mhurhangee/ep-ind-claims huggingface dataset:
A method for directed vapor deposition using a deposition chamber, the method comprising: - evaporating a first material for deposition on a substrate, the evaporating generating a plurality of vapor molecules; - using plasma activation, ionizing the plurality of vapor molecules to create charged vapor molecules; - biasing the substrate using an electrical charge; - via a converging-diverging nozzle comprising adjustable side nozzle plates having slots allowing the nozzle to be adjusted in a first direction (Y Direction), inserting an inert gas as a carrier gas into the deposition chamber concurrent with the ionizing the plurality of vapor molecules, the converging-diverging nozzle formed around an array of evaporation sources, which results in a rectangular or ellipsoidal shaped vapor flux with a controllable width in the first direction (Y direction) and a uniform density in a second direction (X direction), which is perpendicular to the first direction (Y direction); and - aligning the charged vapor molecules using a plurality of inert gas characteristics such that the charged vapor molecules are directed for deposition on at least one non-line of sight portions of the substrate, wherein the biasing comprises - biasing the substrate with a negative bias for a first period of time; and - biasing the substrate with a positive bias for a second period of time. - evaporating a first material for deposition on a substrate, the evaporating generating a plurality of vapor molecules; - using plasma activation, ionizing the plurality of vapor molecules to create charged vapor molecules; - biasing the substrate using an electrical charge; - via a converging-diverging nozzle comprising adjustable side nozzle plates having slots allowing the nozzle to be adjusted in a first direction (Y Direction), inserting an inert gas as a carrier gas into the deposition chamber concurrent with the ionizing the plurality of vapor molecules, the converging-diverging nozzle formed around an array of evaporation sources, which results in a rectangular or ellipsoidal shaped vapor flux with a controllable width in the first direction (Y direction) and a uniform density in a second direction (X direction), which is perpendicular to the first direction (Y direction); and - aligning the charged vapor molecules using a plurality of inert gas characteristics such that the charged vapor molecules are directed for deposition on at least one non-line of sight portions of the substrate, - biasing the substrate with a negative bias for a first period of time; and - biasing the substrate with a positive bias for a second period of time.
Particulate ultra high molecular weight polyethylene (pUHMWPE) having an intrinsic viscosity of at least 4 dl/g, a co-monomer content of a least 0.05 SCB/1000TC, a co-monomer partition factor (Cpf) of at least 0.8, a median particle size D50 of between 60 to 300 μm, a total ash content of less than 1000 ppm, wherein the characteristics of the pUHMWPE have been determined according to the test methods disclosed in the description.
A drainage system, comprising: a tube configured for insertion into a body of a subject, wherein the tube defines a tube relief lumen and tube drainage lumen which are fluidly coupled to one another via an opening defined within a proximal portion of the tube, wherein the tube relief lumen and tube drainage lumen extend through the proximal portion separately from one another such that the opening is in proximity to one or more drainage openings defined along the tube, whereby the opening is positioned within the body of the subject when the tube is inserted into the body during use; and a tube relief lumen valve in fluid communication with the tube relief lumen such that a pressure differential is formed between an ambient pressure and the tube relief lumen, characterized in that the tube relief lumen valve is configured to close at a first pressure differential and to open at a second pressure differential which is different from the first pressure differential. a tube configured for insertion into a body of a subject, wherein the tube defines a tube relief lumen and tube drainage lumen which are fluidly coupled to one another via an opening defined within a proximal portion of the tube, wherein the tube relief lumen and tube drainage lumen extend through the proximal portion separately from one another such that the opening is in proximity to one or more drainage openings defined along the tube, whereby the opening is positioned within the body of the subject when the tube is inserted into the body during use; and a tube relief lumen valve in fluid communication with the tube relief lumen such that a pressure differential is formed between an ambient pressure and the tube relief lumen, characterized in that the tube relief lumen valve is configured to close at a first pressure differential and to open at a second pressure differential which is different from the first pressure differential.
A sealing environment comprising: an object to be sealed and a sealing system, said sealing system comprising: a sealing member configured to be attached to a surface of structures of the object, said sealing member including a sealing section and engagement section; and an integral structure associated with the sealing member in which the sealing member is consolidated with the integral structure; said engagement section extending from the sealing member wherein the engagement section is deformable and configured to engage a receiving structure in the object, characterized in that the engagement section is comprised of a thermoplastic material deformable when heated to allow for insertion and removal from the receiving structure, and in that coefficient of thermal expansion of materials used in at least one of the sealing section and the engagement section matches coefficient of thermal expansion of the structures of the object. a sealing member configured to be attached to a surface of structures of the object, said sealing member including a sealing section and engagement section; and an integral structure associated with the sealing member in which the sealing member is consolidated with the integral structure; said engagement section extending from the sealing member wherein the engagement section is deformable and configured to engage a receiving structure in the object, characterized in that the engagement section is comprised of a thermoplastic material deformable when heated to allow for insertion and removal from the receiving structure, and in that coefficient of thermal expansion of materials used in at least one of the sealing section and the engagement section matches coefficient of thermal expansion of the structures of the object.
A method implemented by a network service provider to provide a virtual network to a tenant requiring bandwidth in a cloud computing environment, wherein the virtual network includes a first set of one or more virtual switches that manage a second set of one or more physical servers that host virtual machines, VMs, characterized in that the method comprising: receiving by at least one virtual switch a request for a first plurality of VMs, wherein bandwidth of at least one VM of the first plurality of VMs is different from bandwidths of the rest of one or more VMs within the first plurality of VMs; determining whether to accept the request for the first plurality of VMs by calculating a set of allocation ranges, ARs associated to the virtual switch, each AR denoting availability of the VMs for the received request, wherein each AR of the set of ARs denotes a feasible allocation of VMs from the one or more physical servers within the virtual switch; and allocating VMs for the request for the first plurality of VMs in response to the determination of accepting the request for the first plurality of VMs. receiving by at least one virtual switch a request for a first plurality of VMs, wherein bandwidth of at least one VM of the first plurality of VMs is different from bandwidths of the rest of one or more VMs within the first plurality of VMs; determining whether to accept the request for the first plurality of VMs by calculating a set of allocation ranges, ARs associated to the virtual switch, each AR denoting availability of the VMs for the received request, wherein each AR of the set of ARs denotes a feasible allocation of VMs from the one or more physical servers within the virtual switch; and allocating VMs for the request for the first plurality of VMs in response to the determination of accepting the request for the first plurality of VMs.
A marine seismic acquisition system comprising: a frame composed of two rectangles, the rectangles being composed of a plurality of parallel arms positioned in and defining planes (770, 780) that are orthogonal to each other and that intersect along a central longitudinal element of the frame, the rectangles being connected to each other at both ends of the central longitudinal element; a data interface operatively coupled to the frame; hydrophones carried by the arms of the frame to form an array, wherein the distances between hydrophones in the defined orthogonal planes (770, 780) are equal, the hydrophones configured to provide seismic measurements; at least one inertial motion sensor configured to measure frame orientation parameters; and a buoyancy engine operatively coupled to the frame, wherein the buoyancy engine includes, or is operatively coupled to, the at least one inertial motion sensor and is configured to control one or more of pitch, yaw, roll and depth of the frame with respect to a reference frame based on the measured frame orientation parameters; wherein the hydrophones, the buoyancy engine and the at least one inertial motion sensor are operatively coupled to the data interface. a frame composed of two rectangles, the rectangles being composed of a plurality of parallel arms positioned in and defining planes (770, 780) that are orthogonal to each other and that intersect along a central longitudinal element of the frame, the rectangles being connected to each other at both ends of the central longitudinal element; a data interface operatively coupled to the frame; hydrophones carried by the arms of the frame to form an array, wherein the distances between hydrophones in the defined orthogonal planes (770, 780) are equal, the hydrophones configured to provide seismic measurements; at least one inertial motion sensor configured to measure frame orientation parameters; and a buoyancy engine operatively coupled to the frame, wherein the buoyancy engine includes, or is operatively coupled to, the at least one inertial motion sensor and is configured to control one or more of pitch, yaw, roll and depth of the frame with respect to a reference frame based on the measured frame orientation parameters; wherein the hydrophones, the buoyancy engine and the at least one inertial motion sensor are operatively coupled to the data interface.
A clamp and insulation system, comprising: a clamp (200, 500, 800, 1000) having a band (202, 502,..) with a top surface; and an insulation system (100, 400, 700, 900) comprising: an insulation layer (300, 950) disposed over at least a portion of the top surface of the clamp band (202, 502..); and a foil cover (110, 410) covering the insulation layer (300, 950) and having an arcuate shape conforming to a shape of the clamp band (202, 502), the foil cover (110, 410) defining a pocket holding the insulation layer (300, 950) and including side walls (116, 718, 918) extending over the insulation layer (300, 950) and crimped around the clamp band (202, 502). a clamp (200, 500, 800, 1000) having a band (202, 502,..) with a top surface; and an insulation system (100, 400, 700, 900) comprising: an insulation layer (300, 950) disposed over at least a portion of the top surface of the clamp band (202, 502..); and a foil cover (110, 410) covering the insulation layer (300, 950) and having an arcuate shape conforming to a shape of the clamp band (202, 502), the foil cover (110, 410) defining a pocket holding the insulation layer (300, 950) and including side walls (116, 718, 918) extending over the insulation layer (300, 950) and crimped around the clamp band (202, 502). an insulation layer (300, 950) disposed over at least a portion of the top surface of the clamp band (202, 502..); and a foil cover (110, 410) covering the insulation layer (300, 950) and having an arcuate shape conforming to a shape of the clamp band (202, 502), the foil cover (110, 410) defining a pocket holding the insulation layer (300, 950) and including side walls (116, 718, 918) extending over the insulation layer (300, 950) and crimped around the clamp band (202, 502).
An adhesive composition comprising an epoxy resin, an epoxy modified silicone resin, an acrylic resin, and a curing agent, the epoxy resin comprising a bisphenol bifunctional epoxy resin and an epoxy resin with trifunctionality or higher functionality and the acrylic resin comprising a binary copolymer of methyl methacrylate-butyl acrylate-methyl methacrylate or a modified product thereof.
An SiC formed body that is formed by a chemical vapor deposition method, the SiC formed body comprising 1 to 30 mass ppm of boron atoms, and more than 100 mass ppm and 1000 mass ppm or less of nitrogen atoms, wherein the SiC included in the SiC formed body has a polycrystalline morphology.
Method for determining the mass (m) of a motor vehicle, in particular a commercial vehicle, wherein a speed (v) of the motor vehicle is determined and a drive power of the motor vehicle is determined and the mass (m) of the motor vehicle is determined from the speed (v) and the drive power, characterized in that the speed (v) of the motor vehicle is determined for two mutually different instants (t0, t1), and the drive power of the motor vehicle is determined for said two instants (t0, t1), the time interval between the two instants (t0, t1) being selected in such a way that the driving resistances (FL, FR, FSt) belonging to the instants (t0, t1) do not differ significantly between the instants (t0, t1), and the mass (m) of the motor vehicle is determined from the speeds (v0, v1) and the drive powers (PA0, PA1) at the two instants (t0, t1).
Screen device comprising a screen roller and a screen rollable onto and unrollable from this screen roller and attached on one of its sides to the screen roller, the screen device further comprising two or more lateral guides for guiding the lateral sides of the screen when the screen is rolled up and unrolled, characterized in that at least one of the guides extends at least partially into a protective casing, wherein the screen roller is retained by at least one guide element compatible with the at least one of the lateral guides such that the guide element is movable along the guide, and wherein a mounting accessory is provided to secure the guide element relative to the guide in a predetermined operating position of the screen device, wherein the screen roller extends in the protective casing.
A method for bandwidth extension of a signal transmitted from a near-end station to a far-end station, comprising: receiving, at the far-end station, a wideband signal transmitted from the near-end station; generating, at the far-end station, a bandwidth extension model based on the received wideband signal transmitted by the near-end station with data of an identified speaker of the wideband signal; receiving, at the far-end station, a narrowband signal including data of the identified speaker; and performing bandwidth extension of the received narrowband signal using the bandwidth extension modelgenerated for the identified speaker. receiving, at the far-end station, a wideband signal transmitted from the near-end station; generating, at the far-end station, a bandwidth extension model based on the received wideband signal transmitted by the near-end station with data of an identified speaker of the wideband signal; receiving, at the far-end station, a narrowband signal including data of the identified speaker; and performing bandwidth extension of the received narrowband signal using the bandwidth extension modelgenerated for the identified speaker.
The method of construction of a radiator from aluminium and aluminium alloys by permanent joining of collectors with openings with heati1ng elements, characterized by that the collectors with openings, preferably horizontal, are heated to temperatures from 250°C to 600°C, and the heating elements, preferably vertical, are cooled to temperatures from -78.5°C to -195.8°C, whereas the end of the collectors heating is simultaneously the end of the heating elements cooling, and the temperature difference of the collectors heating and the heating elements cooling amounts at least to 328°C, then the heating elements are joined with the collectors and left for the temperature of the joined elements to level.
A peptide of less than 15 amino acids having cytotoxic T cell inducibility, wherein said peptide comprises the amino acid sequence of SEQ ID NO: 214, 196, 202, 210, 213, 217 or 223.
Optical fibre having a rectangular or trapezoidal index profile with a depressed trench and a ring having a theoretical cut-off wavelength greater than or equal to 1800 nm, a negative chromatic dispersion greater than or equal to -150 ps/(nm.km) and a ratio between the chromatic dispersion and the chromatic dispersion slope between 30 and 500 nm for a wavelength of 1550 nm, the difference (Δn 1) between the index of the rectangle or trapezium and the index of the cladding is between 16.10 -3 and 24.10 -3 and in that the radius (r 1) of the part of the fibre having an index greater than that of the cladding is between 1.5 and 2.3 μm, the difference (Δn 2) between the index of the depleted trench and the index of the cladding is between -7.5.10 -3 and -3.5.10 -3, in that the outside radius (r 2) of this trench is between 4.5 and 6.9 μm, the difference (Δn 3) between the index of the ring and the index of the cladding is between 3.10 -3 and 16.10 -3, and in that the outside radius (r 3) of this ring is between 6.8 and 8.5 μm and twice the integral of the product of the radius and the index between the inside radius and the outside radius of the ring is between 140.10 -3 and 350.10 -3 μm 2.
A mounting structure 200 for securing a payload to an aerial vehicle and for thermally regulating an electronic support system for the payload, the mounting structure 200 comprising: a body section 201 defining a housing 203 having a thermal management system 205, wherein the housing 203 is configured to receive the electronic support system; and a thermally conductive coupling 207 adapted to mechanically couple the payload to the body section 201, characterised in that the thermal management system 205 comprises a bimetallic strip configured to mechanically displace in response to heat, to cause a portion of the bimetallic strip to come into contact with the thermally conductive coupling so as to transfer heat generated by the electronic support system to the thermally conductive coupling 207 where it is dissipated away from the mounting structure 200, thereby enabling temperature regulation. a body section 201 defining a housing 203 having a thermal management system 205, wherein the housing 203 is configured to receive the electronic support system; and a thermally conductive coupling 207 adapted to mechanically couple the payload to the body section 201, characterised in that the thermal management system 205 comprises a bimetallic strip configured to mechanically displace in response to heat, to cause a portion of the bimetallic strip to come into contact with the thermally conductive coupling so as to transfer heat generated by the electronic support system to the thermally conductive coupling 207 where it is dissipated away from the mounting structure 200, thereby enabling temperature regulation.
System which comprises a device and an infotainment system of a motor vehicle, wherein the infotainment system has a computing unit on which a first operating system is installed and can be carried out, wherein the infotainment system has at least one generic interface, wherein the device has a computing unit on which a second operating system is installed and can be carried out, wherein a communication with the Internet can be performed with the second operating system, wherein the device has at least one generic interface (38, 38a, 38b, 38c), wherein the infotainment system and the device exchange data with each other via the generic interfaces (36, 38, 38a, 38b, 38c), wherein the system has an antenna as a generic radio interface which is designed as a component of the infotainment system, characterised in that the device and the infotainment system exchange data (19, 19a, 19b, 19c, 19d, 19e, 19f, 34, 34a, 34b, 34c, 34d, 34e, 34f) with the Internet only via the one antenna of the infotainment system, wherein the device exchanges data indirectly with the Internet via the antenna of the infotainment system, wherein applications, which are conceived for the second operating system, can be provided via the infotainment system.
A millimeter wave diplexer, comprising: a substrate integrated waveguide, SIW, high pass filter HPF, coupled to a first port and operable in a first frequency band; a microstrip line low pass filter, LPF, coupled to a second port and operable in a second frequency band; and a T-junction coupled between the SIW HPF and the microstrip line LPF, and coupled to a common port. a substrate integrated waveguide, SIW, high pass filter HPF, coupled to a first port and operable in a first frequency band; a microstrip line low pass filter, LPF, coupled to a second port and operable in a second frequency band; and a T-junction coupled between the SIW HPF and the microstrip line LPF, and coupled to a common port.
A spectrometer comprising: a package having a light incident opening for making light thereinside and formed with a resin; a plurality of leads buried into the package, and a spectroscopic module accommodated into the package; wherein the spectroscopic module comprises: a body portion for transmitting light made incident from the light incident opening, a spectroscopic portion for dispersing light transmitted from the body portion, and for reflecting the light; and a light detecting element electrically connected to the plurality of leads to detect light made incident and reflected by the spectroscopic portion; the spectroscopic module is supported by the package in a state that the body portion is regulated by an inner wall plane (27, 28, 29) of the package so as not to move to a predetermined direction, the package is formed with a light-blocking resin, the light detecting element and a plurality of wirings electrically connected to the light detecting element are provided on a front plane of the body portion, the plurality of wirings being electrically connected to the plurality of leads, a step portion is provided on the inner wall plane (27, 28, 29) of the package, and the step portion supports a rear plane of the body portion, the rear plane facing the spectroscopic portion and wherein the step portion regulates the body portion so as not to move in parallel or perpendicularly with respect to the rear plane.