mhurhangee/patent-ind-claim-en huggingface dataset:
A method of authenticating a message frame on a multi-master access bus with message broadcasting, said method comprising, for a broadcasting node out of a plurality of nodes that are connected to the multi-master access bus: providing a logic bus identifier, LID, out of a plurality of logic bus identifiers, wherein the logic bus identifier, LID, is associated with a logical group of nodes to which the broadcasting node is assigned (S130); obtaining a permission indication of a key associated with the logic bus identifier, LID (S140), the permission indication relating to a usage limitation of the key; retrieving the key associated with the logic bus identifier, LID, in response to verifying that the permission indication allows for using the key for generating a cryptographic hash value, MAC, wherein a different key is assigned to each logical group (S150); generating a cryptographic hash value, MAC, using the retrieved key and based on at least the logic bus identifier, LID (S160); and composing a message frame comprising the logic bus identifier, LID, and the cryptographic hash value, MAC (S180). providing a logic bus identifier, LID, out of a plurality of logic bus identifiers, wherein the logic bus identifier, LID, is associated with a logical group of nodes to which the broadcasting node is assigned (S130); obtaining a permission indication of a key associated with the logic bus identifier, LID (S140), the permission indication relating to a usage limitation of the key; retrieving the key associated with the logic bus identifier, LID, in response to verifying that the permission indication allows for using the key for generating a cryptographic hash value, MAC, wherein a different key is assigned to each logical group (S150); generating a cryptographic hash value, MAC, using the retrieved key and based on at least the logic bus identifier, LID (S160); and composing a message frame comprising the logic bus identifier, LID, and the cryptographic hash value, MAC (S180).
Mixture for producing a thermochromic plastic molded body having irreversible color change, comprising at least one thermoplastic resin, at least one dye, at least one fluxing agent, and at least one developer precursor, which can be converted to at least one developer by way of irradiation at a temperature below the switching temperature of the thermochromic plastic molded body.
A particle mixture comprising particles of glass frit and particles of a crystalline oxide material, wherein the glass frit comprises 25 to 65 wt.% silicon oxide (SiO 2 ), 19 to 59 wt.% zinc oxide (ZnO) and >0 to 6 wt.% sulfur (S) and wherein the D90 particle size of the particle mixture is less than 5 microns.
A beverage comprising: between 5% and 90% by weight juice; added water; at least one non-nutritive sweetener; at least one flavour; and a co-product from juice extraction, wherein the co-product comprises a number average particle size of between 0.1 and 2000 microns, a total polyphenol content of at least 2500 parts per million, a moisture content of between 70% and 85% by weight, and a combined peel and seed content between 0.01% and 20% by weight, and wherein the co-product comprises between 6% and 15% by weight fiber, wherein the fiber of the co-product comprises both insoluble fiber and soluble fiber, preferably wherein the fiber of the co-product comprises a ratio of soluble fiber to insoluble fiber of 1:2; wherein the beverage comprises between 2% and 30% by weight of the co-product, and wherein the beverage comprises a brix of between 5 brix and 9 brix. between 5% and 90% by weight juice; added water; at least one non-nutritive sweetener; at least one flavour; and a co-product from juice extraction, wherein the co-product comprises a number average particle size of between 0.1 and 2000 microns, a total polyphenol content of at least 2500 parts per million, a moisture content of between 70% and 85% by weight, and a combined peel and seed content between 0.01% and 20% by weight, and wherein the co-product comprises between 6% and 15% by weight fiber, wherein the fiber of the co-product comprises both insoluble fiber and soluble fiber, preferably wherein the fiber of the co-product comprises a ratio of soluble fiber to insoluble fiber of 1:2; wherein the beverage comprises between 2% and 30% by weight of the co-product, and wherein the beverage comprises a brix of between 5 brix and 9 brix.
A method for fault location in a power transmission line connecting a first terminal with a second terminal, wherein the method is implemented with a processor of a device associated with the power transmission line, the method comprising: obtaining arrival times of a first peak and a second peak of travelling waves detected from measurements carried out at the first and second terminals; identifying one of a first half, a second half, and a mid-point of the power transmission line, as having the fault, based on a comparison of ( tn 2 - tm 1) with ( tm 2 - tn 1), wherein tm1 and tm2 are the arrival times of the first and second peaks obtained for the travelling wave detected from the measurements carried out at the first terminal, and tn1 and tn2 are the arrival times of the first and second peaks obtained for the travelling wave detected from the measurements carried out at the second terminal; and estimating the fault location based on the identification of the first half, the second half and the mid-point, as having the fault, the arrival times of the first and second peaks of the travelling waves detected from measurements carried out at the first and second terminals, and length of the power transmission line. obtaining arrival times of a first peak and a second peak of travelling waves detected from measurements carried out at the first and second terminals; identifying one of a first half, a second half, and a mid-point of the power transmission line, as having the fault, based on a comparison of ( tn 2 - tm 1) with ( tm 2 - tn 1), wherein tm1 and tm2 are the arrival times of the first and second peaks obtained for the travelling wave detected from the measurements carried out at the first terminal, and tn1 and tn2 are the arrival times of the first and second peaks obtained for the travelling wave detected from the measurements carried out at the second terminal; and estimating the fault location based on the identification of the first half, the second half and the mid-point, as having the fault, the arrival times of the first and second peaks of the travelling waves detected from measurements carried out at the first and second terminals, and length of the power transmission line.
A system for use in performing an intraocular procedure for treating an eye condition, said system comprising: a plurality of single use, disposable excimer laser probes ; an excimer laser source for generating laser energy to be provided to one of the plurality of single use, disposable excimer laser probes coupleable, one at a time, to said excimer laser source ; a non-transitory, computer-readable memory; and a laser management system comprising a hardware processor coupled to the non-transitory, computer-readable memory, the non-transitory, computer-readable memory containing instructions executable by said hardware processor to cause said laser management system to: upon each instance of connecting a separate one of the plurality of excimer laser probes to the laser source , automatically receive and analyze data from a given one of the plurality of excimer laser probes coupled to said excimer laser source , said data indicative of at least a diameter of a fiber optic core of said given laser probe ; and automatically fine tune and adjust laser energy output from said excimer laser source to said excimer laser probe based on the diameter of the fiber optic core such that laser energy output from any one of the plurality of excimer laser probes is maintained at a desired level. a plurality of single use, disposable excimer laser probes ; an excimer laser source for generating laser energy to be provided to one of the plurality of single use, disposable excimer laser probes coupleable, one at a time, to said excimer laser source ; a non-transitory, computer-readable memory; and a laser management system comprising a hardware processor coupled to the non-transitory, computer-readable memory, the non-transitory, computer-readable memory containing instructions executable by said hardware processor to cause said laser management system to: upon each instance of connecting a separate one of the plurality of excimer laser probes to the laser source , automatically receive and analyze data from a given one of the plurality of excimer laser probes coupled to said excimer laser source , said data indicative of at least a diameter of a fiber optic core of said given laser probe ; and automatically fine tune and adjust laser energy output from said excimer laser source to said excimer laser probe based on the diameter of the fiber optic core such that laser energy output from any one of the plurality of excimer laser probes is maintained at a desired level. upon each instance of connecting a separate one of the plurality of excimer laser probes to the laser source , automatically receive and analyze data from a given one of the plurality of excimer laser probes coupled to said excimer laser source , said data indicative of at least a diameter of a fiber optic core of said given laser probe ; and automatically fine tune and adjust laser energy output from said excimer laser source to said excimer laser probe based on the diameter of the fiber optic core such that laser energy output from any one of the plurality of excimer laser probes is maintained at a desired level.
A tape printing device that is vertically long and is able to be operated by being handheld, comprising: a handheld supporting portion that is a part to be handheld; a main mechanism portion in which a printing portion which is disposed on a tip end side connected to the handheld supporting portion is built; wherein the tape printing device is formed in a vertically long shape of which a ratio between the entire width of an outer shell and the entire length of the outer shell is approximately 1:2 characterised in that the tape printing device further comprises a handholding portion that is disposed on a base end side which is an opposite side of the tip end side connected to the handheld supporting portion , and is used for being grabbed at the time of carrying, wherein the handholding portion includes a grip portion that faces the handheld supporting portion with a finger inserting gap for inserting a finger, and a pair of grip supporting portions that extends from both ends of the grip portion to a base end of the handheld supporting portion , wherein a battery being attached and detached to and from the grip portion side is built in the handheld supporting portion , and wherein the finger inserting gap also serves as an inserting gap of the finger which grabs the battery at the time of attaching and detaching. a handheld supporting portion that is a part to be handheld; a main mechanism portion in which a printing portion which is disposed on a tip end side connected to the handheld supporting portion is built; wherein the tape printing device is formed in a vertically long shape of which a ratio between the entire width of an outer shell and the entire length of the outer shell is approximately 1:2 characterised in that the tape printing device further comprises a handholding portion that is disposed on a base end side which is an opposite side of the tip end side connected to the handheld supporting portion , and is used for being grabbed at the time of carrying, wherein the handholding portion includes a grip portion that faces the handheld supporting portion with a finger inserting gap for inserting a finger, and a pair of grip supporting portions that extends from both ends of the grip portion to a base end of the handheld supporting portion , wherein a battery being attached and detached to and from the grip portion side is built in the handheld supporting portion , and wherein the finger inserting gap also serves as an inserting gap of the finger which grabs the battery at the time of attaching and detaching.
A device authentication method comprising: generating, by a first device, authentication request information; generating, by the first device, an authentication request transaction, and sending the authentication request transaction to a first device channel, the authentication request transaction including a public key of the first device and a first hash value of the authentication request information, and the first device channel being established on a distributed ledger; generating, by the first device, an authentication request message that includes the authentication request information and device channel information of the first device channel, producing a digital signature of the authentication request message using a private key of the first device, and sending the digital signature and the authentication request message to a second device; and receiving, by the first device, an authentication response message returned by the second device, the authentication response message indicating whether authentication of the first device succeeds. generating, by a first device, authentication request information; generating, by the first device, an authentication request transaction, and sending the authentication request transaction to a first device channel, the authentication request transaction including a public key of the first device and a first hash value of the authentication request information, and the first device channel being established on a distributed ledger; generating, by the first device, an authentication request message that includes the authentication request information and device channel information of the first device channel, producing a digital signature of the authentication request message using a private key of the first device, and sending the digital signature and the authentication request message to a second device; and receiving, by the first device, an authentication response message returned by the second device, the authentication response message indicating whether authentication of the first device succeeds.
A multi-rotor Aerial Vehicle comprising: a frame having at least five arms, wherein the total number of arms is an odd number; a plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2) configured on the at least five arms; wherein only one arm out of the at least five arms incorporates a co-axial pair of contra rotating rotors/propellers (P5-1, P5-2); a control system incorporating an autopilot configured to control operation of the plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2) including their throttle based on operating condition of the Aerial Vehicle and its functional systems to maintain yaw stability, lift stability and tilt stability; wherein, in the event of failure of any one of the plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2), the auto pilot controls operation the plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2) to maintain yaw stability, lift stability and tilt stability. a frame having at least five arms, wherein the total number of arms is an odd number; a plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2) configured on the at least five arms; wherein only one arm out of the at least five arms incorporates a co-axial pair of contra rotating rotors/propellers (P5-1, P5-2); a control system incorporating an autopilot configured to control operation of the plurality of rotors/propellers (P1, P2, P3, P4, P5-1, P5-2) including their throttle based on operating condition of the Aerial Vehicle and its functional systems to maintain yaw stability, lift stability and tilt stability;
A fluid ejection device comprising: a fluid recirculation channel ; a drop generator disposed within the fluid recirculation channel ; a fluid slot in fluid communication with each end of the fluid recirculation channel ; a piezoelectric fluid actuator located asymmetrically within the fluid recirculation channel with respect to the center point of the length of the fluid recirculation channel to cause fluid flow from the fluid slot , through the recirculation channel and drop generator , and back to the fluid slot , wherein the piezoelectric fluid actuator is provided between one end of the fluid recirculation channel and the drop generator and wherein there is no piezoelectric fluid actuator provided between the other end of the fluid recirculation channel and the drop generator ; and a controller configured to control the direction of the fluid flow by causing the piezoelectric fluid actuator to generate compressive and tensile fluid displacements of controlled duration, wherein the controller is configured to control the duration of the compressive and tensile fluid displacements to be unequal. a fluid recirculation channel ; a drop generator disposed within the fluid recirculation channel ; a fluid slot in fluid communication with each end of the fluid recirculation channel ; a piezoelectric fluid actuator located asymmetrically within the fluid recirculation channel with respect to the center point of the length of the fluid recirculation channel to cause fluid flow from the fluid slot , through the recirculation channel and drop generator , and back to the fluid slot , wherein the piezoelectric fluid actuator is provided between one end of the fluid recirculation channel and the drop generator and wherein there is no piezoelectric fluid actuator provided between the other end of the fluid recirculation channel and the drop generator ; and a controller configured to control the direction of the fluid flow by causing the piezoelectric fluid actuator to generate compressive and tensile fluid displacements of controlled duration, wherein the controller is configured to control the duration of the compressive and tensile fluid displacements to be unequal.
A lighting apparatus comprising a single point-like light source , preferably a LED, and a transmissive substantially planar lens structure optically connected to said light source defining a plurality of optically functional, mutually different segments dedicated for controlling the light distributed and directed from said single light source, the lighting apparatus configured to produce asymmetric light distribution, wherein at least one segment comprises at least one optically functional feature selected from the group consisting of: surface relief form, surface relief pattern, surface relief grating, diffractive grating, diffractive profile, relief groove, relief protrusion, slanted relief profile, blazed relief profile, symmetric relief profile, asymmetric relief profile, refractive profile, and a number of refractive Fresnel profiles; characterized in that at least one segment comprises a number of embedded optically functional features comprising a cavity, the boundary of which and neighbouring lens material defines internal relief forms within the lens structure.
Apparatus for the preparation of a semi-solid magnesium alloy in a quasi-liquid state comprising three communicating chambers, where: - the melting chamber X is provided with a sluice-gate opening on the upper side, a communicating channel between the chamber X and the chamber Y adjacent to the bottom, heating elements , a porous septum on the lower side for inert gas insufflation, and one or more inserts of graphite or silicon carbide inserted on the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets ; - the chamber Y provided with heating elements , a communicating channel between the chamber Y and the chamber Z adjacent to the bottom, a piston capable of opening and closing the channel , and one or more inserts of graphite or silicon carbide inserted within the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets ; - the dosing chamber Z is provided with heating elements , a valve on the upper side, a dosing tube which allows the magnesium alloy coming out from the apparatus , and one or more inserts of graphite or silicon carbide inserted within the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets . - the melting chamber X is provided with a sluice-gate opening on the upper side, a communicating channel between the chamber X and the chamber Y adjacent to the bottom, heating elements , a porous septum on the lower side for inert gas insufflation, and one or more inserts of graphite or silicon carbide inserted on the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets ; - the chamber Y provided with heating elements , a communicating channel between the chamber Y and the chamber Z adjacent to the bottom, a piston capable of opening and closing the channel , and one or more inserts of graphite or silicon carbide inserted within the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets ; - the dosing chamber Z is provided with heating elements , a valve on the upper side, a dosing tube which allows the magnesium alloy coming out from the apparatus , and one or more inserts of graphite or silicon carbide inserted within the bottom, and an electromagnetic induction block plate and/or one or more rotating plate bearing permanent magnets and/or rotating permanent magnets .
A recombinant viral capsid protein that is genetically modified to display a heterologous amino acid sequence comprising a first member of a protein:protein binding pair inserted into the viral capsid protein, wherein the viral capsid protein is derived from a cap gene of an adeno-associated virus (AAV) that encodes an AAV VP1, VP2, and/or VP3 capsid protein; wherein: (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond. wherein the viral capsid protein is derived from a cap gene of an adeno-associated virus (AAV) that encodes an AAV VP1, VP2, and/or VP3 capsid protein; wherein: (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond. (a) the first member of the protein:protein binding pair is a peptide tag and is capable of forming an isopeptide bond with a second cognate member of the protein:protein binding pair; or (b) the first member of the protein:protein binding pair is a peptide tag and the viral capsid protein further comprises the second cognate member of the protein:protein binding pair, wherein the first member and second cognate member are bound by an isopeptide bond.