mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for producing hot briquetted iron, HBI, the apparatus comprising: a feeder unit configured to cool and transport direct reduced iron, referred as DRI ; a quantitative dispenser unit configured to pulverize the DRI and discharge a predetermined fixed amount of the pulverized DRI at a time; a hot briquette forming unit configured to hot-press the fixed amount of the DRI to form hot iron briquettes; and a cooler unit configured to cool the hot iron briquettes, wherein the cooler unit comprises a cylindrical body with an inlet provided on a first side thereof and an outlet provided on a second side thereof, a cooling water spray nozzle provided inside the cylindrical body , and a transport screw or blade configured to transport the hot iron briquettes from the inlet to the outlet and provided in the cylindrical body , wherein the hot iron briquettes are introduced into the cooler unit through the inlet and are discharged from the cooler unit through the outlet , the cooler unit is obliquely installed such that the outlet of the cooler unit is positioned higher than the inlet , and cooling water retained in the body of the cooler unit is configured to cool the hot iron briquettes introduced through the inlet and is discharged outside through the inlet . a feeder unit configured to cool and transport direct reduced iron, referred as DRI ; a quantitative dispenser unit configured to pulverize the DRI and discharge a predetermined fixed amount of the pulverized DRI at a time; a hot briquette forming unit configured to hot-press the fixed amount of the DRI to form hot iron briquettes; and a cooler unit configured to cool the hot iron briquettes, wherein the cooler unit comprises a cylindrical body with an inlet provided on a first side thereof and an outlet provided on a second side thereof, a cooling water spray nozzle provided inside the cylindrical body , and a transport screw or blade configured to transport the hot iron briquettes from the inlet to the outlet and provided in the cylindrical body , wherein the hot iron briquettes are introduced into the cooler unit through the inlet and are discharged from the cooler unit through the outlet , the cooler unit is obliquely installed such that the outlet of the cooler unit is positioned higher than the inlet , and cooling water retained in the body of the cooler unit is configured to cool the hot iron briquettes introduced through the inlet and is discharged outside through the inlet .
A back frame for an LED display screen, whereby it comprises two support structures and a bottom beam , wherein the two support structures are oppositely arranged at an interval, and two ends of the bottom beam are detachably connected with the two support structures , respectively; characterized in that each support structure comprises two vertical support frames , a plurality of transverse connecting frames , a base , and a plurality of first connecting members , the two vertical support frames are vertically and oppositely arranged on the base , the vertical support frame comprises a plurality of support frame units successively arranged in vertical direction and a plurality of first connecting members ; in vertical direction, two adjacent support frame units are connected by two first connecting members , and the plurality of transverse connecting frames are horizontally arranged between the two vertical support frames , successively from top to bottom; wherein the two support structures are oppositely arranged in a manner that the four support frames of the two support structures lie in four parallel planes; wherein the support frame units and the transverse connecting frames are B-shaped support frames , the B-shaped support frame comprises two first support bars (121; 425) and three second support bars (122; 426), wherein the two first support bars (121; 425) and two of the second support bars (122; 426) are alternately and vertically connected in an end-to-end manner, and the other second support bar (122; 426) is vertically connected with the middles of the two first support bars (121; 425); wherein the two support structures each have a bottommost transverse connecting frame , wherein one of the first support bars of each bottommost transverse connecting frame is exposed to an outer side of a front end face of the corresponding vertical support frame , wherein both ends of the bottom beam are removably connected with one of the first support bars .
An expression vector comprising 5' Chinese Hamster Elongation Factor-1α (CHEF1) transcriptional regulatory DNA and a cytomegalovirus (CMV) promoter comprising: Sequence ID NO: 6; or Sequence ID NO: 7, wherein said expression vector exhibits at least two-fold greater specific productivity compared to a control expression vector having the 5' CHEF1 transcriptional regulatory DNA but not comprising the cytomegalovirus (CMV) promoter.
A method for producing a mesenchymal cell line derived from a vertebrate adipose tissue, comprising the following steps (A) and (B): (A) inducing differentiation of a cell population comprising at least a mesenchymal stem cell, an adipose progenitor cell, and a stromal cell of an adipose tissue among a vertebrate stromal vascular fraction into a mature adipocyte; and (B) inducing dedifferentiation of the mature adipocyte obtained in step (A) to obtain a mesenchymal cell line derived from the vertebrate adipose tissue. (A) inducing differentiation of a cell population comprising at least a mesenchymal stem cell, an adipose progenitor cell, and a stromal cell of an adipose tissue among a vertebrate stromal vascular fraction into a mature adipocyte; and (B) inducing dedifferentiation of the mature adipocyte obtained in step (A) to obtain a mesenchymal cell line derived from the vertebrate adipose tissue.
A display device, comprising: a substrate (SUB); a transistor (TR) disposed on the substrate (SUB); a planarization insulating layer (P_IS) disposed on the transistor (TR) and the substrate (SUB); a pixel definition layer (PDL) disposed on the planarization insulating layer (P_IS), the pixel definition layer (PDL) comprising a pixel opening (PX_OP); and an emission element (OLED) in the pixel opening (PX_OP) and connected to the transistor (TR), wherein, the planarization insulating layer (P_IS) comprises a protruding portion (PRT), characterised in that the protruding portion (PRT) extends through the pixel definition layer (PDL) to extend further from the substrate (SUB) than the pixel definition layer (PDL). a substrate (SUB); a transistor (TR) disposed on the substrate (SUB); a planarization insulating layer (P_IS) disposed on the transistor (TR) and the substrate (SUB); a pixel definition layer (PDL) disposed on the planarization insulating layer (P_IS), the pixel definition layer (PDL) comprising a pixel opening (PX_OP); and an emission element (OLED) in the pixel opening (PX_OP) and connected to the transistor (TR), wherein, the planarization insulating layer (P_IS) comprises a protruding portion (PRT), characterised in that the protruding portion (PRT) extends through the pixel definition layer (PDL) to extend further from the substrate (SUB) than the pixel definition layer (PDL).
A resin composition for melt spinning, wherein the resin composition is a filament and has a melt viscosity of 250 Pa·s or less at 200°C and a shear rate of 0.1 s -1 and a tensile strength of 10 MPa or more, and the filament has a cross-sectional average diameter in a direction perpendicular to the length direction thereof of 1 mm or more and 30 mm or less, wherein melt viscosity, tensile strength and cross-sectional average diameter are determined by the methods described in the description. the resin composition is a filament and has a melt viscosity of 250 Pa·s or less at 200°C and a shear rate of 0.1 s -1 and a tensile strength of 10 MPa or more, and the filament has a cross-sectional average diameter in a direction perpendicular to the length direction thereof of 1 mm or more and 30 mm or less, wherein melt viscosity, tensile strength and cross-sectional average diameter are determined by the methods described in the description.
A polyester bottle or polyester preform comprising a polyester resin, said polyester resin made from a composition comprising a plurality of diols comprising ethylene glycol, and diols selected from the group of diols having a formula of C n H z (OH) 2 , where n is the total number of carbons and is an integer in the range from 3 to 20, z is an integer in the range from 0 to 2n, and C 1 and C 2 are each attached to one of the OH groups of the formula wherein at least a portion of the plurality of diols is comprised of bio-based diols and the sum of the mole % of all the diols in the composition is 100 mole %, wherein the composition comprising the plurality of diols is substantially free of diols which absorb light at a wavelength of 275 nm, so that the percent light transmission of the composition at a wavelength of 275 nm is greater than 40%.
A composition comprising: (i) an ethylene-based polymer; (ii) an organic peroxide; (iii) a triorganoaminophosphine of Structure (iv) a protic acid-source compound ("PASC") selected from the group consisting of a protic acid, a protic acid-generator compound ("PAGC"), and combinations thereof; wherein R 1 and R 2 each is independently selected from the group consisting of a C 1 -C 40 hydrocarbyl group, a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group; and wherein R 3 is selected from the group consisting of a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group. (i) an ethylene-based polymer; (ii) an organic peroxide; (iii) a triorganoaminophosphine of Structure (iv) a protic acid-source compound ("PASC") selected from the group consisting of a protic acid, a protic acid-generator compound ("PAGC"), and combinations thereof; wherein R 1 and R 2 each is independently selected from the group consisting of a C 1 -C 40 hydrocarbyl group, a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group; and wherein R 3 is selected from the group consisting of a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group. wherein R 1 and R 2 each is independently selected from the group consisting of a C 1 -C 40 hydrocarbyl group, a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group; and wherein R 3 is selected from the group consisting of a C 2 -C 40 N,N-dialkylamino group, a C 4 -C 6 N-heterocycloalkyl, a C 8 -C 40 (N,N-dialkyl)arylamino group, and a C 8 -C 40 (N,N-dialkyl)aminoaryl group.
A method for affixing an ethylene-vinyl acetate ("EVA") item to a rubber item, the method comprising: placing an at least partially cured EVA item in contact with a less than cured rubber item, without a primer and without an adhesive there between forming a bi-component member; enclosing the bi-component member in a cavity formed from a material having a first dielectric constant less than or equal to a second dielectric constant of the partially cured EVA; and applying microwaves and pressure through the cavity to the at least partially cured EVA item and the less than cured rubber item for a predetermined amount of time.
A compound having the following formula: wherein Ra, Rb, Ra' and Rb' independently are H, halogen, C1-C6 alkyl, C1-C6 alkoxy, C1-C6 fluoroalkoxy, amino, amino(C1-C6 alkyl), nitro, heteroaryl, OH, -OC(=O)Rd, -OC(=O)ORd, or -OC(=O)N(Rd) 2 , wherein Rd is H, C1-C6 alkyl, or C1-C9 alkylol; Rc is H, C1-C6 alkyl, C3-C6 unsaturated alkyl with a double or triple bond, C1-C9 alkylol, C7-C12 arylalkyl, or -CH 2 -OC(=O)Rd; and Re and Re' independently are H, C1-C6 alkyl, C1-C6 alkoxy; wherein at least one of Ra, Rb, Ra', and Rb' is -OC(=O)Rd, wherein Rd is -C(CH 3 )(CH 2 OH) 2 , - C(C 2 H 5 )(CH 2 OH) 2 , -C(CH 2 OH) 3 , or -C(CH 2 OH) 2 (CH 2 OC(=O)C(CH 2 OH) 3 ); or Rc is -CH 2 -OC(=O)Rd, wherein Rd is C1-C3 alkyl, -C(CH 3 )(CH 2 OH) 2 , -C(C 2 H 5 )(CH 2 OH) 2 , -C(CH 2 OH) 3 , or - C(CH 2 OH) 2 (CH 2 OC(=O)C(CH 2 OH) 3 ) ; wherein said compound is interconvertible between keto and enol forms, when Rc is H, or a pharmaceutically acceptable salt thereof. wherein Ra, Rb, Ra' and Rb' independently are H, halogen, C1-C6 alkyl, C1-C6 alkoxy, C1-C6 fluoroalkoxy, amino, amino(C1-C6 alkyl), nitro, heteroaryl, OH, -OC(=O)Rd, -OC(=O)ORd, or -OC(=O)N(Rd) 2 , wherein Rd is H, C1-C6 alkyl, or C1-C9 alkylol; Rc is H, C1-C6 alkyl, C3-C6 unsaturated alkyl with a double or triple bond, C1-C9 alkylol, C7-C12 arylalkyl, or -CH 2 -OC(=O)Rd; and Re and Re' independently are H, C1-C6 alkyl, C1-C6 alkoxy; wherein at least one of Ra, Rb, Ra', and Rb' is -OC(=O)Rd, wherein Rd is -C(CH 3 )(CH 2 OH) 2 , - C(C 2 H 5 )(CH 2 OH) 2 , -C(CH 2 OH) 3 , or -C(CH 2 OH) 2 (CH 2 OC(=O)C(CH 2 OH) 3 ); or Rc is -CH 2 -OC(=O)Rd, wherein Rd is C1-C3 alkyl, -C(CH 3 )(CH 2 OH) 2 , -C(C 2 H 5 )(CH 2 OH) 2 , -C(CH 2 OH) 3 , or - C(CH 2 OH) 2 (CH 2 OC(=O)C(CH 2 OH) 3 ) ; wherein said compound is interconvertible between keto and enol forms, when Rc is H,
Use of the nano-fibrillar cellulose suspension obtained by a process wherein (a) cellulose fibres are provided in the form of a suspension having a solids content of from 0.2 to 35 wt-%; (b) at least one filler and/or pigment are provided; (c) the cellulose fibres and the at least one filler and/or pigment are combined, wherein the weight ratio of fibres to filler and/or pigment on a dry weight basis is from 1:10 to 10:1; (d) the combined material of step (c) comprising the cellulose fibres in the presence and the at least one filler and/or pigment is fibrillated until the fibres are at least partially broken down to primary fibrils and the Schopper-Riegler degree is increased by at least 4 °SR, wherein the filler and/or pigment particles have a weight median particle size of from 0.5 to 15 μm, in applications such as in material composites, plastics, paints, rubber, concrete, ceramics, adhesives, food, or in wound-healing applications. (a) cellulose fibres are provided in the form of a suspension having a solids content of from 0.2 to 35 wt-%; (b) at least one filler and/or pigment are provided; (c) the cellulose fibres and the at least one filler and/or pigment are combined, wherein the weight ratio of fibres to filler and/or pigment on a dry weight basis is from 1:10 to 10:1; (d) the combined material of step (c) comprising the cellulose fibres in the presence and the at least one filler and/or pigment is fibrillated until the fibres are at least partially broken down to primary fibrils and the Schopper-Riegler degree is increased by at least 4 °SR,
A method for preparing an outer blade cutting wheel comprising an annular disc base having a pair of planar surfaces and a periphery, and a blade section formed on the periphery of the base and composed of abrasive grains and a bond, wherein the blade section includes side faces provided with channels extending in a direction from an inner perimeter to an outer perimeter of the blade section, the method comprising the steps of: clamping the base at its planar surfaces between a pair of jig segments so as to cover a portion of the base other than the periphery where the blade section is not to be formed, and attaching a mesh member to the jig segments to define a cavity extending along and surrounding the base periphery, the mesh member having openings sufficient to allow the passage of gas and liquid, but not the passage of the abrasive grains; filling the cavity with abrasive grains and closing the cavity; immersing the base , jig segments and mesh member in a plating solution, and effecting electroplating with the base acting as cathode and allowing plating metal to deposit, thereby bonding the abrasive grains along with the plating metal onto the base periphery, wherein the or each said jig segment includes a flange which is spaced apart from the base periphery and defines the cavity in part, and the flange has protrusions for forming the channels in the blade section. clamping the base at its planar surfaces between a pair of jig segments so as to cover a portion of the base other than the periphery where the blade section is not to be formed, and attaching a mesh member to the jig segments to define a cavity extending along and surrounding the base periphery, the mesh member having openings sufficient to allow the passage of gas and liquid, but not the passage of the abrasive grains; filling the cavity with abrasive grains and closing the cavity; immersing the base , jig segments and mesh member in a plating solution, and effecting electroplating with the base acting as cathode and allowing plating metal to deposit, thereby bonding the abrasive grains along with the plating metal onto the base periphery, wherein the or each said jig segment includes a flange which is spaced apart from the base periphery and defines the cavity in part, and the flange has protrusions for forming the channels in the blade section.
A method for producing an acidified milk product, comprising the steps of: i) producing an acidified milk base comprising the steps of: - providing a milk-based solution of a milk raw material and an ideal whey protein solution, which is a microfiltration permeate obtained from microfiltration of milk, using a microfiltration membrane of 0.05 to 0.5 micron, - pasteurizing the milk-based solution at a temperature from 80°C to 95°C for 5 to 15 minutes to provide a pasteurized milk-based solution, - cooling the pasteurized milk-based solution to provide a cooled milk-based solution, - adding a coagulant and an acidifier to the cooled mixture and ripening to provide the acidified milk base, ii) sieving the acidified milk base to provide a sieved milk base, iii) separating the sieved milk base to provide acidified milk product, wherein the total solids of the acidified milk product is 14% to 28%. i) producing an acidified milk base comprising the steps of: - providing a milk-based solution of a milk raw material and an ideal whey protein solution, which is a microfiltration permeate obtained from microfiltration of milk, using a microfiltration membrane of 0.05 to 0.5 micron, - pasteurizing the milk-based solution at a temperature from 80°C to 95°C for 5 to 15 minutes to provide a pasteurized milk-based solution, - cooling the pasteurized milk-based solution to provide a cooled milk-based solution, - adding a coagulant and an acidifier to the cooled mixture and ripening to provide the acidified milk base, - providing a milk-based solution of a milk raw material and an ideal whey protein solution, which is a microfiltration permeate obtained from microfiltration of milk, using a microfiltration membrane of 0.05 to 0.5 micron, - pasteurizing the milk-based solution at a temperature from 80°C to 95°C for 5 to 15 minutes to provide a pasteurized milk-based solution, - cooling the pasteurized milk-based solution to provide a cooled milk-based solution, - adding a coagulant and an acidifier to the cooled mixture and ripening to provide the acidified milk base, ii) sieving the acidified milk base to provide a sieved milk base, iii) separating the sieved milk base to provide acidified milk product, wherein the total solids of the acidified milk product is 14% to 28%.
A method for processing an electroencephalography (EEG) signal, through a processor , comprising: obtaining (S305) the EEG signal (x(t)); performing (S310) a spike detection on the EEG signal (x(t)) to obtain a spike distribution waveform (s(x(t))); performing (S315) an instantaneous frequency oscillation energy analysis on the EEG signal (x(t)) to obtain a plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3 (x(t))))); performing (S320) a complexity analysis on the EEG signal (x(t)) to obtain a complexity change waveform (S(En(x(t)))); and determining a time interval where a specified neural waveform is located based on the spike distribution waveform (s(x(t))), the plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))), and the complexity change waveform (S(En(x(t)))), wherein a waveform in the time interval of the spike distribution waveform (s(x(t))) conforms to a spike distribution rule of the specified neural waveform, a waveform in the time interval of each of the energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))) conforms to an energy change rule of the specified neural waveform, and a waveform in the time interval of the complexity change waveform (S(En(x(t)))) conforms to a complexity change rule of the specified neural waveform. obtaining (S305) the EEG signal (x(t)); performing (S310) a spike detection on the EEG signal (x(t)) to obtain a spike distribution waveform (s(x(t))); performing (S315) an instantaneous frequency oscillation energy analysis on the EEG signal (x(t)) to obtain a plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3 (x(t))))); performing (S320) a complexity analysis on the EEG signal (x(t)) to obtain a complexity change waveform (S(En(x(t)))); and determining a time interval where a specified neural waveform is located based on the spike distribution waveform (s(x(t))), the plurality of energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))), and the complexity change waveform (S(En(x(t)))), wherein a waveform in the time interval of the spike distribution waveform (s(x(t))) conforms to a spike distribution rule of the specified neural waveform, a waveform in the time interval of each of the energy distribution waveforms (E(f(M1(x(t)))), E(f(M2(x(t)))), E(f(M3(x(t))))) conforms to an energy change rule of the specified neural waveform, and a waveform in the time interval of the complexity change waveform (S(En(x(t)))) conforms to a complexity change rule of the specified neural waveform.
A stage lighting fixture thermal system capable of dynamically adjusting air flow delivery, comprising a light source and a heat dissipation chamber , the light source being arranged inside the heat dissipation chamber ,wherein the stage lighting fixture thermal system further comprises at least one first air supply mechanism connected with the heat dissipation chamber , and the first air supply mechanism is dynamically arranged on the heat dissipation chamber , a drive device is connected below the first air supply mechanism , and the drive device is connected on the heat dissipation chamber , wherein the drive device comprises a drive motor and a transmission mechanism which is connected to the drive motor and the first air supply mechanism respectively, characterized in that the drive motor drives an air outlet of the first air supply mechanism to perform linear movement along an inlet of the heat dissipation chamber by means of the transmission mechanism, so that the air outlet of the first air supply mechanism is adjusted to an optimal position relative to the light source , wherein the transmission mechanism comprises a transmission guide rod , a sliding block and a driving gear ; the first air supply mechanism is connected on the sliding block ; the sliding block is sleeved on the transmission guide rod , and one side of the sliding block is provided with a rack ; the rack is engaged with the driving gear ; and the driving gear is connected on an output shaft of the drive motor .