mhurhangee/ep-ind-claims huggingface dataset:
A repair device for a health care device, the repair device comprising: a repair patch; a pre-mask; and a release liner; wherein the repair patch is interposed between the pre-mask and the release liner; wherein a removable adhesive is interposed between the pre-mask and the repair patch; wherein a permanent adhesive is interposed between the repair patch and the release liner; wherein an adhesion value between the removable adhesive and the repair patch is between 28g/cm and 200g/cm per ASTMD3330 testing standards and wherein an adhesion value between the permanent adhesive and the health care device as determined on the exemplary surface according to the method as described in the description is greater than the adhesion value between the removable adhesive and the repair patch; and wherein at least one area of the pre-mask is not in contact with the repair patch and thereby forms a release tab, and wherein the release tab is free of adhesive. a repair patch; a pre-mask; and a release liner;
An exposure apparatus for exposing a substrate with an image of a pattern via a projection optical system, the exposure apparatus comprising: a substrate stage configured to support the substrate and to move the substrate under the projection optical system; and a liquid immersion system (10, 20) which has a supply path (14, 15) and a recovery path (21, 24) and is configured to supply liquid to a space under the projection optical system via the supply path and to recover the liquid of a liquid immersion region formed in the space via the recovery path, wherein the liquid immersion system comprises a removal portion for removing liquid remaining in the supply path by drawing or discharging the liquid from the supply path. a substrate stage configured to support the substrate and to move the substrate under the projection optical system; and a liquid immersion system (10, 20) which has a supply path (14, 15) and a recovery path (21, 24) and is configured to supply liquid to a space under the projection optical system via the supply path and to recover the liquid of a liquid immersion region formed in the space via the recovery path, wherein the liquid immersion system comprises a removal portion for removing liquid remaining in the supply path by drawing or discharging the liquid from the supply path.
(former 1 + 8) A handheld injection device by which set doses of a liquid medicament can be injected from a medical reservoir through an injection needle by release of a power reservoir in the device, the power reservoir being adapted to be fully or partially released by actuation of a user operable release member (3, 13, 20) positioned at or near an upper end of the injection device, the upper end being that end of the injection device which is opposite the injection needle, the power reservoir being adapted to be powered by rotation of a rotatably mounted dose setting member (7, 21), characterized in that the handheld injection device further comprises; a rotatably arranged drive member (8, 36, 37, 38) being adapted to at least partly engage with at least part of a drive track of an associated piston rod, the drive member (8, 36, 37, 38) being adapted to be positioned in a first axial position when the dose setting member (7, 21) is in a dose setting position, the drive member (8, 36, 37, 38) further being adapted to be positioned in a second axial position when the dose setting member (7, 21) is in a dose injection position, the drive member (8, 36, 37, 38) being adapted to release energy accumulated in the power reservoir when the drive member (8, 36, 37, 38) is in its second axial position.
A multi-stage traveling wave thermoacoustic heat engine, characterised by: a domed cylindrical shell; a thermal buffer tube (14, 60) coaxially located inside said shell, said thermal buffer tube (14, 60) further comprising one or more tube partitions dividing the thermal buffer tube (14, 60) into a plurality of thermal buffer tube stages (62, 64, 66, 68); an annular regenerator located between the shell and the thermal buffer tube (14, 60), said regenerator further comprising one or more regenerator partitions (82, 84, 86, 88) dividing the regenerator into a plurality of sealed regenerator stages (72, 74, 76, 78) corresponding to the stages in the thermal buffer tube; a flow turner heat exchanger at a first end of said shell; and a slotted heat exchanger at a second end of said shell opposite the first end; wherein said thermal buffer tube stages (62, 64, 66, 68) and said regenerator stages (72, 74, 76, 78) are operatively coupled such that a gas flow enters a lower end of a first thermal buffer tube stage, flows past the flow turner heat exchanger into a first regenerator stage and is directed by the one or more regenerator partitions (82, 84, 86, 88) into a second thermal buffer tube stage adjacent to the first thermal buffer tube stage. a domed cylindrical shell; a thermal buffer tube (14, 60) coaxially located inside said shell, said thermal buffer tube (14, 60) further comprising one or more tube partitions dividing the thermal buffer tube (14, 60) into a plurality of thermal buffer tube stages (62, 64, 66, 68); an annular regenerator located between the shell and the thermal buffer tube (14, 60), said regenerator further comprising one or more regenerator partitions (82, 84, 86, 88) dividing the regenerator into a plurality of sealed regenerator stages (72, 74, 76, 78) corresponding to the stages in the thermal buffer tube; a flow turner heat exchanger at a first end of said shell; and a slotted heat exchanger at a second end of said shell opposite the first end; wherein said thermal buffer tube stages (62, 64, 66, 68) and said regenerator stages (72, 74, 76, 78) are operatively coupled such that a gas flow enters a lower end of a first thermal buffer tube stage, flows past the flow turner heat exchanger into a first regenerator stage and is directed by the one or more regenerator partitions (82, 84, 86, 88) into a second thermal buffer tube stage adjacent to the first thermal buffer tube stage.
A floating structure for supporting wind turbines or other elements, comprising a cylindrical lower section finished at a lower end thereof by a hemispheric cap, and which contains ballast and acts as a flotation element, and a cylindrical and/or frustoconical upper section, located above sea level, which acts as a support for a wind turbine or another element, characterized in that said floating structure is a precast monolithic structure made of reinforced and prestressed concrete having a total length comprised between 110 and 320 meters and comprising prestressed reinforcement steel bars which have continuity through said hemispheric cap, wherein said cylindrical and/or frustoconical upper section is finished at an upper end thereof with a steel ring-shaped plate (17, 31) to which said prestressed reinforcement steel bars are anchored.
A photoacoustic gas sensor comprising: a gas measurement cell; the gas measurement cell comprising a measurement cell volume; an IR source carried on a semiconductor substrate; a microphone formed on the same or a second semiconductor substrate, and an IR filter; characterised in that: said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package. a gas measurement cell; the gas measurement cell comprising a measurement cell volume; an IR source carried on a semiconductor substrate; a microphone formed on the same or a second semiconductor substrate, and an IR filter; characterised in that: said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package. said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package.
Empty liposomes comprising 30% (w/w) or more cholesterol and sphingomyelin, or mixtures of empty liposomes comprising 30% (w/w) or more cholesterol and sphingomyelin, or phosphatidylcholine and sphingomyelin, with other empty liposomes of defined lipid composition for use in the treatment and prevention of bacterial infections.
A surgical instrument, comprising: an elongate shaft having a proximal end and a distal end; a controller (12, 12') coupled to a proximal region of the elongate shaft, a control element, an end-effector (16, 16') and an insert element; the controller (12, 12') comprising an aperture (428, 430), wherein the controller (12, 12') in a first configuration is configured to control the end-effector (16, 16') coupled to the distal end of the elongate shaft via the control element moveably coupled to the controller (12, 12') and received by the aperture (428, 430) wherein in a second configuration the controller (12, 12') is configured to move the distal end of the elongate shaft and the insert element is fixedly coupled to the controller (12, 12') and configured to cover the aperture (428, 430). an elongate shaft having a proximal end and a distal end; a controller (12, 12') coupled to a proximal region of the elongate shaft, a control element, an end-effector (16, 16') and an insert element; the controller (12, 12') comprising an aperture (428, 430), wherein the controller (12, 12') in a first configuration is configured to control the end-effector (16, 16') coupled to the distal end of the elongate shaft via the control element moveably coupled to the controller (12, 12') and received by the aperture (428, 430) wherein in a second configuration the controller (12, 12') is configured to move the distal end of the elongate shaft and the insert element is fixedly coupled to the controller (12, 12') and configured to cover the aperture (428, 430).
A color enhancing detergent for colored textile, consisting of the following raw materials in parts by weight: detergent: 5-95 deepening agent: 2-98 penetrating agent: 19-83 cationic modifier: 3-90 fiber modifier: 2-80 cellosolve: 1-81 diffusing agent: 2-82 dye fixing agent: 13-72 leveling agent: 11-76 dyeing auxiliary: 21-82 brightening agent: 22-69 bleaching agent: 29-75 pH-adjusting agent: 0.1-10 bluing agent: 0.006-0.08 characterized in that the deepening agent is chitosan, resin or organic silicone oil, and the detergent is a detergent of cationic, anionic or non-ionic surface active agent, the cellosolve is butyl cellosolve, ethyl cellosolve, tert.-butyl cellosolve or dimethyl cellosolve, the cationic modifier is rare earth chloride compound, cupric salt, trivalent aluminum salt or trivalent chromic salt, and the fiber modifier is rare earth compound, the penetrating agent is fatty alcohol or epoxyethane. detergent: 5-95 deepening agent: 2-98 penetrating agent: 19-83 cationic modifier: 3-90 fiber modifier: 2-80 cellosolve: 1-81 diffusing agent: 2-82 dye fixing agent: 13-72 leveling agent: 11-76 dyeing auxiliary: 21-82 brightening agent: 22-69 bleaching agent: 29-75 pH-adjusting agent: 0.1-10 bluing agent: 0.006-0.08
Process for the hydration of olefins to alcohols at pressures of 40 to 200 bar and a temperature of 80 to 220°C by heterogeneous reactive extraction bringing into contact in a reactor one or more olefins having 3 or 4 carbon atoms, water and an acidic catalyst, wherein the olefin(s), the alcohol(s) and the water are in the condensed state, liquid state and/or supercritical state, the acidic catalyst is an ion exchange resin and is immobilized and selected from at least one member of the group consisting of the following structured catalysts: a) a structured catalytic packing wherein the structured catalyst comprises multiple flow through channels wherein first multiple channels are orientated with an angle of + 20 to + 60° and second multiple channels with an angle of - 20 to - 60° towards the flow direction and the first and the second channels provide for multiple intersections to allow mass transfer in multiple directions; b) a monolithic support having the shape of honeycombs or other parallel channel structures, impregnated or coated with the acidic catalyst; c) acidic fibres as part of woven or non woven fabrics; d) catalytic elements aligned an wires or filaments; wherein either the olefin is propylene and the alcohol is isopropanol or the olefin is an n-butylene and the alcohol is 2-butyl alcohol, and the product alcohol, in particular isopropanol, is recovered from the aqueous phase by extraction with the olefinic phase. a) a structured catalytic packing wherein the structured catalyst comprises multiple flow through channels wherein first multiple channels are orientated with an angle of + 20 to + 60° and second multiple channels with an angle of - 20 to - 60° towards the flow direction and the first and the second channels provide for multiple intersections to allow mass transfer in multiple directions; b) a monolithic support having the shape of honeycombs or other parallel channel structures, impregnated or coated with the acidic catalyst; c) acidic fibres as part of woven or non woven fabrics; d) catalytic elements aligned an wires or filaments;
A formulation comprising collagen, hyaluronic acid and astaxanthin, wherein the formulation is encapsulated in an enteric capsule and wherein the collagen, hyaluronic acid and astaxanthin comprise at least 98% by weight of the contents of the capsule.
Method for the estimation of the angular position and/or speed of rotation of a rotor in a synchronous polyphase rotating electric machine, which also comprises a stator, wherein said machine is supplied via a polyphase inverter which is connected to a DC voltage source, and wherein said polyphase inverter is controlled for the application to said stator of a vectoral pulse width modulation, wherein said estimation of the angular position is obtained by the calculation of at least a first estimator, as the solution of a differential algebraic equation, the coefficients of which are dependent upon electrical parameters of said machine, comprising the first and second inductances of said stator, in the direct-axis and quadrature-axis respectively in relation to a magnetic flux generated by said rotor, a resistance of a phase winding, and said magnetic flux generated by said rotor, and are further dependent upon a reference voltage of said vectoral pulse width modulation, phase currents and first derivatives with respect to the time of said phase currents, and said estimation of the speed of rotation is obtained by the calculation of a second estimator, which is obtained by the calculation of a first derivative of said first estimator in relation to time; characterized in that said differential algebraic equation is expressed as follows, where said synchronous polyphase rotating electric machine is of the three-phase type: { θ ^ ̇ = sin θ ^ L q y ̇ 1 + R s y 1 − u 1 + cos θ ^ − L q y ̇ 2 − R s y 2 + u 2 φ m + L d − L q y 1 cos θ ^ + y 2 sin θ ^ ω ^ = θ ^ ̇ where: a derivative operator in relation to time is marked: •; θ̂,ω̂ represent said first and second estimators respectively; u = [ u 1, u 2] = [ v sα, v sβ] represent the components of said reference voltage, according to a Clarke coordinate; y = [ y 1, y 2] = [ i sα, i sβ] represent the projections of said phase currents on said Clarke coordinate; L d, L d represent said first and second inductances respectively; R s represents said resistance; Φ m represents said magnetic flux. a derivative operator in relation to time is marked: •; θ̂,ω̂ represent said first and second estimators respectively; u = [ u 1, u 2] = [ v sα, v sβ] represent the components of said reference voltage, according to a Clarke coordinate; y = [ y 1, y 2] = [ i sα, i sβ] represent the projections of said phase currents on said Clarke coordinate; L d, L d represent said first and second inductances respectively; R s represents said resistance; Φ m represents said magnetic flux.
A computer-implemented method comprising: receiving a mobile microphone data from a mobile device; receiving a location data associated with the mobile device; receiving a stationary microphone data from a stationary microphone; correlating the mobile device to the stationary microphone utilizing the location data; and the method being characterized by: adjusting a sound masking noise output at a stationary loudspeaker in response to the mobile microphone data and the stationary microphone data received from the correlated mobile microphone and stationary microphone. receiving a mobile microphone data from a mobile device; receiving a location data associated with the mobile device; receiving a stationary microphone data from a stationary microphone; correlating the mobile device to the stationary microphone utilizing the location data; and the method being characterized by: adjusting a sound masking noise output at a stationary loudspeaker in response to the mobile microphone data and the stationary microphone data received from the correlated mobile microphone and stationary microphone.
Dishwasher, in particular domestic dishwasher, having at least one wall section (2, 6, 7, 9) for delimiting a washing chamber, which is provided with at least one bitumen pad (11a to 11f) for muffling and/or sound-proofing the wall section (2, 6, 7, 9), wherein the bitumen pad (11a to 11f) is glued to the wall section (2, 6, 7, 9) by means of at least one, in particular purely precisely one, thermally insulating adhesive layer, which wall section has a lower heat conductivity than the bitumen pad (11a to 11f), characterised in that the adhesive layer has micropores and that the portion of the micropores in the volume of the adhesive layer amounts to at least 80%, preferably at least 90%, particularly preferably at least 95%.
A method for automatically configuring a newly purchased user equipment device (504a, 504b) with content consumption material that is associated with a user, wherein the content consumption material includes at least one of a user profile setting, a device setting, a username, a password, and an application, the method comprising: receiving, from a service that facilitates purchase of the user equipment device (504a, 504b), purchase information and a user equipment device identifier wherein the purchase information includes at least one of a payment card number, a bank account number, a username, an identifier of an entity that is configured to provide funds for completing the purchase, and an address, and wherein the user equipment device identifier is at least one of a serial number of the user equipment device (504a, 504b), an IP address of the user equipment device (504a, 504b), a unique indicator of the user equipment device (504a, 504b), and a MAC address of the user equipment device (504a, 504b); querying a database (512a, 512b) of user account information to identify a user account based on the received purchase information, wherein the identified user account identifies the content consumption material that is associated with the user; and automatically transmitting to the user equipment device (504a, 504b), based on the user equipment device identifier, a communication that causes the user equipment device (504a, 504b) to be configured with the content consumption material identified by the user account. receiving, from a service that facilitates purchase of the user equipment device (504a, 504b), purchase information and a user equipment device identifier wherein the purchase information includes at least one of a payment card number, a bank account number, a username, an identifier of an entity that is configured to provide funds for completing the purchase, and an address, and wherein the user equipment device identifier is at least one of a serial number of the user equipment device (504a, 504b), an IP address of the user equipment device (504a, 504b), a unique indicator of the user equipment device (504a, 504b), and a MAC address of the user equipment device (504a, 504b); querying a database (512a, 512b) of user account information to identify a user account based on the received purchase information, wherein the identified user account identifies the content consumption material that is associated with the user; and automatically transmitting to the user equipment device (504a, 504b), based on the user equipment device identifier, a communication that causes the user equipment device (504a, 504b) to be configured with the content consumption material identified by the user account.
An air-conditioning apparatus comprising: a refrigerant circuit including a compressor, an indoor-side heat exchanger, and an outdoor-side heat exchanger, the compressor incorporating an electric motor; a drive circuit configured to drive the electric motor; a connection switching device configured to switch connection of stator windings of the electric motor between a first connection state and a second connection state higher in line-to-line voltage than the first connection state; and a controller configured to perform heating operation, perform defrosting operation for removing frost formed on the outdoor-side heat exchanger and cause the connection switching device to switch connection, characterized in that the controller is configured such that when the controller causes the connection switching device to switch the connection of the stator windings from the second connection state to the first connection state during the heating operation, the controller first causes the connection switching device to switch the connection of the stator windings from the second connection state to the first connection state, then performs the defrosting operation, and thereafter resumes the heating operation. a refrigerant circuit including a compressor, an indoor-side heat exchanger, and an outdoor-side heat exchanger, the compressor incorporating an electric motor; a drive circuit configured to drive the electric motor; a connection switching device configured to switch connection of stator windings of the electric motor between a first connection state and a second connection state higher in line-to-line voltage than the first connection state; and a controller configured to perform heating operation, perform defrosting operation for removing frost formed on the outdoor-side heat exchanger and cause the connection switching device to switch connection, the controller is configured such that when the controller causes the connection switching device to switch the connection of the stator windings from the second connection state to the first connection state during the heating operation, the controller first causes the connection switching device to switch the connection of the stator windings from the second connection state to the first connection state, then performs the defrosting operation, and thereafter resumes the heating operation.