a second polyethylene resin having a density of from 0.860 g/cc to 0.930 g/cc and a melt index (I 2) of from 400 g/10 min to 2000 g/10 min; wherein the density of the first polyethylene resin is greater than the density of the second polyethylene resin and the first polyethylene resin, the second polyethylene resin, or both are copolymers of ethylene monomer and at least one α-olefin comonomer, the α-olefin comonomer including C 3 -C 12 α-olefins.
A method for eliminating hotspots of a backlight module, the backlight module comprising a light-guide plate (202, 302), an optical film (203, 303) attached to a side of a light emitting face of the light-guide plate (202, 302), and a strip-like assembly of point light sources positioned at a side of a light incident face of the light-guide plate (202, 302), the strip-like assembly of point light sources comprising point light sources facing toward the light incident face of the light-guide plate (202, 302), and an edge of one side of the optical film (203, 303) corresponding to the light incident face of the light-guide plate (202, 302) provided with indents (203a, 303a), characterized in that the method comprises the following steps: step S1: performing optical simulation of the backlight module to simulate a hotspot effect; step S2: optimizing a shape of the indents (203a, 303a) to be formed in the optical film (203, 303) of the backlight module; and step S3:based on the simulation results, cutting an edge of the optical film (203, 303) corresponding to the light incident face of the light-guide plate (202, 302) so as to form the indents (203a, 303a), wherein step S2 further comprises: step S21: based on the simulated extent of the hotspot effect, performing simulated cutting of the optical film (203, 303) of the backlight module to achieve simulated indents, then performing optical simulation of the backlight module to simulate the hotspot effect; and step S22: if the simulated extent of the hotspot effect does not yet reach a predetermined expectation, then regulating a shape and size of the simulated indents of the optical film (203, 303) and returning to step S21; and if the obtained extent of the hotspot effect reaches the predetermined expectation, then using the obtained simulated indents for the indents to be formed in the optical film (203, 303) and returning to step S3. step S1: performing optical simulation of the backlight module to simulate a hotspot effect; step S2: optimizing a shape of the indents (203a, 303a) to be formed in the optical film (203, 303) of the backlight module; and step S3:based on the simulation results, cutting an edge of the optical film (203, 303) corresponding to the light incident face of the light-guide plate (202, 302) so as to form the indents (203a, 303a), step S21: based on the simulated extent of the hotspot effect, performing simulated cutting of the optical film (203, 303) of the backlight module to achieve simulated indents, then performing optical simulation of the backlight module to simulate the hotspot effect; and step S22: if the simulated extent of the hotspot effect does not yet reach a predetermined expectation, then regulating a shape and size of the simulated indents of the optical film (203, 303) and returning to step S21; and if the obtained extent of the hotspot effect reaches the predetermined expectation, then using the obtained simulated indents for the indents to be formed in the optical film (203, 303) and returning to step S3.
A biosensor comprising: a backside illumination complementary metal-oxide-semiconductor (CMOS) image sensor including: an electronic circuit layer (110, 113); and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: a substrate layer, and a plurality of photodiodes in contact with the electronic circuit layer (110, 113), and wherein a light receiving surface is defined by a surface of the plurality of photodiodes opposite to the electronic circuit layer; a passivation layer on the plurality of photodiodes, wherein the passivation layer includes an oxide; and a regular array of spots on the passivation layer above the light receiving surface, wherein each spot is a discrete area bearing positive charge sized and functionalized to receive and retain a nucleic acid macromolecule by non-covalent interaction, wherein each spot overlies a single photodiode or overlies a unit cell comprising a plurality of photodiodes, and wherein each spot of the array of spots is separated from other spots by areas that are inert in the sense that they do not receive and retain nucleic acid macromolecules, and wherein the biosensor does not comprise a color filter layer. a backside illumination complementary metal-oxide-semiconductor (CMOS) image sensor including: an electronic circuit layer (110, 113); and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: an electronic circuit layer (110, 113); and a photo sensing layer over the electronic circuit layer, wherein the photo sensing layer includes: a substrate layer, and a plurality of photodiodes in contact with the electronic circuit layer (110, 113), and wherein a light receiving surface is defined by a surface of the plurality of photodiodes opposite to the electronic circuit layer; a passivation layer on the plurality of photodiodes, wherein the passivation layer includes an oxide; and a regular array of spots on the passivation layer above the light receiving surface, wherein each spot is a discrete area bearing positive charge sized and functionalized to receive and retain a nucleic acid macromolecule by non-covalent interaction, wherein each spot overlies a single photodiode or overlies a unit cell comprising a plurality of photodiodes, and wherein each spot of the array of spots is separated from other spots by areas that are inert in the sense that they do not receive and retain nucleic acid macromolecules, and wherein the biosensor does not comprise a color filter layer.
A method of manufacturing a turbo-machine impeller comprising a hub and a plurality of blades, using powder material in an additive-manufacturing process; said method comprising: applying energy to said powder material by means of a high energy source; and solidifying said powder material, wherein at least one bulky portion of said hub is irradiated such that the powder material solidifies in a lattice structure surrounded by a solid skin structure enclosing said lattice structure; wherein the method further comprises the step of forming an impeller shroud and the step of forming a lattice structure in an inner volume of said impeller shroud.
A method for producing an exhaust gas retreatment device which in a tubular housing comprises at least one ceramic substrate body (3, 4) for exhaust gas retreatment, - in which a first substrate body is axially introduced into the housing and mounted in the housing by means of a first bearing mat, wherein the first bearing mat encloses the first substrate body in the circumferential direction and is radially preloaded between the first substrate body and the housing, - in which an axial support, which comprises a support ring and an annular support element held by the support ring is axially introduced into the housing and positioned therein so that it transmits a predetermined axial force onto the first substrate body via the support element, - in which the axial support is fixed on the housing at this axially preloaded positioning in that the support ring is welded to the housing, characterized in that a second substrate body is axially introduced into the housing and mounted in the housing by means of a second bearing mat, wherein the second bearing mat encloses the second substrate body in the circumferential direction and is radially preloaded between the second substrate body and the housing, and wherein axially between the first substrate body and the second substrate body an axial gap is formed, in which the support ring positions the support element. - in which a first substrate body is axially introduced into the housing and mounted in the housing by means of a first bearing mat, wherein the first bearing mat encloses the first substrate body in the circumferential direction and is radially preloaded between the first substrate body and the housing, - in which an axial support, which comprises a support ring and an annular support element held by the support ring is axially introduced into the housing and positioned therein so that it transmits a predetermined axial force onto the first substrate body via the support element, - in which the axial support is fixed on the housing at this axially preloaded positioning in that the support ring is welded to the housing,
A secondary battery comprising: an electrode assembly; a first electrode tab and a second electrode tab connected to the electrode assembly, wherein the first electrode tab comprises a first metal; an electrolyte; a film covering at least part of an outer surface of the first electrode tab; and a case arranged to accommodate the electrode assembly, first electrode tab, second electrode tab, electrolyte and at least part of the film; wherein the film comprises a ligand capable of forming a complex with ions of the first metal prior to contact with the electrolyte, characterised in that the film includes 3% to 10% by mass of the ligand, optionally wherein the film includes 4% to 6% by mass of the ligand. an electrode assembly; a first electrode tab and a second electrode tab connected to the electrode assembly, wherein the first electrode tab comprises a first metal; an electrolyte; a film covering at least part of an outer surface of the first electrode tab; and a case arranged to accommodate the electrode assembly, first electrode tab, second electrode tab, electrolyte and at least part of the film; wherein the film comprises a ligand capable of forming a complex with ions of the first metal prior to contact with the electrolyte, characterised in that the film includes 3% to 10% by mass of the ligand, optionally wherein the film includes 4% to 6% by mass of the ligand.
A cutting tool insert for machining of hardened steel, hot and cold working tool steel, die steel, case hardened steel, high speed steel and ductile grey cast iron, composed of a composite comprising a cBN-phase and a binder phase comprising a titaniumcarbonitride phase and a TiB 2 phase characterised in that in the XRD pattern from the composite using CuKa-radiation, the peak height ratio of the strongest TiB 2 peak and the strongest cBN peak is less than 0.06, and the peak from the titanium carbonitride phase in the XRD-pattern intersects both vertical lines of the PDF-lines of TiC (PDF 32-1383) and TiN (PDF 38-1420), whereby the lowest intersected point height is at least 0.15 of the maximum peak height of said titanium carbonitride phase.
A fabric comprising inherently flame resistant fibers and at least one ultraviolet-resistant additive incorporated into the inherently flame resistant fibers characterized in that the at least one ultraviolet-resistant additive is absorbed into the inherently flame resistant fibers, the ultraviolet-resistant additive comprising: • a benzophenone compound, a benzoic acid compound, or a mixture thereof or • a hindered amine light stabilizer or both • a benzophenone compound, a triazole compound, a benzoic acid compound, or a mixture thereof and • a hindered amine light stabilizer the fabric further comprising aryl ether, benzyl alcohol, N-cyclohexylpyrolidone, N,N-diethyl-m-toluamide (DEET), dimethylformamide, dibutyl acetamide, Isophorone, Acetophenone, or Dibutylformamide incorporated into the inherently flame resistant fibers. • a benzophenone compound, a benzoic acid compound, or a mixture thereof or • a hindered amine light stabilizer or both • a benzophenone compound, a triazole compound, a benzoic acid compound, or a mixture thereof and • a hindered amine light stabilizer the fabric further comprising aryl ether, benzyl alcohol, N-cyclohexylpyrolidone, N,N-diethyl-m-toluamide (DEET), dimethylformamide, dibutyl acetamide, Isophorone, Acetophenone, or Dibutylformamide incorporated into the inherently flame resistant fibers.
A blade (1.1) for a water turbine, the blade comprising the following features and components: 1.1 a body made of sheet steel or of cast steel, said body having mutually opposite outer faces with which the water makes contact during operation; 1.2 at least one relief notch which is located in an edge region of the blade (1.1) and extends through mutually opposite regions of the outer faces; 1.3 a curable filling compound which fills the cavity of the notch; characterized by the following features: 1.4 retaining bodies are fixed to the notch face (5.1), said retaining bodies being embedded in the filling compound in the mounted state; 1.5 the retaining bodies have protrusions which prevent the filling compound from falling out once the filling compound has cured. 1.1 a body made of sheet steel or of cast steel, said body having mutually opposite outer faces with which the water makes contact during operation; 1.2 at least one relief notch which is located in an edge region of the blade (1.1) and extends through mutually opposite regions of the outer faces; 1.3 a curable filling compound which fills the cavity of the notch; 1.4 retaining bodies are fixed to the notch face (5.1), said retaining bodies being embedded in the filling compound in the mounted state; 1.5 the retaining bodies have protrusions which prevent the filling compound from falling out once the filling compound has cured.
A fistula-isolating device for isolating a fistula in a wound bed undergoing reduced-pressure treatment, the fistula-isolating device comprising: a first flange member having a first aperture; a second flange member having a second aperture; characterized by an adjustable passageway member coupled to the first flange member and to the second flange member, the adjustable passageway member having a passageway substantially aligned with the first aperture of the first flange member and the second aperture of the second flange member; wherein the adjustable passageway member is variably moveable between a retracted position in which the adjustable passageway member has a length L R and an extended position in which the adjustable passageway member has a length L E and wherein L E > 3L R; wherein the adjustable passageway member is substantially fluid impermeable; and a perimeter member positioned substantially around an exterior perimeter of the adjustable passageway member between the first flange member and the second flange member. a first flange member having a first aperture; a second flange member having a second aperture; characterized by an adjustable passageway member coupled to the first flange member and to the second flange member, the adjustable passageway member having a passageway substantially aligned with the first aperture of the first flange member and the second aperture of the second flange member; wherein the adjustable passageway member is variably moveable between a retracted position in which the adjustable passageway member has a length L R and an extended position in which the adjustable passageway member has a length L E and wherein L E > 3L R; wherein the adjustable passageway member is substantially fluid impermeable; and a perimeter member positioned substantially around an exterior perimeter of the adjustable passageway member between the first flange member and the second flange member.
Cement clinker of the following composition (all values are % mass): CaO: 31-46%, preferably 31-43%; SiO 2: 31-40%; Al 2 O 3: 13-24%. CaO: 31-46%, preferably 31-43%; SiO 2: 31-40%; Al 2 O 3: 13-24%.
A method for predicting a future quality of service of a wireless communication link between a mobile transceiver and a further mobile transceiver, the method comprising: determining information on one or more active transceivers in the environment of the mobile transceiver; determining information on an activity of the one or more active transceivers, the activity of the one or more active transceivers being activity with respect to wireless transmissions; and predicting the future quality of service of the wireless communication link based on the activity of the one or more active transceivers, characterized in that an activity of an active transceiver that is located closer to the further mobile transceiver receives less weight in the prediction of the future quality of service than an activity of an active transceiver that is located further away from the further mobile transceiver. determining information on one or more active transceivers in the environment of the mobile transceiver; determining information on an activity of the one or more active transceivers, the activity of the one or more active transceivers being activity with respect to wireless transmissions; and predicting the future quality of service of the wireless communication link based on the activity of the one or more active transceivers, characterized in that an activity of an active transceiver that is located closer to the further mobile transceiver receives less weight in the prediction of the future quality of service than an activity of an active transceiver that is located further away from the further mobile transceiver.
A light structural mortar composition for use in ferro-cement constructive systems consisting of: a) a type II synthetic anhydrite from 80% by weight, wherein the type II synthetic anhydrite has a cubic crystal that is formed at a temperature between 400 and 600 degrees centigrade and a particle size that causes 10% of this composition to be retained in 150 mesh; b) calcium hydroxide from 2% to 6% by weight; c) light loads from 4% to 20% by weight, wherein the light loads are selected from: natural expanded Piro, Tepezil, Pumice, expanded Perlite, and mixtures thereof; and d) soluble additives from 0.03% to 10% by weight, and wherein the composition has a low density of 1,150 kg/m 3 and a resistance to axial compression from 150 kg/cm 2 to 160 kg/cm 2 after 14 days a) a type II synthetic anhydrite from 80% by weight, wherein the type II synthetic anhydrite has a cubic crystal that is formed at a temperature between 400 and 600 degrees centigrade and a particle size that causes 10% of this composition to be retained in 150 mesh; b) calcium hydroxide from 2% to 6% by weight; c) light loads from 4% to 20% by weight, wherein the light loads are selected from: natural expanded Piro, Tepezil, Pumice, expanded Perlite, and mixtures thereof; and d) soluble additives from 0.03% to 10% by weight, and
Method for the controlled feeding of a reducing agent into an exhaust gas treatment unit with a storage capability for a component of the exhaust gas which is to be reduced from a mobile internal combustion engine, in which urea is fed in as reducing agent to an exhaust gas treatment unit of an SCR catalytic converter type with a nitrogen oxide storage capability, the component of the exhaust gas which is to be reduced being nitrogen oxides and furthermore the SCR catalytic converter being designed with an electric heater, comprising at least the following steps: a) determination of a quantity of the component of the exhaust gas which is generated by the mobile internal combustion engine and is to be reduced; b) determination of a storage capability, which varies in respect of different operating situations of the internal combustion engine, of the exhaust gas treatment unit, comprising an adsorption behavior and desorption behavior of the component of the exhaust gas which is to be reduced; c) determination of metering of the reducing agent into the exhaust gas treatment unit as a function of the steps a) and b); and d) feeding of the reducing agent into the exhaust gas treatment unit; the storage capability of the exhaust gas treatment unit being controlled actively, the temperature in the region of the exhaust gas treatment unit being controlled actively. a) determination of a quantity of the component of the exhaust gas which is generated by the mobile internal combustion engine and is to be reduced; b) determination of a storage capability, which varies in respect of different operating situations of the internal combustion engine, of the exhaust gas treatment unit, comprising an adsorption behavior and desorption behavior of the component of the exhaust gas which is to be reduced; c) determination of metering of the reducing agent into the exhaust gas treatment unit as a function of the steps a) and b); and d) feeding of the reducing agent into the exhaust gas treatment unit;