mhurhangee/patent-ind-claim-en huggingface dataset:
A method for lubricating the passage of a container along a conveyor comprising applying a lubricant composition through non-energized nozzles to at least a portion of the conveyor-contacting surface of the container, wherein the lubricant is applied from a spray nozzle at a pressure of between 34,5 and 551,6 kPa (5 and 80 psi), the lubricant composition comprising a silicone emulsion, wherein the lubricant composition contains 0,0075 to 20 wt.% of the silicone material, 0,001 to 15 wt.% of a water-miscible lubricant selected from the group consisting of fatty amines, and 65 to 99,99 wt.% water, wherein the lubricant composition contains less than 500 ppm of triethanolamine salts of alkyl benzene sulfonic acid compounds.
A method for manufacturing a hollow-floor element, comprising at least two superimposed load-bearing individual panels (1.3), the method comprising laying at least two load-bearing individual panels on top of each other and firmly joining the at least two load-bearing individual panels (1.3) together, in particular by gluing, wherein at least one of the load-bearing individual panels is a gypsum fibreboard comprising a gypsum matrix, characterized in that said method comprises the step of manufacturing said gypsum matrix of the gypsum fibreboard from 80 to 95% by weight calcium sulphate β-semi-hydrate and 5 to 20% by weight calcium sulphate α-semi-hydrate, relative to the total amount of the calcium sulphate semi-hydrate.
A laundry appliance , comprising: a cabinet having a rear wall and a seal operably coupled to the rear wall ; a drum disposed within the cabinet and defining a cavity ; and a plate disposed within the cavity and coupled to the drum , the plate defining a plurality of holes , characterized in that the plate further comprises a plurality of extruded apertures disposed around the plurality of holes , wherein the plurality of supplemental extruded apertures extend toward the rear wall of the cabinet and proximate to the seal , and wherein the second end of the extruded apertures is configured to engage the seal as the drum and the ventilation plate rotate within the cabinet , so that the plurality of extruded apertures is configured to minimize lint accumulation. a cabinet having a rear wall and a seal operably coupled to the rear wall ; a drum disposed within the cabinet and defining a cavity ; and a plate disposed within the cavity and coupled to the drum , the plate defining a plurality of holes , characterized in that the plate further comprises a plurality of extruded apertures disposed around the plurality of holes , wherein the plurality of supplemental extruded apertures extend toward the rear wall of the cabinet and proximate to the seal , and wherein the second end of the extruded apertures is configured to engage the seal as the drum and the ventilation plate rotate within the cabinet , so that the plurality of extruded apertures is configured to minimize lint accumulation.
A link failure recovery method performed by a terminal device , comprising: determining that a link failure occurs in L first cells; and sending a first request message, wherein the first request message comprises first indication information, the first indication information is used to indicate cell information of the L first cells, L>1, and L is an integer, wherein the first indication information comprises a first part of content and a second part of content, the first part of content is used to indicate cell identifiers of the L first cells, and the second part of content is used to indicate whether there is no first reference signal that satisfies a first preset condition. determining that a link failure occurs in L first cells; and sending a first request message, wherein the first request message comprises first indication information, the first indication information is used to indicate cell information of the L first cells, L>1, and L is an integer, wherein the first indication information comprises a first part of content and a second part of content, the first part of content is used to indicate cell identifiers of the L first cells, and the second part of content is used to indicate whether there is no first reference signal that satisfies a first preset condition.
A press for briquetting granular material, having a machine frame ; having a compressing cylinder which has a separate cylinder bottom ; having a compressing piston which is displaceable within the compressing cylinder , having a positioning apparatus by which a relative movement between the compressing cylinder and the cylinder bottom is producible, and having a compressing piston drive which works on the compressing piston , wherein the compressing cylinder is fixedly arranged on the machine frame and at least the end of the cylinder bottom which is adjacent to the compressing cylinder is movable transversely to an axis of said compressing cylinder , and the cylinder bottom is arranged on the machine frame so as to be swivellable around an axis of swivelling , wherein the axis of swivelling of the cylinder bottom intersects the axis of the compressing cylinder , characterized in that the axis of swivelling is arranged on the side of the cylinder bottom facing away from the compressing cylinder .
A method of producing a collagen biomaterial, admixing the following to produce a collagen solution (i) a solution of monomeric collagen, (ii) a solution of polymeric collagen, (ii) cargo particles and (iv) a non-collagen blocking polymer, allowing the collagen solution to solidify to produce a collagen hydrogel, and reducing the amount of liquid in the collagen hydrogel to produce a compressed collagen biomaterial, wherein the blocking polymer has a hydrodynamic radius of greater than 11 nm and less than 500 nm; and wherein the collagen solution comprises 2 mg/ml to 50 mg/ml blocking polymer.
An electronic device comprising: a housing that includes a front surface of the electronic device , a rear surface of the electronic device , and a side surface at least partially surrounding a space between the front surface and the rear surface ; and a display positioned in the space and at least partially viewed through the front surface , wherein the housing includes: an outer structure including a first metal material and constituting at least a portion of the side surface ; an inner structure including a second metal material different from the first metal material and positioned in the space; and a non-conductive structure including a polymer and connected to the outer structure and the inner structure , wherein the outer structure and the inner structure are electrically connected at a position overlapping with an opening formed in the non-conductive structure . a housing that includes a front surface of the electronic device , a rear surface of the electronic device , and a side surface at least partially surrounding a space between the front surface and the rear surface ; and a display positioned in the space and at least partially viewed through the front surface , wherein the housing includes: an outer structure including a first metal material and constituting at least a portion of the side surface ; an inner structure including a second metal material different from the first metal material and positioned in the space; and a non-conductive structure including a polymer and connected to the outer structure and the inner structure , an outer structure including a first metal material and constituting at least a portion of the side surface ; an inner structure including a second metal material different from the first metal material and positioned in the space; and a non-conductive structure including a polymer and connected to the outer structure and the inner structure , wherein the outer structure and the inner structure are electrically connected at a position overlapping with an opening formed in the non-conductive structure .
A blade column for use in a food chopper comprising a receptacle and a cover , said blade column being receivable within said food chopper for rotation in a cutting direction about a longitudinal axis , said blade column including: a blade shaft defining said longitudinal axis; a lower blade cantilevered from said blade shaft; and at least one upper blade cantilevered from said blade shaft and circumferentially spaced from said lower blade, wherein each at least one upper blade and said lower blade include an upper face and a lower face , as well as a leading edge and a trailing edge defined by said cutting direction, wherein each at least one upper blade has a single bevel on the lower face thereof defining a cutting edge on said leading edge of said upper blade, and wherein said lower blade has a single bevel on the upper face thereof defining a cutting edge on said leading edge of said lower blade, characterized in that each at least one upper blade further includes a deflector angled downward on said trailing edge thereof. a blade shaft defining said longitudinal axis; a lower blade cantilevered from said blade shaft; and at least one upper blade cantilevered from said blade shaft and circumferentially spaced from said lower blade, wherein each at least one upper blade and said lower blade include an upper face and a lower face , as well as a leading edge and a trailing edge defined by said cutting direction, wherein each at least one upper blade has a single bevel on the lower face thereof defining a cutting edge on said leading edge of said upper blade, and wherein said lower blade has a single bevel on the upper face thereof defining a cutting edge on said leading edge of said lower blade, characterized in that each at least one upper blade further includes a deflector angled downward on said trailing edge thereof.
An imine-linked polymer prepared from a dicarbonyl monomer comprising at least one aromatic aldehyde or ketone group, a diamine monomer, and a crosslinking agent, wherein said polymer is a network polymer with dynamic covalent bonds capable of repeating at least one cycle of transitioning between a non-malleable state and a malleable state, and between a malleable state and a non-malleable state, upon exposure to a temperature range comprising: a low temperature range that is below a transitional temperature wherein said polymer exhibits rates of covalent bond exchange reactions that impart a non-malleable state to said polymer; and a high temperature range above said transitional temperature wherein said polymer exhibits rates of covalent bond exchange reactions that impart a malleable state to said polymer, wherein said transitional temperature is from 10 °C to 250 °C. a low temperature range that is below a transitional temperature wherein said polymer exhibits rates of covalent bond exchange reactions that impart a non-malleable state to said polymer; and a high temperature range above said transitional temperature wherein said polymer exhibits rates of covalent bond exchange reactions that impart a malleable state to said polymer, wherein said transitional temperature is from 10 °C to 250 °C.
A method for testing a metal detection apparatus with entrance and exit apertures adjoining a transfer channel along which products (P) are movable through a coil system that defines a detection zone and comprises a transmitter coil and a first and a second receiver coil dimensioned such that a current applied to the transmitter coil induces a first coil signal in the first receiver coil and a second coil signal in the second receiver coil , that do not compensate one another when metal (C) is present in the products being transferred (P), which is configured to cause an input signal within a signal processing path of the metal detection apparatus , the method comprising the steps of: providing at least one test device that comprises at least one test article that is movable through the detection zone ; a) moving the test article through the detection zone along a first transfer axis (ca) and measuring a first input signal; b) moving the same or an identical test article through the detection zone along a second or further transfer axis (ta) and measuring a second or further input signal; c) determining a first threshold (th1) adapted to the test article moved along the first transfer axis (ca) such that the amplitude of the first input signal exceeds the first threshold (th1); d) determining a second or further threshold (th2) adapted to the test article moved along the second or further transfer axis (ta) such that the amplitude of the second or further input signal exceeds the second or further threshold (th2); and e) selecting said first, second or further threshold (th1,th2) in the signal processing path whenever the test article is moved along the related first, second or further transfer axis (ca,ta), and testing the apparatus by determining if the input signal exceed said selected first, second or further threshold. a) moving the test article through the detection zone along a first transfer axis (ca) and measuring a first input signal; b) moving the same or an identical test article through the detection zone along a second or further transfer axis (ta) and measuring a second or further input signal; c) determining a first threshold (th1) adapted to the test article moved along the first transfer axis (ca) such that the amplitude of the first input signal exceeds the first threshold (th1); d) determining a second or further threshold (th2) adapted to the test article moved along the second or further transfer axis (ta) such that the amplitude of the second or further input signal exceeds the second or further threshold (th2); and e) selecting said first, second or further threshold (th1,th2) in the signal processing path whenever the test article is moved along the related first, second or further transfer axis (ca,ta), and testing the apparatus by determining if the input signal exceed said selected first, second or further threshold.
A method of forming a single layer wavelength converter (200',200",303) comprising: forming a precursor of a wavelength converting composition on a substrate , said precursor of said wavelength converting composition comprising a matrix precursor , quantum dot particles and phosphor particles ; curing said matrix precursor to form a single layer of said cured polymeric matrix material , the single layer of said cured polymeric matrix material comprising a first region , a second region , and first and second surfaces , wherein a distribution of said quantum dot particles and said phosphor particles in said polymeric matrix material is such that said first region contains a higher concentration of said quantum dot particles than said second region , and said second region contains a higher concentration of phosphor particles than said first region , wherein the density of the matrix precursor ranges from about 0.5 to about 2.0 g/cm 3 , wherein the density of the matrix precursor is greater than the density of the quantum dot particles , and wherein the density of the matrix precursor is less than the density of the phosphor particles . forming a precursor of a wavelength converting composition on a substrate , said precursor of said wavelength converting composition comprising a matrix precursor , quantum dot particles and phosphor particles ; curing said matrix precursor to form a single layer of said cured polymeric matrix material , the single layer of said cured polymeric matrix material comprising a first region , a second region , and first and second surfaces , wherein a distribution of said quantum dot particles and said phosphor particles in said polymeric matrix material is such that said first region contains a higher concentration of said quantum dot particles than said second region , and said second region contains a higher concentration of phosphor particles than said first region , wherein the density of the matrix precursor ranges from about 0.5 to about 2.0 g/cm 3 , wherein the density of the matrix precursor is greater than the density of the quantum dot particles , and wherein the density of the matrix precursor is less than the density of the phosphor particles .
Analytical immunosensor device comprising the following layers: a) a sensing interface; b) a layer of antibodies assembled on the cationic polymer layer at the sensing interface, and c) a bioconjugate bound by affinity reaction to the antibody layer; characterized in that the sensor interface (a) comprises the following sequentially assembled layers: (i) a modified sensor surface with a negatively charged layer that comprises the -X-(CH 2 ) y -SO 3- group; wherein X is selected from the following groups: -S-, -NH- or -COO-, and y has a value between 1 and 6; and (ii) a polymeric structure comprising a polymeric layer comprising a cationic polymer, wherein the cationic polymer layer of the polymer structure is repeated n times comprising between these cationic layers, a polymeric layer of an anionic polymer wherein n ranges from 1 to 10 and wherein the bioconjugate is an antigen, a pseudo-antigen or a hapten with affinity for the antibody and labelled with a tracer, wherein the tracer is a compound, a nanoparticle or a biomolecule capable of producing a detectable signal. a) a sensing interface; b) a layer of antibodies assembled on the cationic polymer layer at the sensing interface, and c) a bioconjugate bound by affinity reaction to the antibody layer; characterized in that the sensor interface (a) comprises the following sequentially assembled layers: (i) a modified sensor surface with a negatively charged layer that comprises the -X-(CH 2 ) y -SO 3- group; wherein X is selected from the following groups: -S-, -NH- or -COO-, and y has a value between 1 and 6; and (ii) a polymeric structure comprising a polymeric layer comprising a cationic polymer, wherein the cationic polymer layer of the polymer structure is repeated n times comprising between these cationic layers, a polymeric layer of an anionic polymer wherein n ranges from 1 to 10 and wherein the bioconjugate is an antigen, a pseudo-antigen or a hapten with affinity for the antibody and labelled with a tracer, wherein the tracer is a compound, a nanoparticle or a biomolecule capable of producing a detectable signal. (i) a modified sensor surface with a negatively charged layer that comprises the -X-(CH 2 ) y -SO 3- group; wherein X is selected from the following groups: -S-, -NH- or -COO-, and y has a value between 1 and 6; and (ii) a polymeric structure comprising a polymeric layer comprising a cationic polymer,
An electric discharge device for molecular restructuring of a fluid, comprising a discharge cell including a first dielectric layer and a second dielectric layer that are spaced apart by a gap constituting a flow channel for a feed fluid to be molecularly restructured, the dielectric layers and the flow channel are arranged between a first electrode and a second electrode for generating electric discharge in the flow channel when voltage is applied between the electrodes , characterised in that the discharge cell comprises a single-piece, double-walled dielectric tube having a cylindrical inner wall that constitute the first dielectric layer , a cylindrical outer wall that constitute the second dielectric layer , at least one inlet for feeding fluid to be restructured into the flow channel , and at least one outlet for discharge of restructured fluid, wherein the cylindrical inner wall and the cylindrical outer wall come together at both ends of the dielectric tube , and wherein the at least one inlet and the at least one outlet are integrally formed in the cylindrical outer wall in opposite ends of the single-piece, double-walled dielectric tube .
At least one sterilization-pasteurization device for sterilizing/pasteurizing a fluid and having at least one heating chamber where the fluid flows through at least one flow line by passing through at least one fluid inlet , at least one heater for increasing the heat of the fluid in said heating chamber , at least one cooling chamber whereto the fluid flows for absorption of the heat thereof after the fluid passes through the heating chamber , at least one fluid outlet where the fluid flows by passing to said cooling chamber , wherein the subject matter sterilization-pasteurization device comprises at least one condenser for increasing the heat of the fluid in the heating chamber in said flow line , at least one evaporator for absorbing the heat of the fluid in the cooling chamber , at least one throttle valve for keeping the pressure of the cooling fluid in the desired interval between said evaporator and said condenser , at least one cooling line connecting said throttle valve , the evaporator and the condenser in between, at least one compressor for providing circulation of the cooling fluid in said cooling line and at least one pre-heating chamber , wherein the condenser is positioned in the heating chamber to provide heat to the fluid .
A pellicle frame comprising a pellicle frame bar having a quadrilateral cross-section, wherein an upper edge and a lower edge of a basic quadrilateral forming said cross-section are parallel to each other and each of side edges of the basic quadrilateral has one quadrilateral recess , characterised in that the cross-sectional shape of the pellicle frame bar is an I-shape in which an upper end part containing the upper edge and a lower end part containing the lower edge are vertically connected by a middle part having a narrower width than the upper edge and the lower edge.
A permanent magnet , comprising: a base magnet denoted by "a-b-c" (where "a" comprises a rare-earth element, "b" comprises a transition element, and "c" comprises boron (B)); a first coating layer ; and a second coating layer , wherein the first coating layer comprises a compound comprising a magnetic metal, and wherein the compound comprises: phosphorus (P); and a metal selected in the list consisting in: iron (Fe), cobalt (Co), or nickel (Ni), characterized in that the first coating layer is coated on a first portion (S3) of a surface of the base magnet, the second coating layer is coated on a second portion (S4) of the surface of the base magnet, the second portion (S4) being a complementary portion to the first portion of the surface of the base magnet, wherein the second coating layer is made of a different material from the first coating layer , such that the heat flux of the first coating layer and the second coating layer are different from each other. a base magnet denoted by "a-b-c" (where "a" comprises a rare-earth element, "b" comprises a transition element, and "c" comprises boron (B)); a first coating layer ; and a second coating layer , wherein the first coating layer comprises a compound comprising a magnetic metal, and wherein the compound comprises: phosphorus (P); and a metal selected in the list consisting in: iron (Fe), cobalt (Co), or nickel (Ni), phosphorus (P); and a metal selected in the list consisting in: iron (Fe), cobalt (Co), or nickel (Ni), the first coating layer is coated on a first portion (S3) of a surface of the base magnet, the second coating layer is coated on a second portion (S4) of the surface of the base magnet, the second portion (S4) being a complementary portion to the first portion of the surface of the base magnet, wherein the second coating layer is made of a different material from the first coating layer , such that the heat flux of the first coating layer and the second coating layer are different from each other.