mhurhangee/ep-ind-claims huggingface dataset:
A method for displaying a video stream, wherein said video stream is displayed on a screen according to a format defined by a user, the method being characterised by superimposing a graphic element on the video stream displayed according to a first format, modifying, as a function of commands received from said user, the dimensions and/or position of said graphic element, so as to define a screen area in which a certain portion of the frames of the video stream is displayed, displaying said video stream in a second format, wherein for each frame of said stream the frame portion defined by said graphic element is displayed, said frame portion being displayed on the screen with altered dimensions and/or position.
Selector lever assembly for selecting and switching different driving modes in a vehicle transmission, having a rotary knob, which is connected to an axially guided shaft element rotatably mounted in a housing, wherein the driving modes are assigned to the rotational angle range of the shaft element and are each separated from one another by a latching contour that is perceptible by a driver, and wherein the rotational movement of the shaft element can be blocked via a blocking contour, wherein the shaft element is co-rotationally but axially displaceably coupled with a disc element for activating and deactivating at least one further function mode, in order to expand the functionality of the aforesaid selector lever assembly by means of moving the rotary knob axially, characterized in that the disc element has the latching contour and the blocking contour, wherein a wave-shaped annular contour protruding axially on the circumferential region of the disc element is provided as a latching contour. wherein the shaft element is co-rotationally but axially displaceably coupled with a disc element for activating and deactivating at least one further function mode, in order to expand the functionality of the aforesaid selector lever assembly by means of moving the rotary knob axially, characterized in that the disc element has the latching contour and the blocking contour, wherein a wave-shaped annular contour protruding axially on the circumferential region of the disc element is provided as a latching contour.
An electrical contact terminal having a terminal formed in a horseshoe shape by bending both ends of a back plate of a sheet shape toward a front surface and having one side opened, the electrical contact terminal comprising: one pair of support plates which bend from both ends of the back plate and define a wire insertion space there between, and have mounting portions formed on lower ends thereof adapted to be mounted on a substrate; and one pair of connection plates which bend from upper ends of the one pair of support plates toward the wire insertion space inside, and are adapted to connect and lock a wire, wherein each of the connection plates forms a two-step bending structure comprising a first bending portion bending from an tipper end of the support plate, an elastic portion extending from the first bending portion, a second bending portion bending from an end of the elastic portion, and a locking portion extending from the second bending portion, wherein the electrical contact terminal is adapted to be mounted on the substrate in an upright position to allow the wire extending in a vertical direction to be connected in that vertical direction, characterized in that an interior angle (θ3) formed by a cross section of an end of the locking portion to be brought into contact with the wire ranges from 65° to 80°. one pair of support plates which bend from both ends of the back plate and define a wire insertion space there between, and have mounting portions formed on lower ends thereof adapted to be mounted on a substrate; and one pair of connection plates which bend from upper ends of the one pair of support plates toward the wire insertion space inside, and are adapted to connect and lock a wire, wherein each of the connection plates forms a two-step bending structure comprising a first bending portion bending from an tipper end of the support plate, an elastic portion extending from the first bending portion, a second bending portion bending from an end of the elastic portion, and a locking portion extending from the second bending portion, wherein the electrical contact terminal is adapted to be mounted on the substrate in an upright position to allow the wire extending in a vertical direction to be connected in that vertical direction, characterized in that an interior angle (θ3) formed by a cross section of an end of the locking portion to be brought into contact with the wire ranges from 65° to 80°.
Unit for separating and/or liquefying a gas, comprising at least one chamber, optionally insulated, of slender shape, disposed on foundations and anchored to the ground by means of guy wires, characterized in that the chamber is disposed on a first concrete block and the chamber is anchored to the ground by means of at least three guy wires, each connected to a separate second concrete block, the second concrete blocks connected to the guy wires being disposed on the ground at the corners of a polygon, the first and the second blocks having a depth below the reference level of the ground that does not exceed 1 m, preferably 0.7 m, typically 0.5 m.
A method for providing redundancy in a virtualized environment comprising: configuring a plurality of service routers (206A-B) executing on a plurality of edge nodes (205A-B) to use a same anycast inner internet protocol, IP, address, wherein a first service router of the plurality of service routers (206A-B) is configured as an active service router; configuring the plurality of edge nodes (205A-B) to use a same anycast virtual extensible local area network tunnel end point, VTEP, IP address, wherein a first edge node in the plurality of edge nodes (205A-B) on which the first service router executes advertises the anycast VTEP IP address with higher preference than other edge nodes on which service routers in the plurality of service routers execute, wherein upon failure of the connection to the first service router, traffic to the anycast VTEP IP address is directed to a second, standby service router acting as a current, active service router in the plurality of service routers (206A-B); and configuring managed forwarding elements that execute on host machines and implement a distributed router to use the anycast inner IP address of the plurality of service routers (206A-B) as a default gateway. configuring a plurality of service routers (206A-B) executing on a plurality of edge nodes (205A-B) to use a same anycast inner internet protocol, IP, address, wherein a first service router of the plurality of service routers (206A-B) is configured as an active service router; configuring the plurality of edge nodes (205A-B) to use a same anycast virtual extensible local area network tunnel end point, VTEP, IP address, wherein a first edge node in the plurality of edge nodes (205A-B) on which the first service router executes advertises the anycast VTEP IP address with higher preference than other edge nodes on which service routers in the plurality of service routers execute, wherein upon failure of the connection to the first service router, traffic to the anycast VTEP IP address is directed to a second, standby service router acting as a current, active service router in the plurality of service routers (206A-B); and configuring managed forwarding elements that execute on host machines and implement a distributed router to use the anycast inner IP address of the plurality of service routers (206A-B) as a default gateway.
Mixture, that at a pressure of 101325 Pa and a temperature of 20 °C and higher is liquid, consisting of or comprising - racemic d,l-menthol, as well as optionally additionally I-menthol, in a total amount of 72.0 to 85.0 wt.%, - d,l-isomenthol in an amount of 7.5 to 20.0 wt.%, - a first alkylene diol as well as optionally one or several further alkylene diols in a total amount of 7.0 to 11.0 wt.%, - further ingredients in a total amount of 0 to 2.0 wt.%, wherein the mass percentage specifications refer to the total weight of the mixture. - racemic d,l-menthol, as well as optionally additionally I-menthol, in a total amount of 72.0 to 85.0 wt.%, - d,l-isomenthol in an amount of 7.5 to 20.0 wt.%, - a first alkylene diol as well as optionally one or several further alkylene diols in a total amount of 7.0 to 11.0 wt.%, - further ingredients in a total amount of 0 to 2.0 wt.%,
A device comprising: a housing defining a housing lumen extending from a housing proximal end to a housing distal end; a cannula defining a cannula lumen extending from a cannula proximal end to a cannula distal end, the cannula being mechanically coupled to the housing distal end; and a needle assembly comprising a needle and at least one needle guide, wherein the housing is configured to house the needle assembly; said needle of the needle assembly configured to be locked in a deployed configuration in which the needle extends within the cannula lumen and protrudes from the cannula distal end, the needle being configured to slide proximally through the cannula lumen from the deployed configuration into a retracted configuration in which at least a portion of the needle is within the housing lumen; and wherein the at least one needle guide is configured to maintain the needle along a path in the housing lumen substantially parallel to the needle guide as the needle moves between the deployed configuration and the retracted configuration characterized in that said device further comprises a cap secured to the needle, wherein the cap is configured to rotate from a locked configuration in which the needle is maintained in the deployed configuration to an unlocked configuration in which the needle is configured to retract to the retracted configuration. a housing defining a housing lumen extending from a housing proximal end to a housing distal end; a cannula defining a cannula lumen extending from a cannula proximal end to a cannula distal end, the cannula being mechanically coupled to the housing distal end; and a needle assembly comprising a needle and at least one needle guide, wherein the housing is configured to house the needle assembly; said needle of the needle assembly configured to be locked in a deployed configuration in which the needle extends within the cannula lumen and protrudes from the cannula distal end, the needle being configured to slide proximally through the cannula lumen from the deployed configuration into a retracted configuration in which at least a portion of the needle is within the housing lumen; and wherein the at least one needle guide is configured to maintain the needle along a path in the housing lumen substantially parallel to the needle guide as the needle moves between the deployed configuration and the retracted configuration characterized in that said device further comprises a cap secured to the needle, wherein the cap is configured to rotate from a locked configuration in which the needle is maintained in the deployed configuration to an unlocked configuration in which the needle is configured to retract to the retracted configuration.
A method for producing a wafer, comprising the steps of: providing a substrate comprising a surface, wherein the surface comprises a surface structure to form thereon a device comprising a desired property; forming a region with vacancy-oxygen complexes adjacent the surface, wherein the vacancy-oxygen complexes comprise di-oxygen-vacancy complexes VO 2 or higher-order vacancy-oxygen complexes V m O n with m > 1 or n > 2; wherein the step of forming the region comprises an electron irradiation step or a proton irradiation step to generate vacancies in a crystal lattice structure of the substrate; wherein the step of forming the region further comprises an annealing step after the irradiation step, which transforms the vacancies into the vacancy-oxygen complexes; wherein the annealing is performed over a time in a range between 4 to 6 hours at a temperature in a range between 500°C to 850°C; wherein the step of the irradiation by electrons comprises energy of electrons within a range from 1 MeV to 50 MeV or between 5 MeV and 20 MeV and wherein the step of the irradiation by electrons comprises an electron dose within a range from 10 11 to 10 15 electrons per cm 2; wherein the step of irradiation by protons comprises an energy of protons within a range from 1 MeV to 30 MeV and wherein the step of the irradiation by protons comprises a proton dose within a range from 10 13 to 10 15 protons per cm 2. providing a substrate comprising a surface, wherein the surface comprises a surface structure to form thereon a device comprising a desired property; forming a region with vacancy-oxygen complexes adjacent the surface, wherein the vacancy-oxygen complexes comprise di-oxygen-vacancy complexes VO 2 or higher-order vacancy-oxygen complexes V m O n with m > 1 or n > 2; wherein the step of forming the region comprises an electron irradiation step or a proton irradiation step to generate vacancies in a crystal lattice structure of the substrate; wherein the step of forming the region further comprises an annealing step after the irradiation step, which transforms the vacancies into the vacancy-oxygen complexes; wherein the annealing is performed over a time in a range between 4 to 6 hours at a temperature in a range between 500°C to 850°C; wherein the step of the irradiation by electrons comprises energy of electrons within a range from 1 MeV to 50 MeV or between 5 MeV and 20 MeV and wherein the step of the irradiation by electrons comprises an electron dose within a range from 10 11 to 10 15 electrons per cm 2; wherein the step of irradiation by protons comprises an energy of protons within a range from 1 MeV to 30 MeV and wherein the step of the irradiation by protons comprises a proton dose within a range from 10 13 to 10 15 protons per cm 2.
A male touch fastener strip (100", 100"') with an elongated base having a thickness and defining a longitudinal direction and a lateral direction perpendicular to the longitudinal direction across the base between longitudinal edges of the base, and a field of male fastener elements each having a stem extending from a broad face of the base and a head at an upper end of the stem and overhanging the base for engaging fibers, the fastener element stems and broad face of the base together forming a unitary mass of resin, wherein the male touch fastener strip (100", 100"') also includes: two longitudinal barrier walls rising from the broad face of the base, each longitudinal barrier wall disposed on a respective side of the field of male fastener elements; a plurality of pairs of lateral barrier walls (108") extending across the field between facing surfaces of the longitudinal barrier walls, the pairs of lateral barrier walls (108") separating the field of male fastener elements into discrete field portions (124", 124"'); and a series of slits through the elongated base, each slit disposed between the lateral barrier walls of each pair and extending from one longitudinal edge of the base across more than half a width of the base, such that planar flexure of the base at each one of the slits opens an angle between one of the pairs of lateral barrier walls (108"). two longitudinal barrier walls rising from the broad face of the base, each longitudinal barrier wall disposed on a respective side of the field of male fastener elements; a plurality of pairs of lateral barrier walls (108") extending across the field between facing surfaces of the longitudinal barrier walls, the pairs of lateral barrier walls (108") separating the field of male fastener elements into discrete field portions (124", 124"'); and a series of slits through the elongated base, each slit disposed between the lateral barrier walls of each pair and extending from one longitudinal edge of the base across more than half a width of the base, such that planar flexure of the base at each one of the slits opens an angle between one of the pairs of lateral barrier walls (108").
A method for managing mobile device applications in a wireless network, the method comprising: receiving, at a wireless network operator system, an authentication request from a mobile device, the authentication request including an application identifier for a mobile device application and a challenge value; accessing, at the wireless network operator system, private data associated with the mobile device application; generating, at the wireless network operator system, a response based on the private data and the challenge value; transmitting the response to the mobile device; determining that the mobile device application is disapproved, wherein the mobile device application is disapproved if the mobile device is roaming; and transmitting, to the mobile device, an instruction to disable the mobile device application to prevent the mobile device application from consuming resources of the wireless network, wherein the private data includes a private key value associated with the mobile device application, and the response is generated according to a cryptographic challenge-response protocol. receiving, at a wireless network operator system, an authentication request from a mobile device, the authentication request including an application identifier for a mobile device application and a challenge value; accessing, at the wireless network operator system, private data associated with the mobile device application; generating, at the wireless network operator system, a response based on the private data and the challenge value; transmitting the response to the mobile device; determining that the mobile device application is disapproved, wherein the mobile device application is disapproved if the mobile device is roaming; and transmitting, to the mobile device, an instruction to disable the mobile device application to prevent the mobile device application from consuming resources of the wireless network, wherein the private data includes a private key value associated with the mobile device application, and the response is generated according to a cryptographic challenge-response protocol.
A cooling system, comprising: an information technology, IT, container including a plurality of IT chambers (103, 209a, 209b, 411, 703), each IT chamber being configured (103, 209a, 209b, 411, 703) to store fluid and to receive IT equipment (104, 211a, 211b, 301, 407) submerged in the fluid for immersion cooling; a fluid supply channel (111, 213, 409) disposed at a bottom of the IT container to receive the fluid from a cooling unit and to supply the fluid to the IT chambers (103, 209a, 209b, 411, 703); and a fluid return channel (112, 207, 313, 415) disposed on a top of the IT chambers (103, 209a, 209b, 411, 703) to return the fluid received from the IT chambers (103, 209a, 209b, 411, 703) to the cooling unit, characterized in that the cooling system further comprises a fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005) disposed separately from the fluid return channel (112, 207, 313, 415) to return at least some of the fluid to the cooling unit in an accelerated manner; and one or more pumps (215a, 215b, 307, 419, 505, 601, 603, 605, 713, 715) disposed between at least some of the IT chambers (209a, 209b, 411, 703) and the fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005) to increase a flowrate of the fluid from the corresponding IT chambers (209a, 209b, 411, 703) to the cooling unit via the fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005). an information technology, IT, container including a plurality of IT chambers (103, 209a, 209b, 411, 703), each IT chamber being configured (103, 209a, 209b, 411, 703) to store fluid and to receive IT equipment (104, 211a, 211b, 301, 407) submerged in the fluid for immersion cooling; a fluid supply channel (111, 213, 409) disposed at a bottom of the IT container to receive the fluid from a cooling unit and to supply the fluid to the IT chambers (103, 209a, 209b, 411, 703); and a fluid return channel (112, 207, 313, 415) disposed on a top of the IT chambers (103, 209a, 209b, 411, 703) to return the fluid received from the IT chambers (103, 209a, 209b, 411, 703) to the cooling unit, characterized in that the cooling system further comprises a fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005) disposed separately from the fluid return channel (112, 207, 313, 415) to return at least some of the fluid to the cooling unit in an accelerated manner; and one or more pumps (215a, 215b, 307, 419, 505, 601, 603, 605, 713, 715) disposed between at least some of the IT chambers (209a, 209b, 411, 703) and the fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005) to increase a flowrate of the fluid from the corresponding IT chambers (209a, 209b, 411, 703) to the cooling unit via the fluid acceleration channel (203, 311, 403, 711, 719, 1011, 1005).
Adhesive system comprising (a) a resin component comprising a melamine-urea-formaldehyde resin in which the amount of melamine expressed as M/(M+U) is from 30 to 60 wt% and the F/NH 2 molar ratio from 0.6 to 0.79; and, (b) a hardener component comprising at least one acid, acid generating salt or acidic salt and being free from or comprising less than 15 wt% urea. (a) a resin component comprising a melamine-urea-formaldehyde resin in which the amount of melamine expressed as M/(M+U) is from 30 to 60 wt% and the F/NH 2 molar ratio from 0.6 to 0.79; and, (b) a hardener component comprising at least one acid, acid generating salt or acidic salt and being free from or comprising less than 15 wt% urea.
A composition for use in treating a disorder characterized by an imbalance between nerve excitation and inhibition said composition comprising at least one synthetic and/or purified terpene compound or a combination of synthetic and/or purified terpene compounds and, optionally, one or more pharmaceutically acceptable diluent or excipient, wherein said terpene compound is selected from the group consisting of geraniol and pharmaceutically acceptable salts and solvates thereof