mhurhangee/ep-ind-claims huggingface dataset:
Bridge-laying vehicle having a portable bridge and a vehicle superstructure on which the bridge can be locked by means of a locking device, characterized in that the locking device has a locking element, which can be moved by means of a drive from an open position into a locking position, and an end-position arresting means which arrests the locking element in the locking position against unwanted release, wherein the locking element can be moved into its locking position by means of a helical mechanism and wherein the end-position arresting means is arranged on the helical mechanism.
A method of recovering a registry, wherein the registry receives a Domain, Name Server, DNS, query and returns the IP address of a nameserver in response, the method comprising: accessing a plurality of registry zone files for the registry, wherein each of the registry zone files comprises at least domain names, nameserver server names, IP addresses, registrar IDs, and status information represented in a first format; archiving, on a first periodic basis, the plurality of registry zone files; accessing bulk WHOIS data for the registry, wherein the bulk WHOIS data comprises at least domain names, nameserver server names, IP addresses, and status information represented in a second format; archiving, on a second periodic basis, the bulk WHOIS data; validating, at a recovery registry, one of the plurality of archived registry zone files (120a, 120b, 120c) based on a comparison between the plurality of registry zone files including a most recently archived registry zone file, and the bulk WHOIS data; publishing the validated registry zone file to the recovery registry's nameservers (130, 660); initiating a root zone change request, wherein the root zone change causes the recovery registry to operate in place of the registry; and updating authoritative nameservers (130, 660) of the recovery registry, wherein the DNS query is directed to the recovery registry's nameserver as the authoritative nameserver. accessing a plurality of registry zone files for the registry, wherein each of the registry zone files comprises at least domain names, nameserver server names, IP addresses, registrar IDs, and status information represented in a first format; archiving, on a first periodic basis, the plurality of registry zone files; accessing bulk WHOIS data for the registry, wherein the bulk WHOIS data comprises at least domain names, nameserver server names, IP addresses, and status information represented in a second format; archiving, on a second periodic basis, the bulk WHOIS data; validating, at a recovery registry, one of the plurality of archived registry zone files (120a, 120b, 120c) based on a comparison between the plurality of registry zone files including a most recently archived registry zone file, and the bulk WHOIS data; publishing the validated registry zone file to the recovery registry's nameservers (130, 660); initiating a root zone change request, wherein the root zone change causes the recovery registry to operate in place of the registry; and updating authoritative nameservers (130, 660) of the recovery registry, wherein the DNS query is directed to the recovery registry's nameserver as the authoritative nameserver.
A method of operation of a natural user interface system comprising: providing a display device having a display screen, a display device camera, a compass and a gyroscope; providing a mobile device having a mobile device camera, a compass and a gyroscope and where an optical axis of the mobile device camera is positioned at an angle to an optical axis of the display device camera; pairing said mobile device with said display device; synchronizing a viewing angle of said mobile device camera based on the orientation of said mobile device relative to said display device using the compass and gyroscope readings of the said mobile device and of said display device; detecting a user's hand with said mobile device camera and said display device camera; determining posture and movement of said user's hand; translating the posture and movement of said user's hand into a gesture for controlling an element of a user interface on said display screen; detecting a user's face; determining an eyeline vector from said user's face; and refining movement of a cursor on said display screen using said eyeline vector. providing a display device having a display screen, a display device camera, a compass and a gyroscope; providing a mobile device having a mobile device camera, a compass and a gyroscope and where an optical axis of the mobile device camera is positioned at an angle to an optical axis of the display device camera; pairing said mobile device with said display device; synchronizing a viewing angle of said mobile device camera based on the orientation of said mobile device relative to said display device using the compass and gyroscope readings of the said mobile device and of said display device; detecting a user's hand with said mobile device camera and said display device camera; determining posture and movement of said user's hand; translating the posture and movement of said user's hand into a gesture for controlling an element of a user interface on said display screen; detecting a user's face; determining an eyeline vector from said user's face; and refining movement of a cursor on said display screen using said eyeline vector.
A cooling system of an internal combustion piston engine comprising a circuit for cooling water based solution, a pump arranged in the circuit so as to maintain the cooling water based solution flowing in the circuit, an engine cooling system arranged to cool the engine or parts thereof and heat the cooling water based solution in the circuit, and a combustion air cooling system arranged to cool combustion air and heat the cooling water based solution in the circuit by the heat transferred from the combustion air, and a cooler arranged to the circuit, wherein the engine cooling system, the combustion air cooling system and the cooler are coupled in series in the circuit and the engine cooling system is arranged in an inlet side of the combustion air cooling system and, and the fluid flow control system is provided with a passage arranged to branch from the circuit in an outlet side of the combustion air cooling system and is extending between the outlet side and the inlet side of the combustion air cooling system and by-passing the cooler, such that a portion of the cooling water based solution flowed through the combustion air cooling system is arranged to flow to the passage of the fluid flow control system, which passage is arranged to lead the portion of the cooling water based solution to flow back into the combustion air cooling system so as to heat further at least the portion of the cooling water based solution by the heat transferred from the combustion air, characterized in that a fluid flow control system is arranged to the circuit for controlling cooling water based solution flow in response to temperature of the cooling water based solution flowing from the combustion air cooling system, so obtaining a predetermined temperature for the cooling water based solution flowing in the circuit after the combustion air cooling system, and that the passage is provided with a pump to recirculate the cooling water based solution in the passage in a direction from the outlet side of the combustion air cooling system to the inlet side of the combustion air cooling system.
Apparatus for additively manufacturing three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated by means of an energy source, wherein the apparatus comprises a control unit that is adapted to receive encrypted object data relating to at least one three-dimensional object to be built in an additive manufacturing process performed on the apparatus, wherein the control unit is adapted to decrypt the encrypted object data for performing the additive manufacturing process, wherein the encrypted object data comprise at least one generalized object information that is publicly available, wherein the control unit is adapted to access the generalized object information, wherein the generalized object information is or comprises an amount of build material required to build the object and/or a parameter relating to the size of the object, in particular a space required on a build plane or in a build chamber, and/or at least one geometrical parameter, in particular relating to a geometrical detail of the object, and/or a writing time required to build the object; wherein the control unit is adapted to decide whether the object related to the generalized object information can be manufactured on the apparatus based on the generalized object information. a control unit that is adapted to receive encrypted object data relating to at least one three-dimensional object to be built in an additive manufacturing process performed on the apparatus, wherein the control unit is adapted to decrypt the encrypted object data for performing the additive manufacturing process, wherein the encrypted object data comprise at least one generalized object information that is publicly available, wherein the control unit is adapted to access the generalized object information, wherein the generalized object information is or comprises an amount of build material required to build the object and/or a parameter relating to the size of the object, in particular a space required on a build plane or in a build chamber, and/or at least one geometrical parameter, in particular relating to a geometrical detail of the object, and/or a writing time required to build the object; wherein the control unit is adapted to decide whether the object related to the generalized object information can be manufactured on the apparatus based on the generalized object information.
A readily adhesive white polyester film comprising a polyester film substrate and a coating layer on at least one surface of the polyester film substrate, the coating layer comprising a cationic antistatic agent containing nitrogen, a polyester resin, and a polyurethane resin, the proportion A (at%) of nitrogen derived from the antistatic agent and the proportion B (at%) of nitrogen derived from the polyurethane resin based on surface element distribution measurement by X-ray photoelectron spectroscopy in the coating layer as indicated in the description satisfying the following formulas (i) and (ii), and a surface of the coating layer having a contact angle with respect to water, measured as indicated in the description, of 50° to 70°: A at% > 0.4 2.0 ≤ B/A ≤ 5.0. the coating layer comprising a cationic antistatic agent containing nitrogen, a polyester resin, and a polyurethane resin, the proportion A (at%) of nitrogen derived from the antistatic agent and the proportion B (at%) of nitrogen derived from the polyurethane resin based on surface element distribution measurement by X-ray photoelectron spectroscopy in the coating layer as indicated in the description satisfying the following formulas (i) and (ii), and a surface of the coating layer having a contact angle with respect to water, measured as indicated in the description, of 50° to 70°: A at% > 0.4 2.0 ≤ B/A ≤ 5.0.
A blower comprising: - a volute for conveying air, - a first tube connected to the volute for conveying, - a second tube adapted for being at least partially inserted in the first tube and made to slide inside it along a sliding direction, and - a fixing system of the second tube to the first tube in at least two different positions along the sliding direction one of which is extracted and one is retracted, said blower being characterized by the fact that the fixing system of the second tube to the first tube comprises: - at least one first eyelet and a second eyelet spaced apart along the sliding direction of the second tube in the first tube, made on one among the first tube and the second tube, - at least one third eyelet made on the other among the first and the second tube, - a pin adapted for being inserted simultaneously in the third eyelet and in one among the first and the second eyelet. - a volute for conveying air, - a first tube connected to the volute for conveying, - a second tube adapted for being at least partially inserted in the first tube and made to slide inside it along a sliding direction, and - a fixing system of the second tube to the first tube in at least two different positions along the sliding direction one of which is extracted and one is retracted, - at least one first eyelet and a second eyelet spaced apart along the sliding direction of the second tube in the first tube, made on one among the first tube and the second tube, - at least one third eyelet made on the other among the first and the second tube, - a pin adapted for being inserted simultaneously in the third eyelet and in one among the first and the second eyelet.
Ventilation device having a holder, in particular a ventilation frame (3,, 3"), which has a substantially circular continuous opening (4, 4', 4"') for receiving a ventilation wheel (5, 5', 5"', 5"") rotating around the central axis of said opening (4, 4', 4"'), wherein the opening (4, 4', 4"') is bordered by an edge face (15, 15", 15"', 15"", 15""', 40, 40', 40", 40'", 40"") that runs substantially cylinder-symmetrically around the central axis, characterised in that, at the edge face (15, 15", 15'", 15"", 15'"", 40, 40', 40", 40'", 40"") in two separate peripheral sections (17', 17", 18', 18") that are diametrically opposite each other in comparison to the cylinder-symmetrical shape in the other peripheral sections, a circumferential projection (30, 36, 38) of the edge face (15, 15", 15'", 15"", 15'"", 40, 40', 40", 40'") that protrudes radially inwards is axially offset away from the space provided for the ventilation wheel (5, 5', 5'", 5"").
A variable position device for a turbocharger including a turbine wheel, the variable position device comprising: a fluid diverter for diverting exhaust gas flow to the turbine, the fluid diverter moveable inclusively between a first end-stop position (80, 104) and a second end-stop position (82, 106), wherein the first and second end-stop positions define an end-stop span (84, 108); and an actuator in operable association with the fluid diverter, the actuator configured to, in an operation mode, selectively move the fluid diverter inclusively between a first guard band position (88, 110) and a second guard band position (90, 112), wherein the first and second guard band positions define a guard band span (92, 114) wherein the guard band span (92, 114) is less than the end-stop span (84, 108), the actuator configured to, in a first mode, move the fluid diverter to a first reduced guard band position (94, 116), wherein the first reduced guard band position (94, 116) is inclusively between the first end-stop position (80, 104) and the first guard band position (88, 110), and apply a constant force to the fluid diverter to hold the fluid diverter in the first reduced guard band position (94, 116). a fluid diverter for diverting exhaust gas flow to the turbine, the fluid diverter moveable inclusively between a first end-stop position (80, 104) and a second end-stop position (82, 106), wherein the first and second end-stop positions define an end-stop span (84, 108); and an actuator in operable association with the fluid diverter, the actuator configured to, in an operation mode, selectively move the fluid diverter inclusively between a first guard band position (88, 110) and a second guard band position (90, 112), wherein the first and second guard band positions define a guard band span (92, 114) wherein the guard band span (92, 114) is less than the end-stop span (84, 108), the actuator configured to, in a first mode, move the fluid diverter to a first reduced guard band position (94, 116), wherein the first reduced guard band position (94, 116) is inclusively between the first end-stop position (80, 104) and the first guard band position (88, 110), and apply a constant force to the fluid diverter to hold the fluid diverter in the first reduced guard band position (94, 116).
A method of manufacturing a nanofluid, the method comprising exposing a mixture, contained in a container, of a base fluid and precursor mixture, to gamma radiation, wherein in exposing the mixture to gamma radiation, the container, and thereby the mixture, is rotated relative to gamma radiation beam rays thus substantially uniformly irradiating the mixture and preventing agglomeration of nanoparticles formed during radiolysis of the precursor, wherein the container, and thereby the mixture, is rotated such that the rotational axis of the container is substantially perpendicular to the direction of travel of the gamma radiation beam rays to allow all sides of the container, and thereby the mixture, to be exposed to gamma radiation during rotation thereof.
Multilayer sheet for use as printing blanket or printing plate for relief printing, in particular flexographic printing, with a first layer which comprises a vulcanizate based on at least one elastomer, at least one further layer (30, 40), and an intermediate layer which is arranged between the first layer and the further layer (30, 40), characterized in that the intermediate layer has a smaller separation resistance T than the first layer, and therefore the adhesion between the first layer and the further layer (30, 40) is such that the first layer is peelable from the further layer (30, 40), where the further layer (30, 40) and/or the intermediate layer comprises a vulcanizate based on at least one elastomer, and where the vulcanizate not only of the first layer but also of the further layer (30, 40), and/or of the intermediate layer can be ablated by a laser, preferably a carbon dioxide laser, a fiber laser, or a diode laser.
A nanoparticle comprising a core, a shell surrounding the core, and a nanogap formed between the core and shell, wherein the core is composed of a metal which shows surface plasmon resonance, the shell is composed of a metal which shows surface plasmon resonance, an oligonucleotide is attached to the surface of the core, and a Raman active molecule is comprised in the nanogap, characterised in that: the Raman active molecule is attached to the oligonucleotide by covalent bond. the core is composed of a metal which shows surface plasmon resonance, the shell is composed of a metal which shows surface plasmon resonance, an oligonucleotide is attached to the surface of the core, and a Raman active molecule is comprised in the nanogap, characterised in that: the Raman active molecule is attached to the oligonucleotide by covalent bond.
A cable entry comprising a housing with a bore, which has a shoulder disposed transversely with respect to the bore axis (z), and a contact sleeve disposed in the bore concentrically therewith and having a contact surface which is disposed transversely with respect to the bore axis (z) and which in the fitted state is pressed in the axial direction (z) against the shoulder by means of a nipple screwed into the housing, so that braided wires of an external conductor of a coaxial cable can be gripped between them, wherein a retaining means (13, 16) is provided which avoids uncontrolled twisting of the contact sleeve relative to the housing during screwing in of the nipple in such a way that the braided wires clamped there between are not damaged during the fitting, characterized in that the retaining means (13, 16) comprises at least one O-ring (13, 16) which fits in a groove (12, 15) of the bore and/or the contact sleeve and bears against the contact sleeve.
A method of processing a titanium aluminide intermetallic composition based on a TiAl intermetallic compound to yield a duplex microstructure containing equiaxed and lamellar morphologies of the gamma TiAl phase, the method comprising: hot isostatic pressing the titanium aluminide intermetallic composition in an inert atmosphere at a temperature of at least 1260°C; cooling the titanium aluminide intermetallic composition to a temperature of not less than 1120°C; heat treating the titanium aluminide intermetallic composition at a temperature of 1150 to 1200°C; and then cooling the titanium aluminide intermetallic composition to room temperature; wherein the titanium aluminide intermetallic composition exhibits the duplex microstructure following the step of cooling the titanium aluminide intermetallic composition to room temperature; and wherein the titanium aluminide intennetallic composition consists of titanium and aluminum in amounts to yield the TiAl intermetallic compound, one or more of chromium, niobium and tantalum, and incidental impurities. hot isostatic pressing the titanium aluminide intermetallic composition in an inert atmosphere at a temperature of at least 1260°C; cooling the titanium aluminide intermetallic composition to a temperature of not less than 1120°C; heat treating the titanium aluminide intermetallic composition at a temperature of 1150 to 1200°C; and then cooling the titanium aluminide intermetallic composition to room temperature; wherein the titanium aluminide intermetallic composition exhibits the duplex microstructure following the step of cooling the titanium aluminide intermetallic composition to room temperature; and wherein the titanium aluminide intennetallic composition consists of titanium and aluminum in amounts to yield the TiAl intermetallic compound, one or more of chromium, niobium and tantalum, and incidental impurities.
A method of producing an electrically conductive textile element characterised in that it includes the steps of: (i) silanising a surface of the textile element with a carbon-carbon double bond-bearingsilane to provide a silanised surface; (ii) grafting monomers of a negatively-charged polyelectrolyte onto the silanised surface by in-situ free radical polymerisation; (iii) adding metal ions to the polyelectrolyte by ion exchange; (iv) reducing the metal ions to elemental metal; and (v) coating the textile element with metal particles. (i) silanising a surface of the textile element with a carbon-carbon double bond-bearingsilane to provide a silanised surface; (ii) grafting monomers of a negatively-charged polyelectrolyte onto the silanised surface by in-situ free radical polymerisation; (iii) adding metal ions to the polyelectrolyte by ion exchange; (iv) reducing the metal ions to elemental metal; and (v) coating the textile element with metal particles.