mhurhangee/patent-ind-claim-en huggingface dataset:
A graphite-like crystallites carbon nanomaterial, comprising, based on 100 parts by mass of chemical composition, 50-60 parts of carbon, 30-45 parts of oxygen, and 1-3 parts of hydrogen, wherein structural units of the graphite-like crystallites carbon nanomaterial are graphite-like crystallites; the particle size of the graphite-like crystallites carbon nanomaterial is 5-10 nm; and the graphite-like crystallites carbon nanomaterial is a non-fluorescent carbon nanomaterial; and wherein the graphite-like crystallites carbon nanomaterial is prepared by the following steps: mixing an oxidant solution with a graphite-like microcrystalline charcoal material, and oxidizing the mixture under the conditions of microwave heating to obtain an oxidizing feed solution; the oxidant solution comprising a mixed solution of a first acid and a second acid; and the first acid being nitric acid and the second acid being perchloric acid or sulfuric acid; wherein the graphite-like microcrystalline charcoal material in step is one or more of a wood charcoal, a bamboo charcoal, a shell charcoal, a wood-based activated charcoal, a shell activated charcoal, a bamboo activated charcoal, and a coal-based activated charcoal; regulating the pH value of the oxidizing feed solution obtained in step to 3-8, to obtain a prefiltration system; subjecting the prefiltration system obtained in step to ultrafiltrations, to obtain a suspension and a filtrate; separating the suspension obtained in step , to obtain a fine suspension; and removing moisture in the fine suspension obtained in step , to obtain the graphite-like crystallites carbon nanomaterial. mixing an oxidant solution with a graphite-like microcrystalline charcoal material, and oxidizing the mixture under the conditions of microwave heating to obtain an oxidizing feed solution; the oxidant solution comprising a mixed solution of a first acid and a second acid; and the first acid being nitric acid and the second acid being perchloric acid or sulfuric acid; wherein the graphite-like microcrystalline charcoal material in step is one or more of a wood charcoal, a bamboo charcoal, a shell charcoal, a wood-based activated charcoal, a shell activated charcoal, a bamboo activated charcoal, and a coal-based activated charcoal; regulating the pH value of the oxidizing feed solution obtained in step to 3-8, to obtain a prefiltration system; subjecting the prefiltration system obtained in step to ultrafiltrations, to obtain a suspension and a filtrate; separating the suspension obtained in step , to obtain a fine suspension; and removing moisture in the fine suspension obtained in step , to obtain the graphite-like crystallites carbon nanomaterial.
A method of manufacturing a hyaluronate-coated polydioxanone suture, comprising the steps of: (a) dissolving a hyaluronate in purified water (b) adding an organic solvent to the hyaluronate aqueous solution, wherein the organic solvent is ethanol, to thereby prepare a hyaluronate ethanol aqueous solution having an ethanol concentration of 50 ∼ 70 vol% and a hyaluronate concentration of 0.5 ∼ 2 vol%; and (c) coating a polydioxanone suture with the hyaluronate ethanol aqueous solution and then drying the suture, wherein the hyaluronate of the hyaluronate ethanol aqueous solution has a weight average molecular weight of 5 ∼ 100 kDa. (a) dissolving a hyaluronate in purified water (b) adding an organic solvent to the hyaluronate aqueous solution, wherein the organic solvent is ethanol, to thereby prepare a hyaluronate ethanol aqueous solution having an ethanol concentration of 50 ∼ 70 vol% and a hyaluronate concentration of 0.5 ∼ 2 vol%; and (c) coating a polydioxanone suture with the hyaluronate ethanol aqueous solution and then drying the suture,
A coating composition for flexible roof coatings comprising - at least one aqueous polyurethane dispersion, having a polyalkylene oxide content of at least 10 g/kg of polyurethane and a sulfonated raw material content of at least 25 mmol per kg of polyurethane, as binder, - at least one (in)organic filler and/or at least one (in)organic pigment, - at least one customary auxiliary and - water, wherein the pigment concentration by volume is 10 to 40. - at least one aqueous polyurethane dispersion, having a polyalkylene oxide content of at least 10 g/kg of polyurethane and a sulfonated raw material content of at least 25 mmol per kg of polyurethane, as binder, - at least one (in)organic filler and/or at least one (in)organic pigment, - at least one customary auxiliary and - water,
An imaging system comprising: an imager ; a closed-loop feedback controller for a power injector, comprising: - an input port (IN) for receiving i) a current power injector setting and ii) one or more current images of an object, the one or more image acquired by the imager whilst a fluid is flowing or resides in an object's region of interest and acquired during or after administration into the fluid of contrast agent by the power injector at a current contrast agent flow rate according to the current injector setting; a fluid property determiner (FLD, FPD) configured to determine, by using in-image information of the current one or more image, a physical property of the fluid; a power injector setting determiner (PD) configured to determine an upper threshold for a contrast agent flow rate based on the determined current fluid property; an adjustment back-end (OUT) configured to interface with the power injector for re-adjusting the power injector setting to effect a decrease of the contrast agent flow rate below said upper threshold, so as to control an influence of the contrast agent flow rate on said fluid property. an imager ; a closed-loop feedback controller for a power injector, comprising: - an input port (IN) for receiving i) a current power injector setting and ii) one or more current images of an object, the one or more image acquired by the imager whilst a fluid is flowing or resides in an object's region of interest and acquired during or after administration into the fluid of contrast agent by the power injector at a current contrast agent flow rate according to the current injector setting; - an input port (IN) for receiving i) a current power injector setting and ii) one or more current images of an object, the one or more image acquired by the imager whilst a fluid is flowing or resides in an object's region of interest and acquired during or after administration into the fluid of contrast agent by the power injector at a current contrast agent flow rate according to the current injector setting; a fluid property determiner (FLD, FPD) configured to determine, by using in-image information of the current one or more image, a physical property of the fluid; a power injector setting determiner (PD) configured to determine an upper threshold for a contrast agent flow rate based on the determined current fluid property; an adjustment back-end (OUT) configured to interface with the power injector for re-adjusting the power injector setting to effect a decrease of the contrast agent flow rate below said upper threshold, so as to control an influence of the contrast agent flow rate on said fluid property.
An indoor cable , which comprises an optical fiber core , tension members arranged on both sides of the optical fiber core in a cross section vertical to the longitudinal direction, and an outer sheath that is arranged in such a way so as to cover the tension members and the optical fiber core , the optical fiber core , the tension members , and the outer sheath are all composed of transparent materials; characterized in that the cross-sectional shape of the indoor cable is substantially rectangular and the width of the longer sides is 1.7 mm to 3.1 mm; wherein the transparent materials that compose the optical fiber core , the tension members , and the outer sheath all have total light transmittances, defined by JIS K7361-1, of 60% or higher, and a haze values, defined by JIS K7136, of 15% or lower, where the haze value is represented by: diffuse transmission factor light transmittance × 100%; and wherein materials composing the tension members and the outer sheath have refractive indexes within the range 1.46 ± 0.2, and wherein the refractive index of the optical fiber core is 1.46. an optical fiber core , tension members arranged on both sides of the optical fiber core in a cross section vertical to the longitudinal direction, and an outer sheath that is arranged in such a way so as to cover the tension members and the optical fiber core , the optical fiber core , the tension members , and the outer sheath are all composed of transparent materials; characterized in that the cross-sectional shape of the indoor cable is substantially rectangular and the width of the longer sides is 1.7 mm to 3.1 mm; wherein the transparent materials that compose the optical fiber core , the tension members , and the outer sheath all have total light transmittances, defined by JIS K7361-1, of 60% or higher, and a haze values, defined by JIS K7136, of 15% or lower, where the haze value is represented by: diffuse transmission factor light transmittance × 100%; and wherein materials composing the tension members and the outer sheath have refractive indexes within the range 1.46 ± 0.2, and wherein the refractive index of the optical fiber core is 1.46. diffuse transmission factor light transmittance × 100%; and wherein materials composing the tension members and the outer sheath have refractive indexes within the range 1.46 ± 0.2, and wherein the refractive index of the optical fiber core is 1.46.
Plastic selected from the group consisting of thermoplastic or elastomeric plastics, characterized in that it contains zinc sulphide, the zinc sulphide having an average grain size d 50 of 1 to 50 nm and a specific surface area (BET) of 20 to 300 m 2 /g.
An onboard automatic parking system for a vehicle comprising: an automatic parking unit (20; 120; 220) suited to control a maneuver of the vehicle in or out of a park area secured by a remotely controlled access system ; a communication circuit (14; 114; 214) suited to send a wireless instruction for operating the access system ; and a human machine interface (30; 130; 230) suited to monitor the communication circuit (14; 114; 214) to send the wireless instruction upon actuation of the human machine interface (30; 130; 230), wherein transmission of the wireless instruction by the data communication circuit is synchronized with the maneuver; wherein the automatic parking unit computes an appropriate time to operate the access system ; wherein the automatic parking unit communicates said appropriate time to the human machine interface such that the human machine interface controls operation of the access system at said appropriate time; wherein the human machine interface (30; 130; 230) is also suited to command the automatic parking unit (20; 120; 220) that controls the maneuver subsequent to actuation of said human machine interface (30; 130; 230). an automatic parking unit (20; 120; 220) suited to control a maneuver of the vehicle in or out of a park area secured by a remotely controlled access system ; a communication circuit (14; 114; 214) suited to send a wireless instruction for operating the access system ; and a human machine interface (30; 130; 230) suited to monitor the communication circuit (14; 114; 214) to send the wireless instruction upon actuation of the human machine interface (30; 130; 230), wherein transmission of the wireless instruction by the data communication circuit is synchronized with the maneuver; wherein the automatic parking unit computes an appropriate time to operate the access system ; wherein the automatic parking unit communicates said appropriate time to the human machine interface such that the human machine interface controls operation of the access system at said appropriate time; wherein the human machine interface (30; 130; 230) is also suited to command the automatic parking unit (20; 120; 220) that controls the maneuver subsequent to actuation of said human machine interface (30; 130; 230).
A modem for wireless communication of a communication device with one or more wireless communication networks, the modem comprising: a secure user plane location, SUPL, socket configured to: establish a secure connection with a position assistance server ; and provide a SUPL message to the position assistance server via the secure connection, characterized in that the modem further comprises an internet protocol multimedia subsystem, IMS, stack configured to establish an emergency packet data network, PDN, regardless of whether the communication device includes a valid Universal Integrated Circuit Card, UICC, or Subscriber identity module, SIM, card to authenticate the communication device on said one or more wireless networks, the emergency PDN being used to establish the secure connection with the position assistance server and to provide the SUPL message to the position assistance server . establish a secure connection with a position assistance server ; and provide a SUPL message to the position assistance server via the secure connection, characterized in that the modem further comprises an internet protocol multimedia subsystem, IMS, stack configured to establish an emergency packet data network, PDN, regardless of whether the communication device includes a valid Universal Integrated Circuit Card, UICC, or Subscriber identity module, SIM, card to authenticate the communication device on said one or more wireless networks, the emergency PDN being used to establish the secure connection with the position assistance server and to provide the SUPL message to the position assistance server .
A particles object freezing device , comprising: an air-permeable belt configured to support conveyance of a particles object , characterized by further comprising an injection plate which includes a plurality of injection holes configured to inject a cooling gas to the belt from below, wherein the belt includes a sliding portion configured to move while sliding on an upper surface of the injection plate in a traveling direction of the belt. an air-permeable belt configured to support conveyance of a particles object , characterized by further comprising an injection plate which includes a plurality of injection holes configured to inject a cooling gas to the belt from below, wherein the belt includes a sliding portion configured to move while sliding on an upper surface of the injection plate in a traveling direction of the belt.
A beam shaping assembly for neutron capture therapy comprising: a beam inlet ; a target , wherein the target is provided to have a nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, the neutrons forming a neutron beam, and the neutron beam moving along a main axis (X6, X7); a moderator adjoining to the target , wherein the moderator provided to moderate the neutrons to epithermal neutron energies, wherein the moderator comprises at least a tapered structure; a reflector surrounding the moderator , wherein the reflector is provided to lead the neutrons deviated from the main axis (X6, X7) back to enhance epithermal neutron beam intensity; a thermal neutron absorber adjoining to the moderator , wherein the thermal neutron absorber is provided for absorbing thermal neutrons so as to avoid overdosing in superficial normal tissue during therapy; a radiation shield arranged inside the beam shaping assembly , wherein the radiation shield is provided for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet ; characterized in that the tapered structure comprises a main body and a supplement section surrounding the main body ; the materials of the main body and the supplement section are different, wherein the main body is prepared from any one of D 2 O, AIF 3 , FluentalTM, CaF 2 , Li 2 CO 3 , MgF 2 and Al 2 O 3 , and the supplement section is prepared from any one of Zn, Mg, Al, Ti, La, Pb, Zr, and Bi. a beam inlet ; a target , wherein the target is provided to have a nuclear reaction with an incident proton beam from the beam inlet to produce neutrons, the neutrons forming a neutron beam, and the neutron beam moving along a main axis (X6, X7); a moderator adjoining to the target , wherein the moderator provided to moderate the neutrons to epithermal neutron energies, wherein the moderator comprises at least a tapered structure; a reflector surrounding the moderator , wherein the reflector is provided to lead the neutrons deviated from the main axis (X6, X7) back to enhance epithermal neutron beam intensity; a thermal neutron absorber adjoining to the moderator , wherein the thermal neutron absorber is provided for absorbing thermal neutrons so as to avoid overdosing in superficial normal tissue during therapy; a radiation shield arranged inside the beam shaping assembly , wherein the radiation shield is provided for shielding leaking neutrons and photons so as to reduce dose of the normal tissue not exposed to irradiation; and a beam outlet ; characterized in that the tapered structure comprises a main body and a supplement section surrounding the main body ; the materials of the main body and the supplement section are different, wherein the main body is prepared from any one of D 2 O, AIF 3 , FluentalTM, CaF 2 , Li 2 CO 3 , MgF 2 and Al 2 O 3 , and the supplement section is prepared from any one of Zn, Mg, Al, Ti, La, Pb, Zr, and Bi.
A thermoplastic elastomer foam, made by a method comprising: providing a polymer mixture comprising: a thermoplastic elastomer; from 0.1 wt% to 20 wt%, based on total polymer weight, of a semi-crystalline polymer; and a gaseous or supercritical blowing agent incorporated into the polymer mixture under pressure; wherein the polymer mixture is formed by combining a molten thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a molten semi-crystalline polymer, then cooling the combined polymers to below a temperature at which the semi-crystalline polymer forms polymeric crystalline domains; and releasing the pressure at a temperature below the crystallization temperature of the semi-crystalline polymer to foam the mixture thereby forming the thermoplastic elastomer foam, wherein the semi-crystalline polymer is selected from copolymers of ethylene with at least one vinyl monomer, polyamides, polyesters, and combinations of these. providing a polymer mixture comprising: a thermoplastic elastomer; from 0.1 wt% to 20 wt%, based on total polymer weight, of a semi-crystalline polymer; and a gaseous or supercritical blowing agent incorporated into the polymer mixture under pressure; wherein the polymer mixture is formed by combining a molten thermoplastic elastomer and from 0.1 wt% to 20 wt%, based on total polymer weight, of a molten semi-crystalline polymer, then cooling the combined polymers to below a temperature at which the semi-crystalline polymer forms polymeric crystalline domains; and releasing the pressure at a temperature below the crystallization temperature of the semi-crystalline polymer to foam the mixture thereby forming the thermoplastic elastomer foam, wherein the semi-crystalline polymer is selected from copolymers of ethylene with at least one vinyl monomer, polyamides, polyesters, and combinations of these.
A method of quantifying loss associated with an optical connector that is connected to an end of an optical fibre ; in which the optical fibre comprises a plurality of embedded optical reflectors distributed periodically along the length of the fibre ; in which the method comprises: inserting an optical signal into the fibre through the optical connector ; measuring a component of the optical signal reflected by at least one of the plurality of embedded optical reflectors , in which the component is received through the optical connector ; calculating the difference in power level between the inserted and reflected signals; and quantifying, based on the calculated power level difference and the reflectivity of the embedded optical reflectors , the loss associated with the optical connector . in which the optical fibre comprises a plurality of embedded optical reflectors distributed periodically along the length of the fibre ; in which the method comprises: inserting an optical signal into the fibre through the optical connector ; measuring a component of the optical signal reflected by at least one of the plurality of embedded optical reflectors , in which the component is received through the optical connector ; calculating the difference in power level between the inserted and reflected signals; and quantifying, based on the calculated power level difference and the reflectivity of the embedded optical reflectors , the loss associated with the optical connector . inserting an optical signal into the fibre through the optical connector ; measuring a component of the optical signal reflected by at least one of the plurality of embedded optical reflectors , in which the component is received through the optical connector ; calculating the difference in power level between the inserted and reflected signals; and quantifying, based on the calculated power level difference and the reflectivity of the embedded optical reflectors , the loss associated with the optical connector .
A bioassembly system comprising a tissue modeling component and a robotic bioassembly workstation component, the tissue modeling component comprising a user interface, at least one suite of tools for performing an object operation selected from creating, editing, modeling, transforming, image property modulating, sketching, print supporting, simulating, material testing and combinations thereof, a material database, and software executable by a machine to facilitate a method for designing a volumetric model of a biological construct at the user interface, the tissue modeling component being operationally linked to the robotic bioassembly workstation component, characterised in that the robotic bioassembly workstation component comprises a multi-axis robot , which comprises at least a six-axis robot , the method comprising dispensing biomaterial onto a 3-D print substrate by non-sequential planar layering; by dispensing biomaterial at an angle oblique to a plane of a surface of the 3-D print substrate; and/or by dispensing biomaterial at an angle normal to all desired surface depositions of the 3-D print substrate.
Method for authenticating a user of a first device when accessing a service offered by a service provider, the first device belonging to a group of devices of a local area network including a second device of a user, which has an identification module for identifying and authenticating itself with the service, characterized in that it comprises - a preliminary broadcasting step during which the second device spontaneously broadcasts, to the first device, a possibility of providing a proof of authentication, and in that , when the first device wishes to authenticate itself, - a step (ET14, ET22) of the first device requesting, from the second device, a proof of successful authentication with the service, the proof including the identity of the user of the second device, - a step (ET16, ET23) of transmitting the proof from the second device to the first device, - a step (ET18, ET25) of authenticating the user of the first device on the basis of the received proof. - a preliminary broadcasting step during which the second device spontaneously broadcasts, to the first device, a possibility of providing a proof of authentication, - a step (ET14, ET22) of the first device requesting, from the second device, a proof of successful authentication with the service, the proof including the identity of the user of the second device, - a step (ET16, ET23) of transmitting the proof from the second device to the first device, - a step (ET18, ET25) of authenticating the user of the first device on the basis of the received proof.