mhurhangee/ep-ind-claims huggingface dataset:
Articulated drilling machine comprising a vehicle able to move in at least one advance direction, at least one drilling member mounted on said vehicle and an assembly suited to constrain and manoeuvre said drilling member with respect to said vehicle, wherein said constraint and manoeuvre assembly comprises at least one first slewing bearing positioned on a horizontal plane, that is, parallel to the support plane of said vehicle, and rotating around at least one vertical axis, that is, orthogonal to said support plane, and wherein said first slewing bearing is mounted on a support that in turn is constrained to said vehicle by means of at least one parallelogram kinematic mechanism which allows the position of said first slewing bearing to be varied between a minimum and a maximum height with respect to the support plane, characterized in that said support of said first slewing bearing comprises at least one guide that is substantially horizontal and having a direction that is parallel to said advance direction, such that said first slewing bearing can translate on said guide between a backward position at a minimum distance from said vehicle and a forward position at a maximum distance from said vehicle.
An underwater robot for equipment assisting an underwater exploration, comprising • means of underwater movement; • an image capturing device designed to capture images adapted to creating an underwater environment in three dimensions for visualization; • a communication device designed to transmit to a remote control device said captured images and to receive commands for guiding the movement in the created three-dimensional underwater environment; characterized in that it comprises • a jet propulsion nozzle of pressurized water designed to clear away deposits, particularly sediments, from a zone being cleared; and • an aspiration pipe for at least some of the deposits released by the water jet; • a pipe for evacuation of the aspirated deposits connected to a collection bag of said aspirated elements, the bag being connected to the pipe for evacuation. • means of underwater movement; • an image capturing device designed to capture images adapted to creating an underwater environment in three dimensions for visualization; • a communication device designed to transmit to a remote control device said captured images and to receive commands for guiding the movement in the created three-dimensional underwater environment; • a jet propulsion nozzle of pressurized water designed to clear away deposits, particularly sediments, from a zone being cleared; and • an aspiration pipe for at least some of the deposits released by the water jet; • a pipe for evacuation of the aspirated deposits connected to a collection bag of said aspirated elements, the bag being connected to the pipe for evacuation.
A magnetron comprising: an anode cylinder that extends in a cylindrical shape along a central axis; a plurality of tabular vanes (21, 22) each of which has at least one end fixed to the anode cylinder and that extend toward the central axis from an inner surface of the anode cylinder; and one or a plurality of pressure-equalizing rings (31, 32) that are disposed coaxially with respect to the central axis of the anode cylinder, wherein each of the tabular vanes (21, 22) includes a protrusion that faces the pressure-equalizing ring (31, 32) in an axial direction of the anode cylinder, and one or a plurality of notches that serve as base points for deforming the protrusion toward the pressure-equalizing ring side or an opposite side to the pressure-equalizing ring (31, 32). an anode cylinder that extends in a cylindrical shape along a central axis; a plurality of tabular vanes (21, 22) each of which has at least one end fixed to the anode cylinder and that extend toward the central axis from an inner surface of the anode cylinder; and one or a plurality of pressure-equalizing rings (31, 32) that are disposed coaxially with respect to the central axis of the anode cylinder, wherein each of the tabular vanes (21, 22) includes a protrusion that faces the pressure-equalizing ring (31, 32) in an axial direction of the anode cylinder, and one or a plurality of notches that serve as base points for deforming the protrusion toward the pressure-equalizing ring side or an opposite side to the pressure-equalizing ring (31, 32). a protrusion that faces the pressure-equalizing ring (31, 32) in an axial direction of the anode cylinder, and one or a plurality of notches that serve as base points for deforming the protrusion toward the pressure-equalizing ring side or an opposite side to the pressure-equalizing ring (31, 32).
Aerobic filtration device, intended to be buried or not, for the sanitation of waste water, comprising at least one vessel including at least two filtration stages, said stages being placed one above the other (3, 4), each of the filtration stages consisting of a layer or a plurality of successive layers of filtering media extending over part of the height of the vessel, said filtration device being able to subject the waste water to an aerobic filtration, by gravity, through said at least two filtration stages (3, 4), characterised in that it has a device for detecting a pressure drop at the last filtration stage, the lowest one, said device comprising a float and a visual telltale, as well as connection means securing together said float and said visual telltale, said float being able to lift with the rise in the waters in the filtering medium at the last filtration stage from a low position corresponding to the level of the water at the bottom of the vessel when the filtering medium is new, said visual telltale being visible from the outside at the top part of the vessel as from a certain upward travel of said float from said low position, representing a threshold value expressing a fouling of the filtering medium.
Lipidic particles comprising phosphatidylcholine, phosphatidylinositol and cholesterol, wherein the molar ratio of PC to PI is between 60:40 to 40:60 and cholesterol is present between 5 to 15mol% of PC and PI together and at least 50% of the particles have a size of less than 140nm.
A method of printing a print pattern (2, 2a,...) onto a substrate with a print head (1, 1a, 1b) comprising a plurality of nozzles (5, 5a,...), the print head (1, 1a,...) having a rectangular active print head area which includes all of the nozzles (5, 5a,...), the active print head area being delimited by four sides defining a primary and a secondary direction, the method comprising: - decomposing the print pattern (2, 2a,...) into a plurality of print pattern segments (21, 21a,...) that have dimensions along the primary and secondary direction which are smaller than the dimensions of the active print head area along the primary and secondary direction; - assigning each print pattern segment (21, 21a,...) to exactly one nozzle (5, 5a,...); - causing each nozzle (5, 5a,...) to print the print pattern segment (21, 21a,...) assigned to said nozzle (5, 5a,...), wherein the print head (1, 1a, 1b) is moved during printing of each print pattern segment (21, 21a,...) within an area that is smaller than said active print head area, and characterised in that the nozzles (5, 5a,...) are positioned on the print head (1, 1a, 1b) in an arrangement that corresponds to the arrangement of their assigned print pattern segments (21, 21a,...) on the substrate. - decomposing the print pattern (2, 2a,...) into a plurality of print pattern segments (21, 21a,...) that have dimensions along the primary and secondary direction which are smaller than the dimensions of the active print head area along the primary and secondary direction; - assigning each print pattern segment (21, 21a,...) to exactly one nozzle (5, 5a,...); - causing each nozzle (5, 5a,...) to print the print pattern segment (21, 21a,...) assigned to said nozzle (5, 5a,...),
A peptide able to bind multiple sclerosis auto-antibodies consisting of an amino acid sequence having at least 90 % identity with DDSKVFKEGS (SEQ ID No. 157).
A method for communicating between a first modular electronic device and a second modular electronic device, wherein the first modular electronic device and the second modular electronic device are part of a modular electronic overload relay, the method comprising: transmitting a first serial data frame from the first modular electronic device to the second modular electronic device; the first serial data frame including at least a status information, a heartbeat challenge value, and a frame check character; receiving the first serial data frame by the second modular electronic device; detecting and validating the heartbeat challenge value in the first serial data frame by the second modular electronic device; transmitting a second serial data frame from the second modular electronic device to the first modular electronic device; the second serial data frame including at least a heartbeat challenge response, and a frame check character response; receiving the second serial data frame by the first modular electronic device; detecting and validating the heartbeat challenge response in the second serial data frame by the first modular electronic device; and placing the modular overload relay in a safe state when the first modular electronic device does not receive the heartbeat challenge response or a valid heartbeat challenge response from the second modular electronic device. transmitting a first serial data frame from the first modular electronic device to the second modular electronic device; the first serial data frame including at least a status information, a heartbeat challenge value, and a frame check character; receiving the first serial data frame by the second modular electronic device; detecting and validating the heartbeat challenge value in the first serial data frame by the second modular electronic device; transmitting a second serial data frame from the second modular electronic device to the first modular electronic device; the second serial data frame including at least a heartbeat challenge response, and a frame check character response; receiving the second serial data frame by the first modular electronic device; detecting and validating the heartbeat challenge response in the second serial data frame by the first modular electronic device; and placing the modular overload relay in a safe state when the first modular electronic device does not receive the heartbeat challenge response or a valid heartbeat challenge response from the second modular electronic device.
A filter to be placed in a flow of blood through a vessel, comprising: a hub disposed along a longitudinal axis; a plurality of anchor members extending from the hub, each anchor member including either a cranial extension or a caudal extension at a distal end thereof, at least one anchor member distal end spaced from the hub at each of a first, second, and third distance along the longitudinal axis; and a plurality of locator members, each locator member extending from the hub between an adjacent pair of anchor members; wherein the caudal extensions include a caudal anchor and a caudal limiter extending separately from a caudal base having a width greater than a width of the anchor member. a hub disposed along a longitudinal axis; a plurality of anchor members extending from the hub, each anchor member including either a cranial extension or a caudal extension at a distal end thereof, at least one anchor member distal end spaced from the hub at each of a first, second, and third distance along the longitudinal axis; and a plurality of locator members, each locator member extending from the hub between an adjacent pair of anchor members; wherein the caudal extensions include a caudal anchor and a caudal limiter extending separately from a caudal base having a width greater than a width of the anchor member.
A method of joining a metal component to a metallized portion of a ceramic component, the method comprising: providing the metallized portion of the ceramic component, wherein the metallized portion of the ceramic component comprises a metallization layer comprising titanium, tantalum, vanadium, tungsten, molybdenum or combinations thereof, disposing a metallic barrier layer on a metallized portion of a ceramic component, wherein the metallic barrier layer comprises nickel and a melting point depressant; and joining a metal component to the metallized portion of the ceramic component through the metallic barrier layer, characterized in that disposing the metallic barrier layer comprises disposing a metallic layer by a screen printing process and sintering the metallic layer at a temperature below 1000 degrees Celsius so as to dispose a metallic barrier layer of a thickness from 1 micron to 10 microns and a porosity less than 10 percent by volume after sintering. providing the metallized portion of the ceramic component, wherein the metallized portion of the ceramic component comprises a metallization layer comprising titanium, tantalum, vanadium, tungsten, molybdenum or combinations thereof, disposing a metallic barrier layer on a metallized portion of a ceramic component, wherein the metallic barrier layer comprises nickel and a melting point depressant; and joining a metal component to the metallized portion of the ceramic component through the metallic barrier layer, characterized in that disposing the metallic barrier layer comprises disposing a metallic layer by a screen printing process and sintering the metallic layer at a temperature below 1000 degrees Celsius so as to dispose a metallic barrier layer of a thickness from 1 micron to 10 microns and a porosity less than 10 percent by volume after sintering.
Device for avoiding a collision during the driving of at least two movers (200, 513) over a drive surface, wherein each mover (200, 513) has at least one magnetic field generator for generating a magnetic field, wherein the device has a plurality of plate-shaped sectors, wherein the sectors each have at least one electrical magnetic field generator for generating magnetic fields, wherein the sectors form the drive surface, wherein the sectors are connected to a control unit, wherein the control unit is designed to generate the magnetic fields, through appropriate control of a power supply of the magnetic field generators of the sectors, such that the movers (200, 513) are able to be moved at least in one direction over the drive surface, wherein the control unit is designed to perform path planning for the movers, wherein the control unit is designed to ascertain travel paths for the movers (200, 513) such that a collision between the movers (200, 513) is avoided, wherein the control unit is designed to activate the magnetic field generators of the sectors with power such that the movers are able to be moved over the drive surface along the ascertained travel paths, characterized in that the control unit is designed, when ascertaining a travel path for a first mover, to take into consideration respectively estimated travel paths for the further movers, wherein, when there is a risk of collision between the movers, the travel paths of the movers are amended in accordance with priorities allocated to the movers, defining right of way and diversion rules, wherein only for movers of lower priority is a change of their travel path made based on the estimate of the travel paths of movers of higher priority, and wherein the estimated travel paths of the further movers are ascertained repeatedly or received repeatedly at predefined time intervals and taken into consideration repeatedly at the predefined time intervals when ascertaining the travel path for the first mover.
A plate heat exchanger for treatment of a feed such as sea water, the plate heat exchanger including a plate package comprising a plurality of heat exchanging plates arranged in a successive order, the plate package defines a heating volume for receiving a heating medium, a cooling volume for receiving a cooling medium and a plurality of process volumes (53, 53'), each of the volumes being fluidly separated from each other in the plate package, each of the process volumes (53, 53') includes: an evaporation section (52, 52') being arranged to permit evaporation of at least a part of the feed, a separation section (55, 55') being arranged to separate a non-evaporated part of the feed from an evaporated part of the feed, and a condensation section (56, 56') being arranged to condense the evaporated part of the feed, wherein each heat exchanging plate defines a first thermal interface between the heating volume and the evaporation section (52, 52') of a first process volume of the plurality of process volumes, a second thermal interface between the cooling volume and the condensation section (56, 56') of a second process volume of the plurality of process volumes, and at least one further thermal interface between an evaporation section (52, 52') and a condensation section (56, 56') of two adjacent process volumes, and characterized in that each of the process volumes (53, 53') comprises a feed inlet (48, 48') located at the bottom of the evaporation section (52, 52') and a non-evaporated feed outlet (63, 63') located below the separation section (55, 55') when the plate package is disposed in a normal position of use. an evaporation section (52, 52') being arranged to permit evaporation of at least a part of the feed, a separation section (55, 55') being arranged to separate a non-evaporated part of the feed from an evaporated part of the feed, and a condensation section (56, 56') being arranged to condense the evaporated part of the feed, wherein each heat exchanging plate defines a first thermal interface between the heating volume and the evaporation section (52, 52') of a first process volume of the plurality of process volumes, a second thermal interface between the cooling volume and the condensation section (56, 56') of a second process volume of the plurality of process volumes, and at least one further thermal interface between an evaporation section (52, 52') and a condensation section (56, 56') of two adjacent process volumes, and characterized in that each of the process volumes (53, 53') comprises a feed inlet (48, 48') located at the bottom of the evaporation section (52, 52') and a non-evaporated feed outlet (63, 63') located below the separation section (55, 55') when the plate package is disposed in a normal position of use.
An information providing method, comprising: obtaining, by a home gateway, an Internet Protocol version 6, IPv6, address or an IPv6 prefix of a client and obtaining, by the home gateway, a service type of the client; establishing, by the home gateway, a mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client; sending, by the home gateway, the mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client to a Broadband Remote Access Server, BRAS, so that the BRAS dispatches and manages a service of the client according to the mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client; wherein the IPv6 address or the IPv6 prefix of the client is allocated by the home gateway according to the IPv6 address or the IPv6 prefix of the home gateway by using DHCPv6 or Neighbor Discover, ND, protocol, or the IPv6 address or the IPv6 prefix of the client is statically configured according to the IPv6 address or the IPv6 prefix of the home gateway. obtaining, by a home gateway, an Internet Protocol version 6, IPv6, address or an IPv6 prefix of a client and obtaining, by the home gateway, a service type of the client; establishing, by the home gateway, a mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client; sending, by the home gateway, the mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client to a Broadband Remote Access Server, BRAS, so that the BRAS dispatches and manages a service of the client according to the mapping between the IPv6 address or the IPv6 prefix of the client and the service type of the client; wherein the IPv6 address or the IPv6 prefix of the client is allocated by the home gateway according to the IPv6 address or the IPv6 prefix of the home gateway by using DHCPv6 or Neighbor Discover, ND, protocol, or the IPv6 address or the IPv6 prefix of the client is statically configured according to the IPv6 address or the IPv6 prefix of the home gateway.
A method of supplying a liquid in a liquid ejection head including an ejection opening for ejecting a liquid, a passage in which an energy generation element for generating energy used to eject the liquid is disposed, an ejection opening portion that allows communication between the ejection opening and the passage, a supply passage for allowing the liquid to flow into the passage from an outside, and an outflow passage for allowing the liquid to flow out to the outside from the passage, wherein supplying the liquid is performed such that the liquid flows into the passage from the outside through the supply passage, and flows out to the outside through the outflow passage from the passage, and a flow of the liquid is generated such that the liquid entering an inside of the ejection opening portion from the passage arrives at a position corresponding to at least half the inside of the ejection opening portion in a direction in which the liquid inside the ejection opening portion is ejected, and then returns to the passage, characterized in that: a height H of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is 20 μm or less, a length P of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is 20 μm or less, a length W of the ejection opening portion in the flow direction of the liquid inside the passage is 30 μm or less, and wherein an expression of H -0.34 × P -0.66 × W > 1.5 is satisfied. wherein supplying the liquid is performed such that the liquid flows into the passage from the outside through the supply passage, and flows out to the outside through the outflow passage from the passage, and a flow of the liquid is generated such that the liquid entering an inside of the ejection opening portion from the passage arrives at a position corresponding to at least half the inside of the ejection opening portion in a direction in which the liquid inside the ejection opening portion is ejected, and then returns to the passage, characterized in that: a height H of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is 20 μm or less, a length P of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is 20 μm or less, a length W of the ejection opening portion in the flow direction of the liquid inside the passage is 30 μm or less, and wherein an expression of H -0.34 × P -0.66 × W > 1.5 is satisfied. a height H of the passage at an upstream side of a communication portion between the passage and the ejection opening portion in a flow direction of the liquid inside the passage is 20 μm or less, a length P of the ejection opening portion in a direction in which the liquid is ejected from the ejection opening is 20 μm or less, a length W of the ejection opening portion in the flow direction of the liquid inside the passage is 30 μm or less, and wherein an expression of H -0.34 × P -0.66 × W > 1.5 is satisfied.