mhurhangee/patent-ind-claim-en huggingface dataset:
A method for attracting biting flies, the method comprising the steps of: (a) providing a bait station, the method being characterized in that the bait station includes : (i) a date-derived syrup product for attracting at least one type of biting fly selected from the group consisting of: mosquitoes, sand flies, stable flies, biting midges, and stomoxys, wherein said date-derived syrup product refers to a syrup product derived from non-fermented fruit borne of the Genus Phoenix L. which includes the date palm, Family Arecaceae, the main species Phoenix dactylifera L., P. atlantica A. Chev., P. canariensis Chabeaud, P. reclinata Jacq., P. sylvestris Roxb., P. humilis Royle, P. hanceana Naudin, P. robelinic O'Brein, P . farinifera Roxb., P. rupicola T. Anders., P. acaulis Roxb., and P . paludosa Roxb., Canary Island date palm, Loureir's date palm, Senegal date palm, reclining date palm, pygmy date palm, wild date palm, and descendent species therein; and (ii) a substrate material for supporting said date-derived syrup product; and (b) locating said bait station in a designated geographic area in order to attract said at least one type of biting fly. (a) providing a bait station, the method being characterized in that the bait station includes : (i) a date-derived syrup product for attracting at least one type of biting fly selected from the group consisting of: mosquitoes, sand flies, stable flies, biting midges, and stomoxys, wherein said date-derived syrup product refers to a syrup product derived from non-fermented fruit borne of the Genus Phoenix L. which includes the date palm, Family Arecaceae, the main species Phoenix dactylifera L., P. atlantica A. Chev., P. canariensis Chabeaud, P. reclinata Jacq., P. sylvestris Roxb., P. humilis Royle, P. hanceana Naudin, P. robelinic O'Brein, P . farinifera Roxb., P. rupicola T. Anders., P. acaulis Roxb., and P . paludosa Roxb., Canary Island date palm, Loureir's date palm, Senegal date palm, reclining date palm, pygmy date palm, wild date palm, and descendent species therein; and (ii) a substrate material for supporting said date-derived syrup product; and (i) a date-derived syrup product for attracting at least one type of biting fly selected from the group consisting of: mosquitoes, sand flies, stable flies, biting midges, and stomoxys, wherein said date-derived syrup product refers to a syrup product derived from non-fermented fruit borne of the Genus Phoenix L. which includes the date palm, Family Arecaceae, the main species Phoenix dactylifera L., P. atlantica A. Chev., P. canariensis Chabeaud, P. reclinata Jacq., P. sylvestris Roxb., P. humilis Royle, P. hanceana Naudin, P. robelinic O'Brein, P . farinifera Roxb., P. rupicola T. Anders., P. acaulis Roxb., and P . paludosa Roxb., Canary Island date palm, Loureir's date palm, Senegal date palm, reclining date palm, pygmy date palm, wild date palm, and descendent species therein; and (ii) a substrate material for supporting said date-derived syrup product; and (b) locating said bait station in a designated geographic area in order to attract said at least one type of biting fly.
A LIDAR-based method of determining an absolute speed of an object at a long distance from an ego vehicle, the method comprising: estimating a self speed of the ego vehicle using a first frame t-1 and a second frame t obtained from a LIDAR sensor coupled to the ego vehicle by estimating an intervening rotation θ about a z axis and translation in orthogonal x and y directions using a deep learning algorithm over a relatively closer distance range from the ego vehicle compared to the long distance; dividing each of the first frame t-1 and the second frame t into multiple adjacent input ranges and estimating a relative speed of the object at the relatively longer distance by subsequently processing each frame using a network , with each input range processed using a corresponding convolutional neural network; and combining the estimation of the estimating the self speed with the estimation of the estimating the relative speed to obtain an estimation of the absolute speed of the object at the long distance. estimating a self speed of the ego vehicle using a first frame t-1 and a second frame t obtained from a LIDAR sensor coupled to the ego vehicle by estimating an intervening rotation θ about a z axis and translation in orthogonal x and y directions using a deep learning algorithm over a relatively closer distance range from the ego vehicle compared to the long distance; dividing each of the first frame t-1 and the second frame t into multiple adjacent input ranges and estimating a relative speed of the object at the relatively longer distance by subsequently processing each frame using a network , with each input range processed using a corresponding convolutional neural network; and combining the estimation of the estimating the self speed with the estimation of the estimating the relative speed to obtain an estimation of the absolute speed of the object at the long distance.
A composite/metal joint comprising: a composite member having a first aperture ; a metallic member disposed adjacent to the composite member, the metallic member having a second aperture coaxially aligned with the first aperture ; a cylindrical liner extending longitudinally from a first end to a second end, the cylindrical liner having a cylindrical outer liner surface and a longitudinally extending third aperture coaxial with the first and second apertures and defined by an inner liner surface, the cylindrical liner disposed in the first and second apertures with the outer liner surface adjacent to aperture walls of the first and second apertures ; and a fastener disposed through the third aperture of the cylindrical liner and configured to attach the metallic member to the composite member, wherein an outer surface of the fastener is in direct contact with the inner liner surface; characterized in that the cylindrical liner has a plurality of grooves intersecting the outer liner surface. a composite member having a first aperture ; a metallic member disposed adjacent to the composite member, the metallic member having a second aperture coaxially aligned with the first aperture ; a cylindrical liner extending longitudinally from a first end to a second end, the cylindrical liner having a cylindrical outer liner surface and a longitudinally extending third aperture coaxial with the first and second apertures and defined by an inner liner surface, the cylindrical liner disposed in the first and second apertures with the outer liner surface adjacent to aperture walls of the first and second apertures ; and a fastener disposed through the third aperture of the cylindrical liner and configured to attach the metallic member to the composite member, wherein an outer surface of the fastener is in direct contact with the inner liner surface;
Plant protection device with at least one base body (16a; 16b; 16c; 16d; 16e; 16f) which is formed in one piece and is configured, in particular for the protection of at least one plant (12a; 12c; 12d; 12e; 12f), to at least partially encompass at least one passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is made of a material that is completely biodegradable, in particular without residue, wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is realized as a skeletal structure, characterized in that the base body (16a; 16b; 16c; 16d; 16e; 16f) which is realized as a skeletal structure is formed of a plurality of struts (26a; 26b; 26c; 26d) which are realized integrally with one another via connection points (24a; 24d) and which delimit a plurality of recesses (28a; 28d) from an outer side of the base body (16a; 16b; 16c; 16d; 16e; 16f) towards an inner side of the base body (16a; 16b; 16c; 16d; 16e; 16f) that faces the passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the connection points (24a; 24d) are formed when a second layer of extruded struts is applied on an extrusion body over a first layer of extruded struts. wherein the base body (16a; 16b; 16c; 16d; 16e; 16f) is realized as a skeletal structure, characterized in that the base body (16a; 16b; 16c; 16d; 16e; 16f) which is realized as a skeletal structure is formed of a plurality of struts (26a; 26b; 26c; 26d) which are realized integrally with one another via connection points (24a; 24d) and which delimit a plurality of recesses (28a; 28d) from an outer side of the base body (16a; 16b; 16c; 16d; 16e; 16f) towards an inner side of the base body (16a; 16b; 16c; 16d; 16e; 16f) that faces the passage (18a; 18b; 18c; 18d; 18e; 18f), wherein the connection points (24a; 24d) are formed when a second layer of extruded struts is applied on an extrusion body over a first layer of extruded struts.
A tissue protection device for mitral valve cerclage annuloplasty, the tissue protection device having a hollow cylindrical tube formed for a coronary sinus cerclage suture and a tricuspid valve cerclage suture , which are continuous with each other, of a cerclage suture to be inserted therein, wherein the hollow cylindrical tube is composed of a stem section being an upper part; a support section being a middle part connected to the stem section, and a tricuspid valve insert being a lower part which is connected to the support section, wherein a stopper preventing the cylindrical tube from going deep inside a myocardium is formed at a lower end portion of the tricuspid valve insert , wherein a hole is formed at the support section so that said coronary sinus cerclage suture inserted in a coronary sinus is configured to come out of the cylindrical tube through said hole and lock the hole to the edge of a coronary sinus inlet in the right atrium when the tricuspid valve insert is inserted into the tricuspid valve when the cerclage suture is under tension wherein the support section is more rigid than the tricuspid valve insert and wherein the tricuspid valve insert is configured to maintain a C-shape between the hole and the stopper without being in contact with a wall of a tricuspid valve in cerclage annuloplasty. wherein the hollow cylindrical tube is composed of a stem section being an upper part; a support section being a middle part connected to the stem section, and a tricuspid valve insert being a lower part which is connected to the support section, wherein a stopper preventing the cylindrical tube from going deep inside a myocardium is formed at a lower end portion of the tricuspid valve insert , wherein a hole is formed at the support section so that said coronary sinus cerclage suture inserted in a coronary sinus is configured to come out of the cylindrical tube through said hole and lock the hole to the edge of a coronary sinus inlet in the right atrium when the tricuspid valve insert is inserted into the tricuspid valve when the cerclage suture is under tension wherein the support section is more rigid than the tricuspid valve insert and wherein the tricuspid valve insert is configured to maintain a C-shape between the hole and the stopper without being in contact with a wall of a tricuspid valve in cerclage annuloplasty.
A method for executing applications on an untrusted device (UD), characterized by the steps of a) Selecting at least two applications as sensitive applications (SA), b) Modifying the instruction sequences (A11, A12, ... A1n) of all selected sensitive applications (SA) by an external dongle (ED) by at least randomly mixing instructions of said instruction sequences, such that instructions of different instructions sequences are mixed, c) Executing the at least two sensitive applications (SA) on the untrusted device according to the modified instruction sequences (A11, A12, ... A1n) and d) Checking correct execution of the instructions of the said modified instruction sequences (A11, A12, ... A1n) by the external dongle (ED), preferably wherein one or more next instructions of a modified instruction sequence (A11, A12, ... A1n) are assigned for execution on the untrusted device (UD) by the external dongle (ED). a) Selecting at least two applications as sensitive applications (SA), b) Modifying the instruction sequences (A11, A12, ... A1n) of all selected sensitive applications (SA) by an external dongle (ED) by at least randomly mixing instructions of said instruction sequences, such that instructions of different instructions sequences are mixed, c) Executing the at least two sensitive applications (SA) on the untrusted device according to the modified instruction sequences (A11, A12, ... A1n) and d) Checking correct execution of the instructions of the said modified instruction sequences (A11, A12, ... A1n) by the external dongle (ED),
A wireless Virtual Reality, VR, docking station configured to communicate with a VR device, the VR docking station comprising: a first array antenna (114-1) disposed at a first location on a bezel of the VR docking station, the first array antenna having an omnidirectional radiation pattern, wherein the first array antenna is folded into two parts such that a first part (116-1) of the first array antenna is to transmit signals on one side of the bezel and a second part (116-2) of the first array antenna is to transmit signals on another side of the bezel; a second array antenna (114-2) disposed at a second location of the bezel, the second array antenna having an omnidirectional radiation pattern, wherein the second array antenna is folded into two parts such that a first part of the second array antenna is to transmit signals on one side of the bezel and a second part of the second array antenna is to transmit signals on another side of the bezel; and wherein each of the first array antenna and the second array antenna communicates with the VR device at about 60 Giga Hertz, GHz, based on Wireless Gigabit Alliance, WiGig, protocol of communication. a first array antenna (114-1) disposed at a first location on a bezel of the VR docking station, the first array antenna having an omnidirectional radiation pattern, wherein the first array antenna is folded into two parts such that a first part (116-1) of the first array antenna is to transmit signals on one side of the bezel and a second part (116-2) of the first array antenna is to transmit signals on another side of the bezel; a second array antenna (114-2) disposed at a second location of the bezel, the second array antenna having an omnidirectional radiation pattern, wherein the second array antenna is folded into two parts such that a first part of the second array antenna is to transmit signals on one side of the bezel and a second part of the second array antenna is to transmit signals on another side of the bezel; and wherein each of the first array antenna and the second array antenna communicates with the VR device at about 60 Giga Hertz, GHz, based on Wireless Gigabit Alliance, WiGig, protocol of communication.
A surgical system comprising: a bronchoscope ; an extended working channel defining an elongated passageway and adapted to extend through the bronchoscope; a first valve in fluid communication with the passageway of the extended working channel; a second valve in fluid communication with the passageway of the extended working channel; an elongated surgical instrument configured and dimensioned to be inserted through the extended working channel; and a first and a second dividing wall within the passageway of the extended working channel defining two semi-annular spaces surrounding the elongated surgical instrument positioned within the extended working channel, wherein a first fluid is able to flow from the first valve and through the first space, and wherein a second fluid is able to flow from the second valve and through the second space. a bronchoscope ; an extended working channel defining an elongated passageway and adapted to extend through the bronchoscope; a first valve in fluid communication with the passageway of the extended working channel; a second valve in fluid communication with the passageway of the extended working channel; an elongated surgical instrument configured and dimensioned to be inserted through the extended working channel; and a first and a second dividing wall within the passageway of the extended working channel defining two semi-annular spaces surrounding the elongated surgical instrument positioned within the extended working channel, wherein a first fluid is able to flow from the first valve and through the first space, and wherein a second fluid is able to flow from the second valve and through the second space.
Method for testing at least one pressurised pipeline , in which - a measuring device with at least one measuring sensor and a wireless data transmission unit is attached to one end of the pressurised pipeline , - a filling device is attached to the other end of the pressurised pipeline , and - the pressurised pipeline is filled with a fluid and pressurised, - wherein at least one pressure in the pressurised pipeline is detected by the measuring device and measurement data recorded continuously or at predetermined times is transmitted wirelessly to a central computer unit located at a distance, characterised in that - the measuring device is already inserted when the pressurised pipeline is inserted into a ground. - a measuring device with at least one measuring sensor and a wireless data transmission unit is attached to one end of the pressurised pipeline , - a filling device is attached to the other end of the pressurised pipeline , and - the pressurised pipeline is filled with a fluid and pressurised, - wherein at least one pressure in the pressurised pipeline is detected by the measuring device and measurement data recorded continuously or at predetermined times is transmitted wirelessly to a central computer unit located at a distance, characterised in that - the measuring device is already inserted when the pressurised pipeline is inserted into a ground.
A process for thermolytic fragmentation of a sugar into C 1 -C 3 oxygenates, said process comprising the steps of: a. providing particles carrying heat and suitable for fluidization; b. providing a fluidized bed fragmentation reactor comprising a riser and suitable for conducting thermolytic fragmentation and suitable for fluidizing a stream of particles; c. providing a feedstock solution comprising a sugar; d. introducing the particles into the reactor at a rate sufficient to maintain a temperature of at least 250°C, such as at least 300 350, 400 or 450 °C, after the thermolytic fragmentation has taken place, and sufficient to obtain a fluidized stream of particles; e. introducing the feedstock into the fluidized stream of particles to obtain thermolytic fragmentation of the sugar to produce a particle dense fragmentation product; then f. separating a fraction of the particles from the particle dense fragmentation product to produce a particle lean fragmentation product; g. quenching the particle lean fragmentation product at least 50 °C such that from introducing the feedstock into the particle containing fluidization stream to the quench is performed, the mean residence time of the gas is maximum 5, such as maximum 3 seconds, such as maximum 2, 1, 0.8 or 0.6 seconds; h. recovering the crude fragmentation product, i. transferring the particles separated in step f) to a reheater for heating; and j. recirculating the heated particles to the fragmentation reactor. a. providing particles carrying heat and suitable for fluidization; b. providing a fluidized bed fragmentation reactor comprising a riser and suitable for conducting thermolytic fragmentation and suitable for fluidizing a stream of particles; c. providing a feedstock solution comprising a sugar; d. introducing the particles into the reactor at a rate sufficient to maintain a temperature of at least 250°C, such as at least 300 350, 400 or 450 °C, after the thermolytic fragmentation has taken place, and sufficient to obtain a fluidized stream of particles; e. introducing the feedstock into the fluidized stream of particles to obtain thermolytic fragmentation of the sugar to produce a particle dense fragmentation product; then f. separating a fraction of the particles from the particle dense fragmentation product to produce a particle lean fragmentation product; g. quenching the particle lean fragmentation product at least 50 °C such that from introducing the feedstock into the particle containing fluidization stream to the quench is performed, the mean residence time of the gas is maximum 5, such as maximum 3 seconds, such as maximum 2, 1, 0.8 or 0.6 seconds; h. recovering the crude fragmentation product, i. transferring the particles separated in step f) to a reheater for heating; and j. recirculating the heated particles to the fragmentation reactor.
A method for delivering requested content over a network , comprising: receiving, by a first network node , a request from a second network node for the requested content, the request comprising an IPv6 address associated with the requested content, wherein the IPv6 address comprises a first portion representing a name of the requested content and a second portion identifying a specific variant of the requested content and wherein the request is routed from the second network node to the first network node using the IPv6 address ; performing a longest prefix match between the IPv6 address associated with the requested content and IPv6 addresses associated with content available at the first network node ; and in the event that the longest prefix match does not result in an exact match between the IPv6 address associated with the requested content and any of the IPv6 addresses associated with content available at the first network node , routing the request towards a content variant matching the first portion of the IPv6 address associated with the requested content and not matching the second portion of the IPv6 address associated with the requested content, the content variant being suitable for transcoding to the specific variant of the requested content identified by the first portion and the second portion of the IPv6 address associated with the requested content, the content variant being stored at the first network node or on a third network node . receiving, by a first network node , a request from a second network node for the requested content, the request comprising an IPv6 address associated with the requested content, wherein the IPv6 address comprises a first portion representing a name of the requested content and a second portion identifying a specific variant of the requested content and wherein the request is routed from the second network node to the first network node using the IPv6 address ; performing a longest prefix match between the IPv6 address associated with the requested content and IPv6 addresses associated with content available at the first network node ; and in the event that the longest prefix match does not result in an exact match between the IPv6 address associated with the requested content and any of the IPv6 addresses associated with content available at the first network node , routing the request towards a content variant matching the first portion of the IPv6 address associated with the requested content and not matching the second portion of the IPv6 address associated with the requested content, the content variant being suitable for transcoding to the specific variant of the requested content identified by the first portion and the second portion of the IPv6 address associated with the requested content, the content variant being stored at the first network node or on a third network node .
An aluminum alloy comprising 0.7 - 3.0 wt. % Zn, 0.15 - 0.35 wt. % Si, 0.25 - 0.65 wt. % Fe, 0.05 - 0.20 wt. % Cu, 0.75 - 1.50 wt. % Mn, 0.50 - 1.50 wt. % Mg, up to 0.10 wt. % Cr, up to 0.10 wt. % Ti, and up to 0.15 wt. % of impurities, with the remainder as Al.