mhurhangee/ep-ind-claims huggingface dataset:
A polycarbonate resin composition, comprising, with respect to 100 parts by mass of an aromatic polycarbonate resin, 0.005 part by mass to 1 part by mass of a phosphorus-based compound having an aryl group, and 0.005 part by mass to 5 parts by mass of a polyether compound having a polyoxyalkylene structure, wherein the phosphorus-based compound is such a compound that an amount of a compound having a phenol structure produced by decomposition of the compound 1,500 hours after standing thereof under conditions of 40°C and a humidity of 90% is 5 mass% or less with respect to the phosphorus-based compound, and wherein the phosphorus-based compound is a pentaerythritol diphosphite compound represented by the following formula (II-1): wherein R B1 to R B8 each independently represent an alkyl group or an alkenyl group, R B1 and R B2, R B3 and R B4, R B5 and R B6, or R B7 and R B8 may be bonded to each other to form a ring, R B9 to R B12 each independently represent a hydrogen atom or an alkyl group, m1 to m4 each independently represent an integer of from 0 to 5, and Z 1 to Z 4 each independently represent a single bond or a carbon atom, and when Z 1 to Z 4 each represent a single bond, R B1 to R B8 are excluded from the formula (II-1). wherein the phosphorus-based compound is such a compound that an amount of a compound having a phenol structure produced by decomposition of the compound 1,500 hours after standing thereof under conditions of 40°C and a humidity of 90% is 5 mass% or less with respect to the phosphorus-based compound, and wherein the phosphorus-based compound is a pentaerythritol diphosphite compound represented by the following formula (II-1): wherein R B1 to R B8 each independently represent an alkyl group or an alkenyl group, R B1 and R B2, R B3 and R B4, R B5 and R B6, or R B7 and R B8 may be bonded to each other to form a ring, R B9 to R B12 each independently represent a hydrogen atom or an alkyl group, m1 to m4 each independently represent an integer of from 0 to 5, and Z 1 to Z 4 each independently represent a single bond or a carbon atom, and when Z 1 to Z 4 each represent a single bond, R B1 to R B8 are excluded from the formula (II-1).
A humidification system comprising a respiratory circuit for delivering a volume of gas to a patient and a humidifier portion (130; 200; 300; 400) for delivering a humidifying agent, more in particular comprising water, to the volume of gas flowing through the respiratory circuit, comprising: a flow controller (220, 340, 440) for pulsing, via the humidifier portion (130; 200; 300; 400), a delivery of humidifying agent to the volume of gas; a controller (250, 360, 460) configured to actuate the flow controller (220, 340, 440) such that a pulsed interval commences immediately after patient exhalation or during patient inhalation, and a non-pulsed interval commences immediately after patient inhalation or during patient exhalation; a heating element (320, 420) for heating the volume of gas upstream of a discharge line (260, 365, 490) of the respiratory circuit; and wherein the controller (250,360,460) is configured to actuate the flow controller (220,340,440) such that a dry volume of gas is delivered to the discharge line (260, 365, 490) of the respiratory circuit during the non-pulsed interval, said dry volume of gas being capable of vaporizing condensed humidifying agent present in the respiratory circuit to reduce the condensed humidifying agent present in the humidification system. a flow controller (220, 340, 440) for pulsing, via the humidifier portion (130; 200; 300; 400), a delivery of humidifying agent to the volume of gas; a controller (250, 360, 460) configured to actuate the flow controller (220, 340, 440) such that a pulsed interval commences immediately after patient exhalation or during patient inhalation, and a non-pulsed interval commences immediately after patient inhalation or during patient exhalation; a heating element (320, 420) for heating the volume of gas upstream of a discharge line (260, 365, 490) of the respiratory circuit; and wherein the controller (250,360,460) is configured to actuate the flow controller (220,340,440) such that a dry volume of gas is delivered to the discharge line (260, 365, 490) of the respiratory circuit during the non-pulsed interval, said dry volume of gas being capable of vaporizing condensed humidifying agent present in the respiratory circuit to reduce the condensed humidifying agent present in the humidification system.
A paint brush comprising a bristle portion for applying paint, a handle portion, and a ferrule which secures the bristle portion to the handle portion; in which the ferrule partially locates inside the handle portion, and the brush is adapted such that its centre of gravity is positioned to enable the brush to rest on a surface on its handle portion with the bristle portion suspended above the surface, wherein the handle includes a metal lid opener at its free end in which centre of gravity is positioned by positioning and/or weighting the metal lid opener to enable the brush to rest on a surface on its handle portion with the bristle portion suspended above the surface.
An in vitro method for differentiating human pluripotent stem (hPS) cells into hepatocyte-like cells or mature hepatocytes, the method comprising the steps: i) Seeding and differentiating of hPS cells into definitive endoderm cells on a 2-dimensional surface; and ii) Transferring the DE cells of step i) to a 3-dimensional scaffold and further differentiating the DE cells seeded onto the 3D scaffold into hepatocyte-like cells or mature hepatocytes. i) Seeding and differentiating of hPS cells into definitive endoderm cells on a 2-dimensional surface; and ii) Transferring the DE cells of step i) to a 3-dimensional scaffold and further differentiating the DE cells seeded onto the 3D scaffold into hepatocyte-like cells or mature hepatocytes.
Measuring tube for an electromagnetic flowmeter, comprising a carrier tube (3, 13, 23, 33, 53, 62, 73, 103), a liner (22, 52, 72, 102) arranged in the carrier tube (3, 13, 23, 33, 53, 62, 73, 103) and a support body (15, 25, 35, 55, 65, 125) embedded in the liner (22, 52, 72, 102), wherein the support body (15, 25, 35, 55, 65, 125) has material recesses, wherein the liner extends through the material recesses, wherein the carrier tube (3, 13, 23, 33, 53, 62, 73, 103) has a spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126) on an interior wall oriented towards a measuring tube axis M, characterized in that the spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126) is formed as an depression in the carrier tube (3, 13, 23, 33, 53, 62, 73, 103), wherein the liner (22, 52, 72, 102) is present in the depression of the spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126). a carrier tube (3, 13, 23, 33, 53, 62, 73, 103), a liner (22, 52, 72, 102) arranged in the carrier tube (3, 13, 23, 33, 53, 62, 73, 103) and a support body (15, 25, 35, 55, 65, 125) embedded in the liner (22, 52, 72, 102), wherein the support body (15, 25, 35, 55, 65, 125) has material recesses, wherein the liner extends through the material recesses, wherein the carrier tube (3, 13, 23, 33, 53, 62, 73, 103) has a spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126) on an interior wall oriented towards a measuring tube axis M, characterized in that the spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126) is formed as an depression in the carrier tube (3, 13, 23, 33, 53, 62, 73, 103), wherein the liner (22, 52, 72, 102) is present in the depression of the spiral contour (6, 16, 26, 36, 56, 76, 86, 106, 126).
A multi-chip power amplifier comprising: a) a housing having a plurality of housing input leads (RF input 1, RF input 2, RF input 3, RF input 4) and a plurality of housing output leads (RF output 1, RF output 2, RF output 3, RF output 4), b) a plurality of semiconductor chips (20,21,22,23) mounted in the housing, each chip comprising a transistor amplifier, c) a plurality of first matching networks with each matching network coupling a semiconductor chip to a corresponding housing input lead, and d) a plurality of second matching networks with each network coupling a semiconductor chip to a corresponding housing output lead whereby each chip has its own housing input lead and housing output lead. a) a housing having a plurality of housing input leads (RF input 1, RF input 2, RF input 3, RF input 4) and a plurality of housing output leads (RF output 1, RF output 2, RF output 3, RF output 4), b) a plurality of semiconductor chips (20,21,22,23) mounted in the housing, each chip comprising a transistor amplifier, c) a plurality of first matching networks with each matching network coupling a semiconductor chip to a corresponding housing input lead, and d) a plurality of second matching networks with each network coupling a semiconductor chip to a corresponding housing output lead whereby each chip has its own housing input lead and housing output lead.
A cable for connecting to an electronic device, the cable comprising: - an electrical cord, a connector, a sensor device and an alarm unit, wherein - the connector is connected to one end of the electrical cord, and adapted to connect the cable to the electronic device, and wherein - the alarm unit is connected to the sensor device and arranged to initiate an alarm based on output data from the sensor device, characterized in that - the sensor device is a photo detector using an infrared sensor arranged at the connector so that the sensor device is facing the electronic device and is adapted for collecting sensor data related to temperature from the electronic device when the connector is connected to the electronic device. - an electrical cord, a connector, a sensor device and an alarm unit, wherein - the connector is connected to one end of the electrical cord, and adapted to connect the cable to the electronic device, - the alarm unit is connected to the sensor device and arranged to initiate an alarm based on output data from the sensor device, - the sensor device is a photo detector using an infrared sensor arranged at the connector so that the sensor device is facing the electronic device and is adapted for collecting sensor data related to temperature from the electronic device when the connector is connected to the electronic device.
A system (1,51) for controlling one or more lighting devices to render light effects while a display device displays video content, said system (1,51) comprising: at least one output interface (4,54); and at least one processor (5,55) configured to: - obtain a level of dynamicity of said video content, - select one or more lighting devices from a plurality of lighting devices based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices based on said video content, and - control, via said at least one output interface (4,54), said one or more lighting devices to render said light effects. at least one output interface (4,54); and at least one processor (5,55) configured to: - obtain a level of dynamicity of said video content, - select one or more lighting devices from a plurality of lighting devices based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices based on said video content, and - control, via said at least one output interface (4,54), said one or more lighting devices to render said light effects. - obtain a level of dynamicity of said video content, - select one or more lighting devices from a plurality of lighting devices based on said level of dynamicity, a first quantity of lighting devices being selected when said level of dynamicity exceeds a threshold and a second quantity of lighting devices being selected when said level of dynamicity does not exceed said threshold, said first quantity being higher than said second quantity, - determine light effects for said one or more lighting devices based on said video content, and - control, via said at least one output interface (4,54), said one or more lighting devices to render said light effects.
A Gunn diode comprising a. a GaN substrate i. having n-type conduction and ii. having a first major side, a second major side on an opposite side of the substrate, a first termination edge at an end of the substrate, a second termination edge at an opposite end of the substrate, a first lateral boundary at a side of the substrate, and a second lateral boundary at an opposite side of the substrate, and iii. having a refractive index n at an emission wavelength, λ, b. an anode contact on the first major side of the GaN substrate, c. an n-GaN active layer residing on the second major side of the substrate, and d. a cathode formed on the second major side of the GaN substrate so that the Gunn diode is configured to emit a terahertz wave formed in the active layer, characterised in that a length, a width, a thickness, and the refractive index n of the GaN substrate define a slab waveguide for the terahertz wave such that the Gunn diode emits the terahertz wave from a first termination edge of the slab waveguide during operation, the first termination edge of the slab waveguide corresponding to a plane of the first termination edge of the substrate and a second termination edge of the slab waveguide corresponding to a plane of the second termination edge of the substrate. a. a GaN substrate i. having n-type conduction and ii. having a first major side, a second major side on an opposite side of the substrate, a first termination edge at an end of the substrate, a second termination edge at an opposite end of the substrate, a first lateral boundary at a side of the substrate, and a second lateral boundary at an opposite side of the substrate, and iii. having a refractive index n at an emission wavelength, λ, i. having n-type conduction and ii. having a first major side, a second major side on an opposite side of the substrate, a first termination edge at an end of the substrate, a second termination edge at an opposite end of the substrate, a first lateral boundary at a side of the substrate, and a second lateral boundary at an opposite side of the substrate, and iii. having a refractive index n at an emission wavelength, λ, b. an anode contact on the first major side of the GaN substrate, c. an n-GaN active layer residing on the second major side of the substrate, and d. a cathode formed on the second major side of the GaN substrate so that the Gunn diode is configured to emit a terahertz wave formed in the active layer,
A synergistic conductivity improver additive composition for a distillate fuel said additive composition comprising: A) a mixture of (i) alkenyl polysulfone polymer, (ii) C 16 -C 24 -α-olefin maleimide copolymers having at least one basic nitrogen atom, (iii) sulfonic acid, and (iv) aromatic solvent; and B) a mixture of (i) alkenyl polysulfone polymer, (v) polymeric reaction product of a C 8 -C 18 aliphatic amine or diamine with epichlorohydrin; (iii) sulfonic acid, (iv) aromatic solvent; and (vi) a quaternary ammonium compound, wherein the additive composition comprises from 30 to 60 wt.% component and from 30 to 60 wt.% component based on a total weight of the additive composition; wherein an amount of (i) in each of components and ranges from 10 to 20 % by weight based on a total weight of each component; wherein an amount of (ii) in component ranges from 8 to 15 % by weight of a total weight of component; wherein an amount of (iii) in each of components and ranges from 5 to 15 % by weight based on a total weight of each component; wherein an amount of (v) in component ranges from 1 to 10 % by weight of a total weight of component. A) a mixture of (i) alkenyl polysulfone polymer, (ii) C 16 -C 24 -α-olefin maleimide copolymers having at least one basic nitrogen atom, (iii) sulfonic acid, and (iv) aromatic solvent; and B) a mixture of (i) alkenyl polysulfone polymer, (v) polymeric reaction product of a C 8 -C 18 aliphatic amine or diamine with epichlorohydrin; (iii) sulfonic acid, (iv) aromatic solvent; and (vi) a quaternary ammonium compound, wherein the additive composition comprises from 30 to 60 wt.% component and from 30 to 60 wt.% component based on a total weight of the additive composition; wherein an amount of (i) in each of components and ranges from 10 to 20 % by weight based on a total weight of each component; wherein an amount of (ii) in component ranges from 8 to 15 % by weight of a total weight of component; wherein an amount of (iii) in each of components and ranges from 5 to 15 % by weight based on a total weight of each component; wherein an amount of (v) in component ranges from 1 to 10 % by weight of a total weight of component. wherein the additive composition comprises from 30 to 60 wt.% component and from 30 to 60 wt.% component based on a total weight of the additive composition; wherein an amount of (i) in each of components and ranges from 10 to 20 % by weight based on a total weight of each component; wherein an amount of (ii) in component ranges from 8 to 15 % by weight of a total weight of component; wherein an amount of (iii) in each of components and ranges from 5 to 15 % by weight based on a total weight of each component; wherein an amount of (v) in component ranges from 1 to 10 % by weight of a total weight of component.
Compartment for an electrical energy storage device for a motor vehicle, this compartment being designed to accommodate at least one electrical energy storage cell, in particular a plurality of cells, this compartment being made at least partially of a composite material, this compartment comprising a casing and a cover designed to close the casing, this compartment comprising at least one electrical track designed to be brought into electrical contact with at least one of the cells, when the cover is mounted on the casing, characterized in that the electrical track is inserted, at least over part of its length, into an electrically insulating sheath (71; 73), the electrical track being borne by the cover.
Tread profile of a pneumatic vehicle tyre, having radially elevated profile elements (1, 2, 3, 4, 5), for example profile block elements or profile ribs, which are separated from one another by channels (6, 7, 8, 9), having a circumferential rib which is delimited outwardly in a radial direction R of the tyre by a radially outer surface, wherein, in the radially outer surface of the circumferential rib, distributed over the circumference of the pneumatic vehicle tyre, spaced apart from one another in a circumferential direction U and spaced apart in an axial direction A from the closest rib flank of the circumferential rib, there are formed channels which form a closed annular form around a rib portion, characterized in that a longitudinal extent portion adjacent to the closest circumferential channel delimiting the circumferential rib is formed along its extent with a constant channel depth T 2, wherein transverse extent portions (13, 14) are formed over at least three quarters of their extent length with a channel depth T 1, where T 1 > T 2, which increases continuously along said extent length in the extent direction toward the length extent portion, which is adjacent to the closest circumferential channel that delimits the circumferential rib, in the axial direction A of the tyre.
An ethylene/1-hexene copolymer having: a weight average molecular weight (g/mol) of 50,000 to 150,000, wherein the weight average molecular weight is measured by GPC, a molecular weight distribution (Mw/Mn) of 3 to 8, wherein the molecular weight distribution is measured by GPC, a density (g/cm 3) of 0.940 to 0.970, wherein the density is measured according to ASTM 1505, MFR 2.16 (melt flow index measured at 190°C under a load of 2.16 kg according to ASTM D 1238) of 4 to 8, a diameter of spherulite of 20 μm or less, wherein the diameter of the spherulite is measured after the ethylene-1-hexene copolymer is completely melted at 190°C and then reaches the crystallization temperature at a speed of 10°C/minute, wherein the diameter of the spherulite is the size when each spherulite overlaps according to the growth of the spherulite, and a half crystallization time of 6 minutes or less measured at 123°C, wherein the half crystallization time is measured using at differential scanning calorimetry and is the time when it is a half of the peak value in the heat quantity that appears after the ethylene/1-hexene copolymer is completely melted at 190°C, and quenched at 80°C/minute up to a crystallization temperature of 123°C. a weight average molecular weight (g/mol) of 50,000 to 150,000, wherein the weight average molecular weight is measured by GPC, a molecular weight distribution (Mw/Mn) of 3 to 8, wherein the molecular weight distribution is measured by GPC, a density (g/cm 3) of 0.940 to 0.970, wherein the density is measured according to ASTM 1505, MFR 2.16 (melt flow index measured at 190°C under a load of 2.16 kg according to ASTM D 1238) of 4 to 8, a diameter of spherulite of 20 μm or less, wherein the diameter of the spherulite is measured after the ethylene-1-hexene copolymer is completely melted at 190°C and then reaches the crystallization temperature at a speed of 10°C/minute, wherein the diameter of the spherulite is the size when each spherulite overlaps according to the growth of the spherulite, and a half crystallization time of 6 minutes or less measured at 123°C, wherein the half crystallization time is measured using at differential scanning calorimetry and is the time when it is a half of the peak value in the heat quantity that appears after the ethylene/1-hexene copolymer is completely melted at 190°C, and quenched at 80°C/minute up to a crystallization temperature of 123°C.
Method for producing a telescopic box made from a solid sheet, comprising the following steps: - applying a finish to at least a first face of a solid sheet prior to the shaping thereof; then - producing grooves in the sheet, on a second face which is different from the first face, so as to obtain V-shaped grooves in the sheet in order to separate rectangular panels 11 and a bottom 14 by lines cut halfway 12 - cutting the sheet along an outline having said four rectangular panels 11 and said rectangular bottom 14, such that the edges of the outline are at least partly beveled; - applying glue to at least part of the beveled edges; - folding the box along the grooves such that the complementary beveled edges come into contact and adhere in pairs, said edges which are in contact being parallel in pairs, characterized in that said gluing step comprises alternately applying lines of slow-setting glue and dots of fast-setting glue to at least one of the two complementary beveled edges. - applying a finish to at least a first face of a solid sheet prior to the shaping thereof; then - producing grooves in the sheet, on a second face which is different from the first face, so as to obtain V-shaped grooves in the sheet in order to separate rectangular panels 11 and a bottom 14 by lines cut halfway 12 - cutting the sheet along an outline having said four rectangular panels 11 and said rectangular bottom 14, such that the edges of the outline are at least partly beveled; - applying glue to at least part of the beveled edges; - folding the box along the grooves such that the complementary beveled edges come into contact and adhere in pairs, said edges which are in contact being parallel in pairs, characterized in that said gluing step comprises alternately applying lines of slow-setting glue and dots of fast-setting glue to at least one of the two complementary beveled edges.