mhurhangee/ep-ind-claims huggingface dataset:
Clapper valve which comprises a continuous magnetic motion position indicator that is configured to detect the position of the clapper valve, which also comprises a valve body and, disposed within said valve body, a clapper and a valve stem, said indicator comprising: (a) a magnetic joint assembly comprising a first set of magnets disposed inside a pressure-containing cap assembled on said valve body and a second set of magnets located in a housing of the indicator and arranged outside said pressure-containing cap and operatively interfaced with said first set of magnets; and (b) at least one remote position transmitter and/or at least one local visual indicator; wherein said magnetic joint assembly is configured to transmit rotary movement of said clapper from said valve stem to said remote position transmitter and/or to said local visual indicator without the presence of a dynamic seal interface, characterized in that the magnets of the first and second sets of magnets (26, 30) are permanent magnets arranged alternatingly in each set of magnets (26, 30), with the magnets of second set of magnets being arranged opposite in polarity to the magnets of the first set of magnets. (a) a magnetic joint assembly comprising a first set of magnets disposed inside a pressure-containing cap assembled on said valve body and a second set of magnets located in a housing of the indicator and arranged outside said pressure-containing cap and operatively interfaced with said first set of magnets; and (b) at least one remote position transmitter and/or at least one local visual indicator;
A method, comprising: storing an alert database defining a plurality of alert events for a vehicle, the plurality of alert events indicating deviations from a desired operation of the vehicle; detecting a plurality of alert events by monitoring outputs of a plurality of sensors in the vehicle; searching the alert database to identify a crew response for the alert events; identifying a current operational phase of the vehicle; contextualizing, based on the current operational phase, the plurality of alert events to assign an alert level to the plurality of alert events; determining whether at least two alerts have the same crew response; based on the determining merging the alert events that have the same crew responses; and outputting, for display, the merged alert event using the assigned alert level. storing an alert database defining a plurality of alert events for a vehicle, the plurality of alert events indicating deviations from a desired operation of the vehicle; detecting a plurality of alert events by monitoring outputs of a plurality of sensors in the vehicle; searching the alert database to identify a crew response for the alert events; identifying a current operational phase of the vehicle; contextualizing, based on the current operational phase, the plurality of alert events to assign an alert level to the plurality of alert events; determining whether at least two alerts have the same crew response; based on the determining merging the alert events that have the same crew responses; and outputting, for display, the merged alert event using the assigned alert level.
A method of making a substrate-through metal via having a high aspect ratio, in a semiconductor substrate, and a metal pattern on the substrate surface, comprising: a) providing a semiconductor substrate (10, 30); b) depositing a first poly-silicon (22, 36) on the substrate (10, 30); c) patterning the first poly-silicon (22, 36) on the substrate surface; d) selectively depositing Ni on the patterned first poly-silicon (22, 36) by an electroless process, and e) providing an intermediate barrier layer of silicide Si x Ni y by silicidation of the deposited Ni; making a via hole through the substrate, wherein the walls in the hole (12, 39) are subjected to the same processing as in steps b), d) and e); and depositing Cu on the Ni by a plating process. a) providing a semiconductor substrate (10, 30); b) depositing a first poly-silicon (22, 36) on the substrate (10, 30); c) patterning the first poly-silicon (22, 36) on the substrate surface; d) selectively depositing Ni on the patterned first poly-silicon (22, 36) by an electroless process, and e) providing an intermediate barrier layer of silicide Si x Ni y by silicidation of the deposited Ni; making a via hole through the substrate, wherein the walls in the hole (12, 39) are subjected to the same processing as in steps b), d) and e); and depositing Cu on the Ni by a plating process.
Method for manufacturing a device for dispensing a product, comprising: - a filling step in which a vessel is filled with product, - supplying a device comprising the vessel, said vessel being connected to a deformable chamber and being provided with a filling opening, the inside of the deformable chamber being delimited at least partially by a movable wall a movement of which causes the volume of the deformable chamber to change and: ∘ being separated from the vessel by at least one supply valve, and/or ∘ being separated from an outlet of the device by at least one dispensing valve, then - a closing step in which the filling opening is closed, - a priming step during which product is transported from the vessel until inside the deformable chamber, the method being characterized in that it comprises: - a vacuum step in which a pressure drop is created in the deformable chamber relative to a reference pressure, and the vacuum, filling and supplying steps being implemented so that, in a state called "intermediate" state of the device, the vessel is filled with product while the inside of the deformable chamber is at an intermediate pressure lower than the reference pressure. - a filling step in which a vessel is filled with product, - supplying a device comprising the vessel, said vessel being connected to a deformable chamber and being provided with a filling opening, the inside of the deformable chamber being delimited at least partially by a movable wall a movement of which causes the volume of the deformable chamber to change and: ∘ being separated from the vessel by at least one supply valve, and/or ∘ being separated from an outlet of the device by at least one dispensing valve, then ∘ being separated from the vessel by at least one supply valve, and/or ∘ being separated from an outlet of the device by at least one dispensing valve, then - a closing step in which the filling opening is closed, - a priming step during which product is transported from the vessel until inside the deformable chamber, - a vacuum step in which a pressure drop is created in the deformable chamber relative to a reference pressure, and
A light emitting diode, LED, apparatus comprising: a light emitting diode configured to emit light having a blue wavelength; a sapphire substrate layer (410, 510) on the light emitting diode; a light conversion layer (20, 440, 540) on the sapphire substrate layer (410, 510) and configured to convert the light having a blue wavelength incident from the light emitting diode, wherein the light conversion layer is formed of a quantum dot siloxane resin, and wherein the light conversion layer is spaced apart from the light emitting diode by the sapphire substrate layer (410, 510); a reflection coating layer (30, 450, 550) stacked on the light conversion layer (20, 440, 540) and configured to pass the light of which the wavelength is converted in light incident from the light conversion layer (20, 440, 540) therethrough and to reflect the light having a blue wavelength which is not converted; and a color filter (40, 460, 560) stacked on the reflection coating layer (30, 450, 550) and configured to pass a light of which the wavelength is converted by the light conversion layer (20, 440, 540) and filter light having other wavelengths. a light emitting diode configured to emit light having a blue wavelength; a sapphire substrate layer (410, 510) on the light emitting diode; a light conversion layer (20, 440, 540) on the sapphire substrate layer (410, 510) and configured to convert the light having a blue wavelength incident from the light emitting diode, wherein the light conversion layer is formed of a quantum dot siloxane resin, and wherein the light conversion layer is spaced apart from the light emitting diode by the sapphire substrate layer (410, 510); a reflection coating layer (30, 450, 550) stacked on the light conversion layer (20, 440, 540) and configured to pass the light of which the wavelength is converted in light incident from the light conversion layer (20, 440, 540) therethrough and to reflect the light having a blue wavelength which is not converted; and a color filter (40, 460, 560) stacked on the reflection coating layer (30, 450, 550) and configured to pass a light of which the wavelength is converted by the light conversion layer (20, 440, 540) and filter light having other wavelengths.
A pharmaceutical composition for treating tumor, comprising: at least one polymeric micelle; and an anti-tumor drug encapsulated within said polymeric micelle; wherein said polymeric micelle comprises block copolymers, comprising at least one hydrophilic block, at least one hydrophobic block, and at least one zwitterion, and wherein the anti-tumor drug is 7-ethyl-10-hydroxycamptothecin. at least one polymeric micelle; and an anti-tumor drug encapsulated within said polymeric micelle; wherein said polymeric micelle comprises block copolymers, comprising at least one hydrophilic block, at least one hydrophobic block, and at least one zwitterion, and wherein the anti-tumor drug is 7-ethyl-10-hydroxycamptothecin.
A wheelchair curb-climbing and curb-descending system for aiding a wheelchair to negotiate a curb, the system comprising: a wheelchair attachment mechanism for securing the system to the wheelchair; a pair of front arms, each front arm adapted and controllable to extend, or be positioned, forward and downward so as to lift a front portion of wheelchair and to retract back so as to lower the front portion of the wheelchair upon deployment of the system; a pair of rear arms, each rear arm adapted and controllable to extend, or be positioned, forward and downward so as to lift a rear portion of wheelchair and to retract back so as to lower the rear portion of the wheelchair upon deployment of the system; an arm extending mechanism comprising an arm extension and retraction motor associated with each of the front arms and with each of the rear arms for extending or positioning, and retracting the arms (14, 16); a rotatable lifting-arm wheel disposed at the free ends of each front arm and each rear arm; a wheel motor associated with, and adapted for rotating, at least one of the arm wheels; an operation control unit adapted to actuate and control operation of the system; and a leveling mechanism operably connected to the arms (14, 16) for ensuring the seat of the wheelchair remains substantially level to the ground during operation of the system, characterized in that the system further comprises a pair of arm housings for housing the front arms and the rear arms, the housings and the arms (14, 16) being arcuate. a wheelchair attachment mechanism for securing the system to the wheelchair; a pair of front arms, each front arm adapted and controllable to extend, or be positioned, forward and downward so as to lift a front portion of wheelchair and to retract back so as to lower the front portion of the wheelchair upon deployment of the system; a pair of rear arms, each rear arm adapted and controllable to extend, or be positioned, forward and downward so as to lift a rear portion of wheelchair and to retract back so as to lower the rear portion of the wheelchair upon deployment of the system; an arm extending mechanism comprising an arm extension and retraction motor associated with each of the front arms and with each of the rear arms for extending or positioning, and retracting the arms (14, 16); a rotatable lifting-arm wheel disposed at the free ends of each front arm and each rear arm; a wheel motor associated with, and adapted for rotating, at least one of the arm wheels; an operation control unit adapted to actuate and control operation of the system; and a leveling mechanism operably connected to the arms (14, 16) for ensuring the seat of the wheelchair remains substantially level to the ground during operation of the system, characterized in that the system further comprises a pair of arm housings for housing the front arms and the rear arms, the housings and the arms (14, 16) being arcuate.
A battery module comprising: a battery cell stack, in which a plurality of battery cells comprising electrode leads, are stacked; a busbar connecting the electrode leads; and a temperature control unit that is located at one side of the battery cell stack and makes contact with the electrode leads, wherein the temperature control unit comprises a heat transfer member that makes contact with the electrode leads and a thermoelectric element capable of being heated and cooled, and wherein the heat transfer member comprises a metal layer and a metal oxide layer disposed on one surface of the metal layer and located between the metal layer and the electrode leads, wherein the electrode leads comprise welding portions bonded to the busbars or the other electrode leads and a connecting portion connecting the welding portions and the battery cells, wherein the at least one of the welding portions is configured such that one surface thereof is bonded to the busbar or the other electrode lead, and the other surface that is opposite to the one surface makes contact with the metal oxide layer of the heat transfer member, and wherein the thermoelectric element makes contact with the metal layer of the heat transfer member. a battery cell stack, in which a plurality of battery cells comprising electrode leads, are stacked; a busbar connecting the electrode leads; and a temperature control unit that is located at one side of the battery cell stack and makes contact with the electrode leads, wherein the temperature control unit comprises a heat transfer member that makes contact with the electrode leads and a thermoelectric element capable of being heated and cooled, and wherein the heat transfer member comprises a metal layer and a metal oxide layer disposed on one surface of the metal layer and located between the metal layer and the electrode leads, wherein the electrode leads comprise welding portions bonded to the busbars or the other electrode leads and a connecting portion connecting the welding portions and the battery cells, wherein the at least one of the welding portions is configured such that one surface thereof is bonded to the busbar or the other electrode lead, and the other surface that is opposite to the one surface makes contact with the metal oxide layer of the heat transfer member, and wherein the thermoelectric element makes contact with the metal layer of the heat transfer member.
A mold, comprising an anodized porous alumina layer over its surface, the anodized porous alumina layer having a plurality of first recessed portions and a plurality of second recessed portions, wherein the plurality of second recessed portions have a two-dimensional size of not less than 190 nm and not more than 50 μm when viewed in a direction normal to the mold surface, the plurality of second recessed portions having a plurality of minute recessed portions over its inner surface, the plurality of minute recessed portions having a two-dimensional size of not less than 10 nm and not more than 200 nm when viewed in a direction normal to the inner surface, the plurality of first recessed portions have a two-dimensional size of not less than 10 nm and not more than 200 nm when viewed in a direction normal to the mold surface, the plurality of first recessed portions being provided between the plurality of second recessed portions, and an average value of the two-dimensional size of the plurality of second recessed portions is not less than 2.73 times an average value of the two-dimensional size of the plurality of first recessed portions. the plurality of second recessed portions have a two-dimensional size of not less than 190 nm and not more than 50 μm when viewed in a direction normal to the mold surface, the plurality of second recessed portions having a plurality of minute recessed portions over its inner surface, the plurality of minute recessed portions having a two-dimensional size of not less than 10 nm and not more than 200 nm when viewed in a direction normal to the inner surface, the plurality of first recessed portions have a two-dimensional size of not less than 10 nm and not more than 200 nm when viewed in a direction normal to the mold surface, the plurality of first recessed portions being provided between the plurality of second recessed portions, and an average value of the two-dimensional size of the plurality of second recessed portions is not less than 2.73 times an average value of the two-dimensional size of the plurality of first recessed portions.
An injection device (100, 400, 500, 600) comprising: a body comprising a syringe locator for receiving a syringe; and a firing mechanism (102, 402, 502, 602) comprising a rear cap (104, 406, 506, 604), a plunger (106, 404, 606) configured to be axially displaced in a forward direction relative to the rear cap (104, 406, 506, 604) and a driver system for driving the plunger (106, 404, 606) forwards upon activation of the injection device (100, 400, 500, 600), the firing mechanism (102, 402, 502, 602) configured to be directly or indirectly connected to the body such that an axial spacing of the rear cap (104, 406, 506, 604) and a barrel of the syringe is fixed during operation of the injection device (100, 300, 500, 600), wherein, the firing mechanism (102, 402, 502, 602) comprises first connection features and the body comprises second connection features, or wherein the body comprises a rear portion and a forward portion axially moveable relative to each other, and wherein the rear portion comprises the first connection features and the forward portion comprises the second connection features, and wherein the first and second connection features allow adjustment of a relative axial position of the firing mechanism (102, 402, 502, 602) and the syringe locator during assembly of the injection device (100, 400, 500, 600). a body comprising a syringe locator for receiving a syringe; and a firing mechanism (102, 402, 502, 602) comprising a rear cap (104, 406, 506, 604), a plunger (106, 404, 606) configured to be axially displaced in a forward direction relative to the rear cap (104, 406, 506, 604) and a driver system for driving the plunger (106, 404, 606) forwards upon activation of the injection device (100, 400, 500, 600), the firing mechanism (102, 402, 502, 602) configured to be directly or indirectly connected to the body such that an axial spacing of the rear cap (104, 406, 506, 604) and a barrel of the syringe is fixed during operation of the injection device (100, 300, 500, 600), wherein, the firing mechanism (102, 402, 502, 602) comprises first connection features and the body comprises second connection features, or wherein the body comprises a rear portion and a forward portion axially moveable relative to each other, and wherein the rear portion comprises the first connection features and the forward portion comprises the second connection features, and wherein the first and second connection features allow adjustment of a relative axial position of the firing mechanism (102, 402, 502, 602) and the syringe locator during assembly of the injection device (100, 400, 500, 600).
A touch apparatus, comprising: a substrate having a front surface with a touch region and a back surface, with one or more mounted transmitting and receiving transducers, the touch apparatus configured to propagate surface acoustic waves on at least a portion of the back surface, characterized in that the touch apparatus is further configured to propagate near-longitudinal-resonance Lamb waves converted from the surface acoustic waves in at least a portion of the touch region of the substrate, wherein: the near-longitudinal-resonance Lamb waves propagate through the touch region with a phase velocity V P; the surface acoustic waves propagate on the back surface with a velocity V SAW; and V P is at least about three times V SAW. a substrate having a front surface with a touch region and a back surface, with one or more mounted transmitting and receiving transducers, the touch apparatus configured to propagate surface acoustic waves on at least a portion of the back surface, characterized in that the touch apparatus is further configured to propagate near-longitudinal-resonance Lamb waves converted from the surface acoustic waves in at least a portion of the touch region of the substrate, wherein: the near-longitudinal-resonance Lamb waves propagate through the touch region with a phase velocity V P; the surface acoustic waves propagate on the back surface with a velocity V SAW; and V P is at least about three times V SAW. the near-longitudinal-resonance Lamb waves propagate through the touch region with a phase velocity V P; the surface acoustic waves propagate on the back surface with a velocity V SAW; and V P is at least about three times V SAW.
Method for use in a system comprising a Mobility Management Entity, MME, an Evolved Packet Core, EPC, Gateway, GW, such as a Packet Data Network Gateway, P-GW, or a Serving gateway, S-GW, an Administration Function, ADMF, a Delivery Function 3, and a user entity, UE, acting as a UE-to-Network Relay, also denoted relay UE, for a remote User Entity, UE, the MME serving the relay UE, the method comprising - the relay UE starting to provide a proximity service to the remote UE as the UE-to-Network relay; - the relay UE transmitting in a report message an identity of the remote UE (IMSI_1) and Internet Protocol, IP, address information of the remote UE to the MME serving the Relay UE; - the MME notifying the GW in a message comprising the identity of the remote UE (IMSI_1) and Internet protocol, IP, address information of the remote UE - the GW following an intercept message from the ADMF comprising an identity of the remote UE, - extracting data from the remote UE using the IP address of the remote UE, - reporting all UE traffic to the Delivery Function 3 concerning the remote UE. - the relay UE starting to provide a proximity service to the remote UE as the UE-to-Network relay; - the relay UE transmitting in a report message an identity of the remote UE (IMSI_1) and Internet Protocol, IP, address information of the remote UE to the MME serving the Relay UE; - the MME notifying the GW in a message comprising the identity of the remote UE (IMSI_1) and Internet protocol, IP, address information of the remote UE - the GW following an intercept message from the ADMF comprising an identity of the remote UE, - extracting data from the remote UE using the IP address of the remote UE, - reporting all UE traffic to the Delivery Function 3 concerning the remote UE.
Rotary switch comprising: - a switch body in metal or externally coated in metal; characterised by - a cover joined to close the switch body by means of a plurality of attachment screws in metal or externally coated in metal, each housed in seats provided (45, 25) arranged in the cover and in the switch body; wherein inside the seat of the switch body there is an insert made of a material suitable to prevent the circulation of galvanic currents between the seat of the switch body and the attachment screw. - a switch body in metal or externally coated in metal; characterised by - a cover joined to close the switch body by means of a plurality of attachment screws in metal or externally coated in metal, each housed in seats provided (45, 25) arranged in the cover and in the switch body;