mhurhangee/patent-ind-claim-en huggingface dataset:
A chemical vapor deposition method for depositing an organosilicate film on at least a part of a substrate, the process comprising the steps of: providing a substrate within a vacuum chamber; introducing into the vacuum chamber a gaseous structure forming composition comprising at least one organosilicon precursor of Formula (I): Wherein in Formula (I), R 1 , R 2 , R 3 , R 5 , and R 6 are each independently selected from the group consisting of -CH 3 and -OR 8 , wherein R 8 is a C 1 -C 4 alkyl group; R 7 is H or -CH 3, wherein at least one R 7 is -Ch 3 ; and n is 1; applying energy to the gaseous structure forming composition in the vacuum chamber to induce reaction of the at least one organosilicon precursor to deposit a film on at least a portion of the substrate. providing a substrate within a vacuum chamber; introducing into the vacuum chamber a gaseous structure forming composition comprising at least one organosilicon precursor of Formula (I): Wherein in Formula (I), R 1 , R 2 , R 3 , R 5 , and R 6 are each independently selected from the group consisting of -CH 3 and -OR 8 , wherein R 8 is a C 1 -C 4 alkyl group; R 7 is H or -CH 3, wherein at least one R 7 is -Ch 3 ; and n is 1; applying energy to the gaseous structure forming composition in the vacuum chamber to induce reaction of the at least one organosilicon precursor to deposit a film on at least a portion of the substrate. R 1 , R 2 , R 3 , R 5 , and R 6 are each independently selected from the group consisting of -CH 3 and -OR 8 , wherein R 8 is a C 1 -C 4 alkyl group; R 7 is H or -CH 3, wherein at least one R 7 is -Ch 3 ; and n is 1; applying energy to the gaseous structure forming composition in the vacuum chamber to induce reaction of the at least one organosilicon precursor to deposit a film on at least a portion of the substrate.
Surfboard comprising: a surfboard body extending along a longitudinal direction (L) and having an upper surface and a bottom surface, an electrical battery pack removably positioned in an upper compartment accessible from the upper surface, and an electrically driven water-jet configured to propel the surfboard and provided with electrical power from the electrical battery pack, wherein the electrically driven water-jet is provided in a jet-propulsion module removably positioned in a lower compartment accessible from the lower surface, wherein the upper compartment and the lower compartment partly overlap each other a distance (d) as seen along the longitudinal direction (L), and wherein the jet-propulsion module comprises a jet-box forming circumferential walls of a water channel, a directly attachable electric motor and a directly mountable electronic drive module comprising circuitry for controlling the electric motor , wherein a drive shaft from the electric motor extends in rearward direction through a wall of the water channel and along and inside a rear portion of the water channel. a surfboard body extending along a longitudinal direction (L) and having an upper surface and a bottom surface, an electrical battery pack removably positioned in an upper compartment accessible from the upper surface, and an electrically driven water-jet configured to propel the surfboard and provided with electrical power from the electrical battery pack, wherein the electrically driven water-jet is provided in a jet-propulsion module removably positioned in a lower compartment accessible from the lower surface, wherein the upper compartment and the lower compartment partly overlap each other a distance (d) as seen along the longitudinal direction (L), and wherein the jet-propulsion module comprises a jet-box forming circumferential walls of a water channel, a directly attachable electric motor and a directly mountable electronic drive module comprising circuitry for controlling the electric motor , wherein a drive shaft from the electric motor extends in rearward direction through a wall of the water channel and along and inside a rear portion of the water channel.
Air filter element, in particular round filter element, for being used in an intake section of an internal combustion engine, with an annularly closed filter medium body designed as folded filter and the wall of which can be flowed through in the radial direction by the fluid to be cleaned relative to the longitudinal axis of the filter medium body , wherein the filter medium body features a longitudinally extended cross-sectional shape with two mutually opposite narrow sides and two mutually opposite long sides connecting the narrow sides, wherein the cross-sectional area of the filter medium body tapers from one front face to the opposite front face and the filter medium body features a radially inwardly directed constriction in the region of the tapered front face on each of its two longitudinal sides, wherein the two long sides of the filter medium body are designed without or at least approximately without radial constriction in the region of the opposite, larger front face, characterized in that the filter medium body features a cross-sectional shape with semicircular narrow sides and straight long sides, wherein the long sides feature the radially inwardly directed concave constriction in the region of the tapered front face of the filter medium body .
A process for treating an asbestos-containing material, which comprises: - preparing an acidic solution/suspension by subjecting a food industry waste material to mixed bacterial and fungal growth and/or fermentation; - treating an asbestos-containing material with the acidic solution/suspension obtained from the mixed bacterial and fungal growth and/or fermentation at a temperature of 120-170°C and pressure of 0,2-1 MPa (2-10 bar); wherein said mixed bacterial and fungal growth and/or fermentation is carried out by using bacteria of the species Acetobacter aceti and yeast of the species Saccharomyces cerevisiae. - preparing an acidic solution/suspension by subjecting a food industry waste material to mixed bacterial and fungal growth and/or fermentation; - treating an asbestos-containing material with the acidic solution/suspension obtained from the mixed bacterial and fungal growth and/or fermentation at a temperature of 120-170°C and pressure of 0,2-1 MPa (2-10 bar); wherein said mixed bacterial and fungal growth and/or fermentation is carried out by using bacteria of the species Acetobacter aceti and yeast of the species Saccharomyces cerevisiae.
Sealing ring comprising, axially, a main part and a secondary part , connected by a weakened intermediate portion , wherein the main part comprises annular exterior and interior sealing sleeves and a projecting exterior shoulder bearing axially on the side of the breakable portion , arranged at the end of the annular sealing sleeve , and wherein the secondary part comprises a projecting interior shoulder bearing axially on the side of the breakable portion , characterized in that the weakened intermediate portion can be broken by an axial force applied between the main part and the secondary part, and in that the projecting exterior shoulder of the main part is axially distanced from the breakable portion .
A method implemented in a wireless device, WD , the method comprising: obtaining (S140) at least a first sounding reference signal, SRS, resource set configuration for a first SRS resource set, the first SRS resource set configuration corresponding to a first SRS transmission power value; obtaining (S142) at least a second SRS resource set configuration for a second SRS resource set, the second SRS resource set configuration corresponding to a second SRS transmission power value; and determining (S144) a power level to transmit an SRS on at least one shared SRS resource associated with each of the first SRS resource set and the second SRS resource set, wherein the determining the power level comprises determining a single power level for both of the first SRS resource set and the second SRS resource set, to transmit the at least one shared SRS resource according to at least one predetermined rule. obtaining (S140) at least a first sounding reference signal, SRS, resource set configuration for a first SRS resource set, the first SRS resource set configuration corresponding to a first SRS transmission power value; obtaining (S142) at least a second SRS resource set configuration for a second SRS resource set, the second SRS resource set configuration corresponding to a second SRS transmission power value; and determining (S144) a power level to transmit an SRS on at least one shared SRS resource associated with each of the first SRS resource set and the second SRS resource set, wherein the determining the power level comprises determining a single power level for both of the first SRS resource set and the second SRS resource set, to transmit the at least one shared SRS resource according to at least one predetermined rule.
An integrated system comprising: a desalination plant comprising a reverse osmosis (RO) array configured to produce an RO permeate blending stream and a nanofiltration (NF) array configured to produce an NF permeate blending stream; a blending system; a control unit; an injection system for one or more injection wells, wherein the one or more injection wells penetrate an oil-bearing layer of a reservoir; and a production facility configured to: separate fluids produced from one or more production wells that penetrate the oil-bearing layer of the reservoir and deliver a produced water (PW) stream to the blending system, wherein the blending system is configured to blend the RO permeate and the NF permeate blending streams with the PW stream to produce a blended low salinity water stream, wherein the control unit is configured to: dynamically alter operation of the blending system to adjust amounts of at least one of the RO permeate blending stream or the NF permeate blending stream to maintain a composition of the blended low salinity water stream within a predetermined operating envelope; and dynamically adjust amounts of at least one of the RO permeate discharged from the blending system via an RO permeate dump line or the NF permeate discharged from the blending system via a NF permeate dump line. a desalination plant comprising a reverse osmosis (RO) array configured to produce an RO permeate blending stream and a nanofiltration (NF) array configured to produce an NF permeate blending stream; a blending system; a control unit; an injection system for one or more injection wells, wherein the one or more injection wells penetrate an oil-bearing layer of a reservoir; and a production facility configured to: separate fluids produced from one or more production wells that penetrate the oil-bearing layer of the reservoir and deliver a produced water (PW) stream to the blending system, wherein the blending system is configured to blend the RO permeate and the NF permeate blending streams with the PW stream to produce a blended low salinity water stream, wherein the control unit is configured to: dynamically alter operation of the blending system to adjust amounts of at least one of the RO permeate blending stream or the NF permeate blending stream to maintain a composition of the blended low salinity water stream within a predetermined operating envelope; and dynamically adjust amounts of at least one of the RO permeate discharged from the blending system via an RO permeate dump line or the NF permeate discharged from the blending system via a NF permeate dump line. dynamically alter operation of the blending system to adjust amounts of at least one of the RO permeate blending stream or the NF permeate blending stream to maintain a composition of the blended low salinity water stream within a predetermined operating envelope; and dynamically adjust amounts of at least one of the RO permeate discharged from the blending system via an RO permeate dump line or the NF permeate discharged from the blending system via a NF permeate dump line.
A method of performing communication, by a terminal, in a wireless communication system, the method comprising: receiving a radio resource control, RRC, release message including configuration information to suspend bearers; based on the configuration information, suspending the bearers including a data radio bearer, DRB, and a signaling radio bearer, SRB, except an SRBO, and characterized in requesting, based on the configuration information, a PDCP suspend procedure of the DRB, on a packet data convergence protocol, PDCP, layer, and based on the requesting of the PDCP suspend procedure, in case that a reorder timer is running, delivering stored PDCP service data units, SDUs, from a receiving PDCP entity to an upper layer, in an ascending order of associated count values after performing header decompression. receiving a radio resource control, RRC, release message including configuration information to suspend bearers; based on the configuration information, suspending the bearers including a data radio bearer, DRB, and a signaling radio bearer, SRB, except an SRBO, and characterized in requesting, based on the configuration information, a PDCP suspend procedure of the DRB, on a packet data convergence protocol, PDCP, layer, and based on the requesting of the PDCP suspend procedure, in case that a reorder timer is running, delivering stored PDCP service data units, SDUs, from a receiving PDCP entity to an upper layer, in an ascending order of associated count values after performing header decompression.
An extracellular vesicle (EV) loaded with a panel of miRNAs or with nucleic acid encoding a panel of miRNAs, for use in a method of treating LCP-1 positive cancer in a patient, wherein the panel of miRNAs comprises miR-16-5p, miR-23a-5p, miR-125b-5p, miR-145-5p, miR-146a-3p, miR-181c-5p, miR-218-5p, miR-495-3p, let-7b-5p, and miR-885-5p.
An endoscope system comprising: an illuminator for irradiating light (BN, W) including blue narrow band light (BN) and white light (W) to a subject body; an image signal acquisition device for imaging of a reflection image of said subject body illuminated with blue narrow band light (BN), to acquire a first image signal (Bd2, BN, Bs2, Rd2, RN) according to first reflected light having a first wavelength range, having an absorption coefficient changeable with an oxygen saturation level of hemoglobin in blood and having a non-uniform distribution owing to an uneven shape of the tissue of the subject body, and illuminated with white light to acquire a second image signal (G, Gd1, Gs1) according to second reflected light having a second wavelength range such that the second image signal also has said non-uniform distribution, but does not include information about oxygen saturation; different from said first wavelength range; a normalized signal forming device for normalizing said first image signal by use of said second image signal to form a normalized signal; an oxygen saturation level image generator for generating an oxygen saturation level image by visualizing said oxygen saturation level of a blood vessel present at a particular depth according to said normalized signal; and a display for displaying said oxygen saturation level image. an illuminator for irradiating light (BN, W) including blue narrow band light (BN) and white light (W) to a subject body; an image signal acquisition device for imaging of a reflection image of said subject body illuminated with blue narrow band light (BN), to acquire a first image signal (Bd2, BN, Bs2, Rd2, RN) according to first reflected light having a first wavelength range, having an absorption coefficient changeable with an oxygen saturation level of hemoglobin in blood and having a non-uniform distribution owing to an uneven shape of the tissue of the subject body, and illuminated with white light to acquire a second image signal (G, Gd1, Gs1) according to second reflected light having a second wavelength range such that the second image signal also has said non-uniform distribution, but does not include information about oxygen saturation; different from said first wavelength range; a normalized signal forming device for normalizing said first image signal by use of said second image signal to form a normalized signal; an oxygen saturation level image generator for generating an oxygen saturation level image by visualizing said oxygen saturation level of a blood vessel present at a particular depth according to said normalized signal; and a display for displaying said oxygen saturation level image.
A traditional Chinese medicine composition composed of the following materials by weight percentage: 50.0%~99.9% of Salvia Militiorrhiza and Panax Notoginseng extract and 0.1%~50.0% of borneol, wherein the Salvia Militiorrhiza and Panax Notoginseng extract comprises the following ingredients by weight percentage: Danshensu : Salvianolic acid T : protocatechuic aldehyde : Salvianolic acid D : rosmarinic acid : Salvianolic acid B : Salvianolic acid A : Panax Notoginseng Saponin R1 : Ginsenoside Rg1 : Ginsenoside Re : Ginsenoside Rb1 : Ginsenoside Rd : dihydrotanshinone I : tanshinone I : cryptotanshinone : tanshinone IIA= (2~6) : (0.5~2) : (1~3) : (0.2~1) : (0.2~1) : (0.5~2) : (0.5~2) : (0.2~1) : (1~4) : (0.1~0.5) : (1~4) : (0.1~1) : (0.01~0.05) : (0.05~0.1) : (0.02~0.1) : (0.1~0.5).
A needleless injection device comprising a chamber containing a pyrotechnic material, the chamber having a fixed double membrane at a discharge opening, the fixed double membrane consisting of a skin-side membrane and a combustion-chamber-side membrane wherein the skin-side membrane of the double membrane is provided with a substance application to the skin side of the skin-side membrane , characterized in that the combustion-chamber-side membrane and the skin-side membrane are wholly or partially curved towards the chamber .
Storage system comprising - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region (A) with a positive curvature and a second region (B) with a negative curvature, - a component which comprises a magnet arrangement (1.3; 1.3") and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein the sensor element (1; 1') is arranged between the magnet arrangement (1.3; 1.3") and the supporting magnet (1.6), wherein the supporting magnet (1.6) is arranged such that a connecting line between its north pole and its south pole is oriented in a second direction (y), wherein this has a component orthogonal to the first direction (x). - a sensor element (1; 1') for storing rotation or position information, which sensor element comprises a domain wall conductor (1.1; 1.1') arranged on a substrate (1.2), wherein the course of the domain wall conductor (1.1; 1.1') is of a configuration without crossings and the domain wall conductor (1.1; 1.1') has a first region (A) with a positive curvature and a second region (B) with a negative curvature, - a component which comprises a magnet arrangement (1.3; 1.3") and can be moved in a first direction (x) relative to the domain wall conductor (1.1; 1.1'), - a supporting magnet (1.6) which is arranged immovably relative to the sensor element (1; 1'), wherein
A method implemented as executable instructions, wherein the instructions reside in a non-transitory computer-readable medium and are executed by one or more processors of a valuable media depository, the method comprising: (i) selecting reference images for media items from a plurality of visible light images of the media items ; (ii) calculating infrared (IR) residual images from IR images of the media items and the selected reference images by iterating pixel coordinates for the IR images and the selected reference images , wherein iterating further includes calculating a relative difference between each pixel coordinate value in each IR image and a corresponding selected reference image to produce a particular IR residual image , wherein calculating further includes producing the relative difference as a difference between each pixel coordinate value divided by a sum of each pixel coordinate value ; (iii) extracting features of the IR residual images as a template ; and (iv) applying the template to an IR image of a presented media item having an embedded IR security feature for assisting in determining whether the presented media item is acceptable for further downstream processing within the valuable media depository . (i) selecting reference images for media items from a plurality of visible light images of the media items ; (ii) calculating infrared (IR) residual images from IR images of the media items and the selected reference images by iterating pixel coordinates for the IR images and the selected reference images , wherein iterating further includes calculating a relative difference between each pixel coordinate value in each IR image and a corresponding selected reference image to produce a particular IR residual image , wherein calculating further includes producing the relative difference as a difference between each pixel coordinate value divided by a sum of each pixel coordinate value ; (iii) extracting features of the IR residual images as a template ; and (iv) applying the template to an IR image of a presented media item having an embedded IR security feature for assisting in determining whether the presented media item is acceptable for further downstream processing within the valuable media depository .
A method of recycling RE alloys and/or RE metals from raw materials including permanent magnets and/or scrap metals containing RE and iron (Fe) in, an electrochemical process from a molten salt comprising the steps of: - arranging an electrolysis cell comprising a liquid anode residing in an anode compartment in communication with an electric lead of the liquid anode, a cathode and a compartment arranged below the cathode at the bottom of the cell collecting refined recycled elements in a liquid or solid state, separated by a fluoride based liquid electrolyte, - feeding the raw materials into the liquid anode compartment, - the liquid anode is forming a multinary liquid alloy system when the raw materials fed to the anode compartment are dissolved, - the liquid anode comprises added Al and Si in quantities providing a melting point temperature of the added materials inside the anode compartment being below the melting point temperature of the raw materials itself, - the added quantities of Al and Si is further selected to provide a low melting temperature region of Al-Si alloys being able to dissolve Fe, and a maximum or sufficient wt% amount to maintain molten Fe-Al-Si-RE alloys of different compositions, - collecting refined recycled RE metals(s) or RE alloy(s) in the compartment below the cathode at the bottom of the electrolysis cell. - arranging an electrolysis cell comprising a liquid anode residing in an anode compartment in communication with an electric lead of the liquid anode, a cathode and a compartment arranged below the cathode at the bottom of the cell collecting refined recycled elements in a liquid or solid state, separated by a fluoride based liquid electrolyte, - feeding the raw materials into the liquid anode compartment, - the liquid anode is forming a multinary liquid alloy system when the raw materials fed to the anode compartment are dissolved, - the liquid anode comprises added Al and Si in quantities providing a melting point temperature of the added materials inside the anode compartment being below the melting point temperature of the raw materials itself, - the added quantities of Al and Si is further selected to provide a low melting temperature region of Al-Si alloys being able to dissolve Fe, and a maximum or sufficient wt% amount to maintain molten Fe-Al-Si-RE alloys of different compositions, - collecting refined recycled RE metals(s) or RE alloy(s) in the compartment below the cathode at the bottom of the electrolysis cell.