mhurhangee/ep-ind-claims huggingface dataset:
Gas container equipped with a gas distribution assembly comprising a tap unit and a protective cap arranged around the tap unit, the protective cap comprising a cap body forming a protective shell delimiting an inner volume designed to receive all or some of the tap unit, characterised in that: - the tap unit comprises at least one blind slot opening onto the outer peripheral surface thereof, and - the cap body comprises, on the inner wall thereof, at least one protruding finger being projected into said inner volume, said at least one protruding finger being housed in said at least one blind slot when the protective cap is arranged around the tap unit. - the tap unit comprises at least one blind slot opening onto the outer peripheral surface thereof, and - the cap body comprises, on the inner wall thereof, at least one protruding finger being projected into said inner volume, said at least one protruding finger being housed in said at least one blind slot when the protective cap is arranged around the tap unit.
Fibre composite material which can decay in water, comprising - a number of fibre elements, - at least one binder which is formed of a water-soluble polysaccharide or comprises such, characterised in that the at least one binder has a viscosity of between 501 mPas and 750 mPas, which is measured by means of a rotary viscosimeter of the type HAAKE Viscotester VT 550 comprising a cylinder system, measuring beaker MV at a rotational speed of 2.55 s -1, on an aqueous solution containing 2 wt.% binder, at 20°C, and has a molar mass of over 50,000 g/mol. - a number of fibre elements, - at least one binder which is formed of a water-soluble polysaccharide or comprises such, characterised in that
A lid body for an electronic component package, comprising: a plate body containing silicon; a protective film disposed on a main surface of the plate body, the protective film protecting the plate body during sealing to a package from a brazing material; a, in plan view, frame-like hole passing through the protective film, the frame-like hole being, in plan view, at an outer periphery of the protective film to define a protective film-free area; and a sealing metallic layer made of metal which fills in the frame-like hole and intimately contacts with the plate body. a plate body containing silicon; a protective film disposed on a main surface of the plate body, the protective film protecting the plate body during sealing to a package from a brazing material; a, in plan view, frame-like hole passing through the protective film, the frame-like hole being, in plan view, at an outer periphery of the protective film to define a protective film-free area; and a sealing metallic layer made of metal which fills in the frame-like hole and intimately contacts with the plate body.
A method for producing carbon nanotubes in which, using acetylene and a catalyst for producing carbon nanotubes from the acetylene, the carbon nanotubes are synthesized on a support in a heated state, disposed in a reactor, the method comprising a synthesis step of synthesizing the carbon nanotubes on the support on which the catalyst is supported by flowing a source gas consisting of the acetylene, carbon dioxide, and an inert gas over the support, wherein in the source gas, a partial pressure of the acetylene is 1.33 × 10 1 to 1.33 × 10 4 Pa, a partial pressure of the carbon dioxide is 1.33 × 10 1 to 1.33 × 10 4 Pa, and a partial pressure ratio of the acetylene to the carbon dioxide (acetylene/carbon dioxide) is in the range of 0.16 to 0.33, the reaction temperature is 500°C or more and 1000°C or less, and in the synthesis step, the synthesis of the carbon nanotubes is performed for 1 to 100 minutes.
Process for the preparation of a fermented mixture, the process comprising the following steps: a) Providing a fermentable mixture in a first reactor, b) fermenting the fermentable mixture provided in step a) in the first reactor at a first temperature for a first period of time to obtain a liquid phase and a first gas stream, wherein the liquid phase comprises a fermented mixture and the first gas stream comprises carbon dioxide, c) transferring the first gas stream obtained in step b) from the first reactor to a first condenser, wherein the first gas stream is separated from the liquid phase obtained in step b) to obtain the fermented mixture in the first reactor and the first gas stream in the first condenser, characterised in that the first gas stream is at least partially condensed in the first condenser in step c) using a scrubbing liquid having a second temperature, wherein the second temperature is in the range of -50°C to -10°C, wherein the scrubbing liquid comes into direct contact with the first gas stream and wherein heat exchange and mass transfer is possible between the first gas stream and the scrubbing liquid, wherein the first gas stream is fractionally condensed in step c). a) Providing a fermentable mixture in a first reactor, b) fermenting the fermentable mixture provided in step a) in the first reactor at a first temperature for a first period of time to obtain a liquid phase and a first gas stream, wherein the liquid phase comprises a fermented mixture and the first gas stream comprises carbon dioxide, c) transferring the first gas stream obtained in step b) from the first reactor to a first condenser, wherein the first gas stream is separated from the liquid phase obtained in step b) to obtain the fermented mixture in the first reactor and the first gas stream in the first condenser, characterised in that the first gas stream is at least partially condensed in the first condenser in step c) using a scrubbing liquid having a second temperature, wherein the second temperature is in the range of -50°C to -10°C, wherein the scrubbing liquid comes into direct contact with the first gas stream and wherein heat exchange and mass transfer is possible between the first gas stream and the scrubbing liquid, wherein the first gas stream is fractionally condensed in step c). characterised in that the first gas stream is at least partially condensed in the first condenser in step c) using a scrubbing liquid having a second temperature, wherein the second temperature is in the range of -50°C to -10°C, wherein the scrubbing liquid comes into direct contact with the first gas stream and wherein heat exchange and mass transfer is possible between the first gas stream and the scrubbing liquid, wherein the first gas stream is fractionally condensed in step c).
Electronic parking brake system, comprising: - an air supply, - a check valve, connected to the air supply, - an electro-pneumatic control unit, - at least one park brake actuator, - a relay valve, comprising a first port connected to the check valve, a second port connected to the electro-pneumatic control unit, a third port connected to the park brake actuator and a fourth port which is in communication with the atmosphere, and - an electrically actuated valve (14; 15), which is controlled by the electro-pneumatic control unit and which includes a first orifice (14a; 15a) connected to a compressed air line extending between the check valve and the air supply, a second orifice (14b; 15b), a third orifice (14c; 15c) connected to the electro-pneumatic control unit, and preferably a vent orifice, characterized in that the second orifice (14b; 15b) is connected to another compressed air line extending between the check valve and the first port of the relay valve, and in that the electrically actuated valve is designed for switching into the second configuration as soon as it is no more electrically supplied. - an air supply, - a check valve, connected to the air supply, - an electro-pneumatic control unit, - at least one park brake actuator, - a relay valve, comprising a first port connected to the check valve, a second port connected to the electro-pneumatic control unit, a third port connected to the park brake actuator and a fourth port which is in communication with the atmosphere, and - an electrically actuated valve (14; 15), which is controlled by the electro-pneumatic control unit and which includes a first orifice (14a; 15a) connected to a compressed air line extending between the check valve and the air supply, a second orifice (14b; 15b), a third orifice (14c; 15c) connected to the electro-pneumatic control unit, and preferably a vent orifice, characterized in that the second orifice (14b; 15b) is connected to another compressed air line extending between the check valve and the first port of the relay valve, and in that the electrically actuated valve is designed for switching into the second configuration as soon as it is no more electrically supplied.
Coating composition comprising a) silanized colloidal silica particles having an average particle diameter ranging from 2 to 150 nm and a weight ratio of silane to silica ranging from 0.05 to 0.4 b) an alkyd-containing binder c) a carrier fluid selected from water and/or an organic solvent, wherein the cobalt content of a cobalt based drier in the composition is less than 200 ppm based on the weight of the alkyd-containing binder or total weight of binder. a) silanized colloidal silica particles having an average particle diameter ranging from 2 to 150 nm and a weight ratio of silane to silica ranging from 0.05 to 0.4 b) an alkyd-containing binder c) a carrier fluid selected from water and/or an organic solvent,
An apparatus for preventing sparking between a fitting and a tube (114, 116) from propagating to a surrounding medium comprising: a tube (114, 116); a hydraulic fitting attached to said tube (114, 116), the hydraulic fitting including a first open end for receiving said tube (114, 116); and a tip seal positioned on said hydraulic fitting adjacent said open end, said tip seal forming a mechanical barrier between said fitting and said tube (114, 116), characterised in that the tip seal is an incomplete ring or a spiral, respectively, defining one or more openings through which hydraulic fluid in the hydraulic fitting is able to leak. a tube (114, 116); a hydraulic fitting attached to said tube (114, 116), the hydraulic fitting including a first open end for receiving said tube (114, 116); and a tip seal positioned on said hydraulic fitting adjacent said open end, said tip seal forming a mechanical barrier between said fitting and said tube (114, 116),
A method of driving an electromagnetic actuator, comprising a coil (Bob), an electrical supply circuit for supplying power to the coil, and an electronic control circuit, the supply circuit comprising a switching stage comprising an H-bridge comprising a plurality of switches (SW1, SW2, SW3) connected to the coil, the first switch being connected in a first arm of the bridge between an electrical earth and the coil, and the second switch being connected between the voltage bus (Vdc) and the coil in a second arm of the H-bridge, the third switch being connected between the coil and electrical earth in a third arm of the bridge, the driving method being characterised in that it includes steps comprising: - apply a first control strategy in which the first and third switches are held in a closed state, while the second switch is switched between its open and closed states; - detecting an overcurrent event in the coil, by detecting that the voltage measured on the control bus (Vdc) exceeds a predefined voltage limit (Vlim) or by detecting that the duty cycle of the second switch becomes lower than a threshold value (DC_lim); - in response, apply a second driving strategy, instead of the first driving strategy, in which the third switch is periodically opened to decrease the current to the coil. - apply a first control strategy in which the first and third switches are held in a closed state, while the second switch is switched between its open and closed states; - detecting an overcurrent event in the coil, by detecting that the voltage measured on the control bus (Vdc) exceeds a predefined voltage limit (Vlim) or by detecting that the duty cycle of the second switch becomes lower than a threshold value (DC_lim); - in response, apply a second driving strategy, instead of the first driving strategy, in which the third switch is periodically opened to decrease the current to the coil.
A carbon nanotube preparation system, comprising: a pre-growth tube, for an early pre-reaction of raw materials before generation of carbon nanotubes; an atomizer, for atomizing the carbon nanotube raw materials and then spraying the atomized raw materials into the pre-growth tube; the atomizer is provided at the front end of the pre-growth tube, and has a spray output tube that extends into the pre-growth tube; a growth tube, for generating carbon nanotubes and continuous growth of the generated carbon nanotubes; the front end of the growth tube is hermetically connected to the rear end of the pre-growth tube; and an air curtain generator, for forming an air curtain enclosing an atomizing air flow around the outlet of the spray output tube, and the air curtain extends parallel to the extension direction of the pre-growth tube; the air curtain generator is provided inside the pre-growth tube; wherein the pre-growth tube comprises a first pre-growth segment and a second pre-growth segment; the first pre-growth segment is close to the front end of the pre-growth tube, and the second pre-growth segment is close to the rear end of the pre-growth tube; and the temperature inside the first pre-growth segment is different from that inside the second pre-growth segment. a pre-growth tube, for an early pre-reaction of raw materials before generation of carbon nanotubes; an atomizer, for atomizing the carbon nanotube raw materials and then spraying the atomized raw materials into the pre-growth tube; the atomizer is provided at the front end of the pre-growth tube, and has a spray output tube that extends into the pre-growth tube; a growth tube, for generating carbon nanotubes and continuous growth of the generated carbon nanotubes; the front end of the growth tube is hermetically connected to the rear end of the pre-growth tube; and an air curtain generator, for forming an air curtain enclosing an atomizing air flow around the outlet of the spray output tube, and the air curtain extends parallel to the extension direction of the pre-growth tube; the air curtain generator is provided inside the pre-growth tube; wherein the pre-growth tube comprises a first pre-growth segment and a second pre-growth segment; the first pre-growth segment is close to the front end of the pre-growth tube, and the second pre-growth segment is close to the rear end of the pre-growth tube; and the temperature inside the first pre-growth segment is different from that inside the second pre-growth segment.
A turbine starter comprising: a housing having a fluid inlet and a fluid outlet; a variable geometry stator having a plurality of stator vanes extending radially outward therefrom, the stator positioned within the housing downstream of the fluid inlet; a stator flow area defined between each pair of adjacent stator vanes; a movable member positioned to selectively block one or more of the stator flow areas; a turbine rotatably supported within the housing downstream of the stator; and characterized by an actuation system coupled to the movable member, the actuation system operable for moving the movable member in a radial direction between a first position proximate a hub of the stator vanes and second position proximate a tip of the stator vanes corresponding to a fully open flow area and a fully closed flow area, respectively. a housing having a fluid inlet and a fluid outlet; a variable geometry stator having a plurality of stator vanes extending radially outward therefrom, the stator positioned within the housing downstream of the fluid inlet; a stator flow area defined between each pair of adjacent stator vanes; a movable member positioned to selectively block one or more of the stator flow areas; a turbine rotatably supported within the housing downstream of the stator; and characterized by an actuation system coupled to the movable member, the actuation system operable for moving the movable member in a radial direction between a first position proximate a hub of the stator vanes and second position proximate a tip of the stator vanes corresponding to a fully open flow area and a fully closed flow area, respectively.
Continuous method for oxidizing a saturated cyclic hydrocarbon by oxygen to a mixture of hydroperoxide, alcohol and ketone, whereby a liquid stream of hydrocarbon to be oxidized and a gas stream containing oxygen are introduced in cocurrent flow at the bottom of a column, the liquid phase at the top of the column is degasified by forming an overhead and the degasified liquid phase is withdrawn, characterized in that a gas containing oxygen is supplied to various stages of the column and a stream of non-oxidizing gas is supplied to the overhead and/or in the liquid phase in the degasification zone or immediately upstream thereof, at a sufficient flow rate to maintain the oxygen concentration of the overhead at a volumetric concentration not exceeding the upper oxygen concentration limit.
X-ray imaging device for imaging a region of interest of an object arranged within an observation volume, the X-ray imaging device comprising: an X-ray source adapted for generating at least partially coherent X-radiation, a controllable transmission arrangement comprising an at least locally periodical X-ray phase modifying unit for generating an interference pattern when the at least partially coherent X-ray radiation is transmitted through it, and an at least locally periodical X-ray absorbing unit which is arranged downstream of the phase modifying unit, an X-ray detector, and a control device, wherein the periodical X-ray phase modifying unit and the periodical X-ray absorbing unit are arranged behind each other and spaced from each other in a beam path of X-rays emitted by the X-ray source in a region upstream of the observation volume; wherein at least one of the periodical X-ray phase modifying unit and the periodical X-ray absorbing unit comprises a multiplicity of sub-units, wherein at least one of the sub-units comprises steering means for displacing the associated sub-units, wherein a control device is adapted to controlling the at least one steering means. an X-ray source adapted for generating at least partially coherent X-radiation, a controllable transmission arrangement comprising an at least locally periodical X-ray phase modifying unit for generating an interference pattern when the at least partially coherent X-ray radiation is transmitted through it, and an at least locally periodical X-ray absorbing unit which is arranged downstream of the phase modifying unit, an X-ray detector, and a control device, wherein the periodical X-ray phase modifying unit and the periodical X-ray absorbing unit are arranged behind each other and spaced from each other in a beam path of X-rays emitted by the X-ray source in a region upstream of the observation volume; wherein at least one of the periodical X-ray phase modifying unit and the periodical X-ray absorbing unit comprises a multiplicity of sub-units, wherein at least one of the sub-units comprises steering means for displacing the associated sub-units, wherein a control device is adapted to controlling the at least one steering means.
An apparatus for a user equipment in wireless connection with a base station comprising means for: determining whether there is uplink data to be transmitted to a base station while the apparatus is configured with downlink control information, DCI, based physical downlink control channel, PDCCH, skipping, wherein it is determined to skip PDCCH monitoring for a period of time; performing PDCCH skipping for the period of time, in response to determining there is no uplink data to be transmitted to a base station; and performing PDCCH monitoring for a part of the period of time, in response to determining there is uplink data to be transmitted to a base station, wherein the PDCCH monitoring is performed an offset time period after said data has been transmitted. determining whether there is uplink data to be transmitted to a base station while the apparatus is configured with downlink control information, DCI, based physical downlink control channel, PDCCH, skipping, wherein it is determined to skip PDCCH monitoring for a period of time; performing PDCCH skipping for the period of time, in response to determining there is no uplink data to be transmitted to a base station; and performing PDCCH monitoring for a part of the period of time, in response to determining there is uplink data to be transmitted to a base station, wherein the PDCCH monitoring is performed an offset time period after said data has been transmitted.
A method for deploying virtual operation, administration and maintenance, wherein the method comprises: obtaining customized information of virtual operation, administration and maintenance V-OAM that needs to be deployed, wherein the customized information is used for defining an attribute of the V-OAM; and deploying, on a virtualized network according to the customized information, the V-OAM that is capable of managing at least one type of virtualized network function VNF network element; characterized in that before the obtaining customized information of virtual operation, administration and maintenance V-OAM that needs to be deployed, the method further comprises: determining whether a preset trigger condition is met, and if the preset trigger condition is met, triggering deployment of the V-OAM, wherein the trigger condition comprises: a quantity of VNF network elements that have been deployed on the virtualized network is greater than a pre-determined value, or a VNF network element with a self-organizing function has been deployed on the virtualized network. obtaining customized information of virtual operation, administration and maintenance V-OAM that needs to be deployed, wherein the customized information is used for defining an attribute of the V-OAM; and deploying, on a virtualized network according to the customized information, the V-OAM that is capable of managing at least one type of virtualized network function VNF network element; characterized in that before the obtaining customized information of virtual operation, administration and maintenance V-OAM that needs to be deployed, the method further comprises: determining whether a preset trigger condition is met, and if the preset trigger condition is met, triggering deployment of the V-OAM, wherein the trigger condition comprises: a quantity of VNF network elements that have been deployed on the virtualized network is greater than a pre-determined value, or a VNF network element with a self-organizing function has been deployed on the virtualized network.
A method for manufacturing a label laminate, the method comprising: - forming at least one water based adhesive layer on a belt, - drying said at least one water based adhesive layer on the belt, - unwinding a first material layer, wherein the first material layer comprises at least one plastic film layer, - unwinding a second material layer, - attaching said at least one dried water based adhesive layer to the surface of the first material layer, - laminating the first material layer comprising at least one water based adhesive layer together with the second material layer in order to form the label laminate. - forming at least one water based adhesive layer on a belt, - drying said at least one water based adhesive layer on the belt, - unwinding a first material layer, wherein the first material layer comprises at least one plastic film layer, - unwinding a second material layer, - attaching said at least one dried water based adhesive layer to the surface of the first material layer, - laminating the first material layer comprising at least one water based adhesive layer together with the second material layer in order to form the label laminate.