mhurhangee/patent-ind-claim-en huggingface dataset:
Hose box adapted to receive a spiral hose , the hose box comprising: - a base body , specifically a tubular base body, and confining a cavity (3.1) for receiving the spiral hose and comprising a lower base body portion (3.2) providing a support for the spiral hose received in the base body , the lower base body portion (3.2) comprising a passage (3.3) for the spiral hose ; and - fixing means adapted to fix the hose box above the ground comprising a base portion for fixing the hose box at a fixing area, wherein the base portion comprises openings (7.2) for receiving fixing elements in order to fixly arrange the base portion at a fixing area, whereby the base portion comprises a passage (7.3) for the spiral hose for coupling the spiral hose to a water tap, the passage (7.3) being adapted such that the spiral hose or an end portion of the spiral hose protrudes laterally, specifically radially from the base portion characterized in that the base portion is coupled with the lower base body portion (3.2) by means of an elastically deformable coupling element . - a base body , specifically a tubular base body, and confining a cavity (3.1) for receiving the spiral hose and comprising a lower base body portion (3.2) providing a support for the spiral hose received in the base body , the lower base body portion (3.2) comprising a passage (3.3) for the spiral hose ; and - fixing means adapted to fix the hose box above the ground comprising a base portion for fixing the hose box at a fixing area, wherein the base portion comprises openings (7.2) for receiving fixing elements in order to fixly arrange the base portion at a fixing area, whereby the base portion comprises a passage (7.3) for the spiral hose for coupling the spiral hose to a water tap, the passage (7.3) being adapted such that the spiral hose or an end portion of the spiral hose protrudes laterally, specifically radially from the base portion characterized in that the base portion is coupled with the lower base body portion (3.2) by means of an elastically deformable coupling element .
A non-transitory computer storage medium having embodied thereon computer-readable instructions that, when executed, perform a method comprising: detecting a biometric marker of a driver of a vehicle via a personal electronic device of the driver; and projecting health condition data associated with the biometric marker on a window of the vehicle, wherein the health condition data associated with the biometric marker is projected on the window pre-travel, before the driver enters the vehicle. detecting a biometric marker of a driver of a vehicle via a personal electronic device of the driver; and projecting health condition data associated with the biometric marker on a window of the vehicle, wherein the health condition data associated with the biometric marker is projected on the window pre-travel, before the driver enters the vehicle.
Use of a laser to cut a slice of a synthetic diamond and to engrave both the slice and the remaining part , characterised in that both the slice and the remaining part , are engraved with the birthday of the original synthetic diamond and with the number of an accompanying certificate of authenticity, and in that the engraved slice of the synthetic diamond is incorporated in a certificate of authenticity which bears the same number of the accompanying certificate under a transparent window in the certificate, and in that the same number of the accompanying certificate of authenticity is engraved on the final cut diamond , derived from the remaining rough synthetic diamond, such that it is clear that the engraved slice and the cut diamond belong together.
Method comprising: forming a ceramic and/or other inorganic fiber , containing elongated crystal grains in and around the fiber center and oriented along the fiber axis, with a smooth transition from the elongated crystal grains in and around the fiber center to more equiaxed grains towards the radial periphery of the fiber without discontinuity with the following steps: introducing a seed fiber having a fiber tip into a chamber containing chemical vapor deposition (CVD) precursor gases; directing a focused laser beam through a chamber window onto the fiber tip in the presence of the CVD precursor gases to impose a temperature gradient on the order of 10 5 to 10 6 °K/cm on the fiber tip ; heating the fiber tip to a temperature sufficient for the precursor gases to break down locally at the fiber tip ; and growing the fiber according to Laser-assisted Chemical Vapor Deposition (LCVD) towards the focused laser beam by pulling the fiber out of the CVD precursor gases, wherein the fiber tip is kept within the laser focus and pulled away from the focused laser beam at a rate the fiber is growing which rate is determined by the precursor gases and the local fiber temperature gradient. introducing a seed fiber having a fiber tip into a chamber containing chemical vapor deposition (CVD) precursor gases; directing a focused laser beam through a chamber window onto the fiber tip in the presence of the CVD precursor gases to impose a temperature gradient on the order of 10 5 to 10 6 °K/cm on the fiber tip ; heating the fiber tip to a temperature sufficient for the precursor gases to break down locally at the fiber tip ; and growing the fiber according to Laser-assisted Chemical Vapor Deposition (LCVD) towards the focused laser beam by pulling the fiber out of the CVD precursor gases, wherein the fiber tip is kept within the laser focus and pulled away from the focused laser beam at a rate the fiber is growing which rate is determined by the precursor gases and the local fiber temperature gradient.
A system, comprising: a first electronic device ; a plurality of second electronic devices coupled to the first electronic device via a plurality of interfaces (I/F, 510); and a clock generator coupled to the plurality of second electronic devices and configured to provide a clock signal to each of the plurality of second electronic devices for clocking operation of the plurality of second electronic devices, wherein the clock signal is a gapped clock signal having at least one gap created by the clock generator removing one or more clock pulses based on a synchronization signal, wherein the plurality of second electronic devices are configured to synchronize data transmission between the plurality of second electronic devices and the first electronic device via the plurality of interfaces using the at least one gap in the gapped clock signal to align the data transmission, wherein the plurality of second electronic devices are further configured to generate respective internal clock signals using the clock signal provided by the clock generator, and wherein the operations of the plurality of electronic devices are clocked using the generated internal clock signals, characterized in that the internal clock signal is a frame clock and each of the plurality of second electronic devices is further configured to align a phase of the frame clock with a phase of the clock signal provided by the clock generator. a first electronic device ; a plurality of second electronic devices coupled to the first electronic device via a plurality of interfaces (I/F, 510); and a clock generator coupled to the plurality of second electronic devices and configured to provide a clock signal to each of the plurality of second electronic devices for clocking operation of the plurality of second electronic devices, wherein the clock signal is a gapped clock signal having at least one gap created by the clock generator removing one or more clock pulses based on a synchronization signal, wherein the plurality of second electronic devices are configured to synchronize data transmission between the plurality of second electronic devices and the first electronic device via the plurality of interfaces using the at least one gap in the gapped clock signal to align the data transmission, wherein the plurality of second electronic devices are further configured to generate respective internal clock signals using the clock signal provided by the clock generator, and wherein the operations of the plurality of electronic devices are clocked using the generated internal clock signals, characterized in that the internal clock signal is a frame clock and each of the plurality of second electronic devices is further configured to align a phase of the frame clock with a phase of the clock signal provided by the clock generator.
A component of a gas turbine engine , comprising: an external surface; a skin cavity adjacent the external surface and internal to the component, wherein the skin cavity is defined by an, in use, "hot-side surface and a p an, in use, cοοl-side surface , wherein the hot-side surface is between the cool-side surface and the external surface; a wall thickness check region on the hot side surface; a flat surface on the hot-side surface spanning the wall thickness check region; a protrusion disposed on the cool-side surface opposite the flat portion on the hot-side surface and oriented across the skin cavity towards the hot side surface ; a first trip strip disposed on the hot-side surface prior to the flat surface in a direction of fluid flow; and a second trip strip disposed on the hot-side surface between the first trip strip and the flat portion on the hot-side surface , wherein the second trip strip has a geometry different from the first trip strip , wherein the protrusion on the cool-side surface is disposed between a first flat portion of the cool-side surface and a second flat portion of the cool-side surface ; and the protrusion spans the second trip strip and the flat portion on the hot-side surface in the direction of fluid flow. an external surface; a skin cavity adjacent the external surface and internal to the component, wherein the skin cavity is defined by an, in use, "hot-side surface and a p an, in use, cοοl-side surface , wherein the hot-side surface is between the cool-side surface and the external surface; a wall thickness check region on the hot side surface; a flat surface on the hot-side surface spanning the wall thickness check region; a protrusion disposed on the cool-side surface opposite the flat portion on the hot-side surface and oriented across the skin cavity towards the hot side surface ; a first trip strip disposed on the hot-side surface prior to the flat surface in a direction of fluid flow; and a second trip strip disposed on the hot-side surface between the first trip strip and the flat portion on the hot-side surface , wherein the second trip strip has a geometry different from the first trip strip , wherein the protrusion on the cool-side surface is disposed between a first flat portion of the cool-side surface and a second flat portion of the cool-side surface ; and the protrusion spans the second trip strip and the flat portion on the hot-side surface in the direction of fluid flow.
A bonnet assembly , configured for assembly to a body assembly, the bonnet assembly comprising: a handwheel ; a bonnet housing , wherein the bonnet housing defines a cylindrical column ; a load plate within the cylindrical column; a spring washer within the cylindrical column , wherein a first side of the spring washer is in contact with the load plate ; and a transition pressure ring , wherein the transition pressure ring includes a top portion and a bottom portion , the top portion has a circular cross section and is in contact with a second side of the spring washer , the top portion includes an O-ring configured to form a seal between an outer edge of the top portion and walls of the housing of the bonnet assembly that define the cylindrical column , the bottom portion includes a bead on a bottom surface of the bottom portion, the bead projects out from the bottom surface of the bottom portion, characterized in that the bead has a congruent shape and size as a body exterior seal periphery of the body assembly , and the body exterior seal periphery of the body assembly is not congruent to the circular cross section of the top portion. a handwheel ; a bonnet housing , wherein the bonnet housing defines a cylindrical column ; a load plate within the cylindrical column; a spring washer within the cylindrical column , wherein a first side of the spring washer is in contact with the load plate ; and a transition pressure ring , wherein the transition pressure ring includes a top portion and a bottom portion , the top portion has a circular cross section and is in contact with a second side of the spring washer , the top portion includes an O-ring configured to form a seal between an outer edge of the top portion and walls of the housing of the bonnet assembly that define the cylindrical column , the bottom portion includes a bead on a bottom surface of the bottom portion, the bead projects out from the bottom surface of the bottom portion, characterized in that the bead has a congruent shape and size as a body exterior seal periphery of the body assembly , and the body exterior seal periphery of the body assembly is not congruent to the circular cross section of the top portion.
Test tube, suitable to be immersed in a cryogenic fluid, comprising: a containing body , having a perimeter wall that defines a containing compartment and provided with an end ; a bottom wall , disposed inside said containing compartment to close it at the lower part and defining the bottom of the containing compartment ; and a housing seating , defined by the space inside said perimeter wall and outside the bottom wall of said containing compartment , that is the space comprised between the end of the perimeter wall and the bottom wall , into which housing seating a discoid element for an identification code being inserted, said discoid element having at least a free surface facing toward the outside of said housing seating on the opposite side with respect to said bottom wall , characterized in that in correspondence to said housing seating , said perimeter wall is discontinuous, so as to define one or more transverse through apertures which laterally put the inside of said housing seating in communication with the outside of said test tube , discharge channels to discharge said cryogenic fluid are provided between said bottom wall and said discoid element and are able to communicate with said through apertures so as to expel said cryogenic fluid from said housing seating , and in that in correspondence to said housing seating for said discoid element , mechanical constraint means are provided, in cooperation with said perimeter wall of said containing body and with a peripheral portion of said free surface of said discoid element , in order to constrain the latter in a defined axial position with respect to said containing body , said discoid element directly abutting against said bottom wall .
A portable on-line in-situ β-ray monitor, comprising a detection mechanism and a control mechanism electrically connected to each other, wherein the detection mechanism comprises a filter tape feed device , a filter tape pressing device , a detector , and a gas guide device ; the gas guide device is arranged in the filter tape pressing device in a penetrating manner to guide a gas to be tested on the test filter tape; the filter tape pressing device is arranged right above the detector and is configured for pressing the test filter tape; the detector is configured for counting; the control mechanism comprises a first detector and a second detector ; the filter tape pressing device is connected to the first detector ; and the filter tape feed device is connected to the second detector , the filter tape feed device is configured for storing and moving test filter tape; the first detector is configured for detecting a down-pressing situation of the filter tape pressing device and the second detector is configured for detecting a filter tape feeding in-place situation; the monitor being characterized in that : the filter tape pressing device comprises a head pressing block and a filter tape pressing holder ; a head pressing disc is fixedly arranged outside the head pressing block in a sleeving manner; and an upper end of the head pressing disc is fixedly connected to the filter tape pressing holder through a spring; and a lower end of the head pressing block is connected to a head pressing membrane ; an upper end of the pressing head block is connected to a head pressing gas pipe ; and the bottom of the pressing head gas pipe is fixed to an upper end of the filter tape pressing holder through a head pressing seat. the filter tape pressing device comprises a head pressing block and a filter tape pressing holder ; a head pressing disc is fixedly arranged outside the head pressing block in a sleeving manner; and an upper end of the head pressing disc is fixedly connected to the filter tape pressing holder through a spring; and a lower end of the head pressing block is connected to a head pressing membrane ; an upper end of the pressing head block is connected to a head pressing gas pipe ; and the bottom of the pressing head gas pipe is fixed to an upper end of the filter tape pressing holder through a head pressing seat.
A muffler device, comprising: a sound hood including an expanding cavity that is defined inside the sound hood , and a microporous plate which is disposed inside the expanding cavity and divides the expanding cavity into a first cavity body and a second cavity body , and a plurality of through holes provided on the microporous plate such that the air flow entering the expanding cavity exits the expanding cavity after passing through the plurality of through holes of the microporous plate , the sound hood comprises an acoustic wave inlet and an acoustic wave outlet , the acoustic wave inlet and the acoustic wave outlet being communicated via the expanding cavity , wherein the microporous plate is in a shape of a truncated cone, the first cavity body is directly in communication with the acoustic wave inlet and the acoustic wave outlet , and the second cavity body is in communication with the first cavity body via the plurality of through holes of the microporous plate , characterized in that , the muffler device further comprising at least one partition plate , wherein the second cavity body is divided into at least two second sub-cavity bodies by the at least one partition plate . a sound hood including an expanding cavity that is defined inside the sound hood , and a microporous plate which is disposed inside the expanding cavity and divides the expanding cavity into a first cavity body and a second cavity body , and a plurality of through holes provided on the microporous plate such that the air flow entering the expanding cavity exits the expanding cavity after passing through the plurality of through holes of the microporous plate , the sound hood comprises an acoustic wave inlet and an acoustic wave outlet , the acoustic wave inlet and the acoustic wave outlet being communicated via the expanding cavity , wherein the microporous plate is in a shape of a truncated cone, the first cavity body is directly in communication with the acoustic wave inlet and the acoustic wave outlet , and the second cavity body is in communication with the first cavity body via the plurality of through holes of the microporous plate , characterized in that , the muffler device further comprising at least one partition plate , wherein the second cavity body is divided into at least two second sub-cavity bodies by the at least one partition plate .
An Ethernet switch that is configurable to be associated with a Maintenance Entity, ME, in an Ethernet Connectivity and Fault Management, CFM, domain, the Ethernet switch comprising: two or more member ports configurable to cooperatively form a Link Aggregation Group, LAG, connection over multiple physical network links, wherein the Ethernet switch is configured to exchange non-CFM messages over the LAG connection via LAG members selected according to a balancing algorithm , wherein the Ethernet switch is configured to exchange a CFM message over a first LAG member, wherein the CFM message includes a LAG member field identifying the first LAG member, and wherein the Ethernet switch is further configured to verify, by analyzing the CFM message or a response thereto, a functioning of the first LAG member . two or more member ports configurable to cooperatively form a Link Aggregation Group, LAG, connection over multiple physical network links, wherein the Ethernet switch is configured to exchange non-CFM messages over the LAG connection via LAG members selected according to a balancing algorithm , wherein the Ethernet switch is configured to exchange a CFM message over a first LAG member, wherein the CFM message includes a LAG member field identifying the first LAG member, and wherein the Ethernet switch is further configured to verify, by analyzing the CFM message or a response thereto, a functioning of the first LAG member .
Method for producing a construction made of reinforced concrete, comprising the following steps: - providing one or more spacers ; - providing a reinforcement cage , a concrete mesh or a lattice girder; - positioning the reinforcement cage by means of the one or more spacers; - pouring concrete over the reinforcement cage , the concrete mesh or the lattice girder, on the one hand, and the one or more spacers , on the other hand; - allowing the concrete to set; wherein the one or more spacers comprise a plastic having elastomeric properties, which is a plastic having a modulus of elasticity (E) of at least 1.00 GPa selected from a thermoplast chosen from polyvinyl chloride (PVC) or polypropylene (PP) and/or polyethylene (PE) and the spacers preferably comprising 10.0 to 80.0 wt%, more preferably 20.0 to 80.0 wt% of said plastic having elastomeric properties; wherein the one or more spacers further comprise 5.0 to 60.0 wt% of polyvinyl butyral (PVB); and wherein the one or more spacers are porous. - providing one or more spacers ; - providing a reinforcement cage , a concrete mesh or a lattice girder; - positioning the reinforcement cage by means of the one or more spacers; - pouring concrete over the reinforcement cage , the concrete mesh or the lattice girder, on the one hand, and the one or more spacers , on the other hand; - allowing the concrete to set; wherein the one or more spacers comprise a plastic having elastomeric properties, which is a plastic having a modulus of elasticity (E) of at least 1.00 GPa selected from a thermoplast chosen from polyvinyl chloride (PVC) or polypropylene (PP) and/or polyethylene (PE) and the spacers preferably comprising 10.0 to 80.0 wt%, more preferably 20.0 to 80.0 wt% of said plastic having elastomeric properties; wherein the one or more spacers further comprise 5.0 to 60.0 wt% of polyvinyl butyral (PVB); and wherein the one or more spacers are porous.
Apparatus for melting and conveying a meltable medium received in a container , in particular a hot melt adhesive received in a drum, comprising a heatable piston for melting and displacing the meltable medium, which piston can be introduced into the container and moved, in particular towards the bottom of the container , wherein the piston has - a displacement element for displacing the meltable medium, and - a premelter element for melting the meltable medium, characterized in that the premelter element is movably mounted relative to the displacement element . wherein the piston has - a displacement element for displacing the meltable medium, and - a premelter element for melting the meltable medium, - a displacement element for displacing the meltable medium, and - a premelter element for melting the meltable medium, characterized in that the premelter element is movably mounted relative to the displacement element .