mhurhangee/patent-ind-claim-en huggingface dataset:
A contact lens applicator container comprising at least one contact lens applicator film for picking up a contact lens and applying the contact lens to an eye, the contact lens applicator film comprising: a sterilised film; wherein at least a portion of at least one side of the film comprises an adhesive coating that is arranged for adhering to the surface of a finger such that, in use, when applying the contact lens to the eye a user can pick up the contact lens applicator film with the finger and subsequently pick up the contact lens using the finger protected by the contact lens applicator film ; wherein the contact lens applicator container comprises a recess having a base wall for housing the at least one applicator film ; and wherein the base wall is deformable so as to conform to the contour of the finger under the application of finger pressure. wherein the contact lens applicator container comprises a recess having a base wall for housing the at least one applicator film ; and wherein the base wall is deformable so as to conform to the contour of the finger under the application of finger pressure.
A system comprising: an electronic device comprising a processor and memory; a battery coupled to the electronic device; and an electro-adhesive layer included within a coupling between the battery and the electronic device, characterised in that the electro-adhesive layer is a material configured to chemically react to weaken a bond at an interface between the battery and the electronic device when a current of predetermined magnitude between a first electrode and a second electrode is directed through the electro-adhesive layer, the weakened bond facilitating separation of the battery from the electronic device. an electronic device comprising a processor and memory; a battery coupled to the electronic device; and an electro-adhesive layer included within a coupling between the battery and the electronic device,
A method of reducing coke formation on at least one surface of a fuel contacting gas turbine engine component exposed to a liquid fuel, said method comprising: - manufacturing a fuel contacting gas turbine engine component by applying a slurry composition that includes a powder including aluminum to the at least one surface , wherein the fuel contacting gas turbine engine component is formed by an additive manufacturing process; - heat treating the slurry composition to diffuse the aluminum into the at least one surface , wherein heat treating comprises forming a diffusion aluminide coating including a diffusion sublayer on the at least one surface and an additive sublayer on the diffusion sublayer ; and - removing the additive sublayer of the diffusion aluminide coating with at least one aqueous solution such that the diffusion sublayer and the at least one surface are substantially unaffected, wherein the diffusion layer facilitates preventing coke formation on the at least one surface , wherein the diffusion aluminide coating has a thickness of between 25.5 to 200 μm, the diffusion sublayer has a thickness in a range between 0.5 μm and 50 μm, and the additive sublayer has a thickness in a range between 25 μm and 150 μm exposing the at least one surface to the liquid fuel. - manufacturing a fuel contacting gas turbine engine component by applying a slurry composition that includes a powder including aluminum to the at least one surface , wherein the fuel contacting gas turbine engine component is formed by an additive manufacturing process; - heat treating the slurry composition to diffuse the aluminum into the at least one surface , wherein heat treating comprises forming a diffusion aluminide coating including a diffusion sublayer on the at least one surface and an additive sublayer on the diffusion sublayer ; and - removing the additive sublayer of the diffusion aluminide coating with at least one aqueous solution such that the diffusion sublayer and the at least one surface are substantially unaffected, wherein the diffusion layer facilitates preventing coke formation on the at least one surface , wherein the diffusion aluminide coating has a thickness of between 25.5 to 200 μm, the diffusion sublayer has a thickness in a range between 0.5 μm and 50 μm, and the additive sublayer has a thickness in a range between 25 μm and 150 μm exposing the at least one surface to the liquid fuel.
A multilayer film for adhesion to a fabric, the multilayer film comprising: an adhesive layer being on a side of the multilayer film to be adhered to the fabric ; and a barrier layer bonded to the adhesive layer , wherein each of the adhesive layer and the barrier layer includes a thermoplastic polyester elastomer, and a melting point of the barrier layer is higher than a melting point of the adhesive layer ; wherein a ratio value of a content ratio of a soft segment in the thermoplastic polyester elastomer in the adhesive layer with respect to a content ratio of a soft segment in the thermoplastic polyester elastomer in the barrier layer is 1.2 to 5. an adhesive layer being on a side of the multilayer film to be adhered to the fabric ; and a barrier layer bonded to the adhesive layer , wherein each of the adhesive layer and the barrier layer includes a thermoplastic polyester elastomer, and a melting point of the barrier layer is higher than a melting point of the adhesive layer ; wherein a ratio value of a content ratio of a soft segment in the thermoplastic polyester elastomer in the adhesive layer with respect to a content ratio of a soft segment in the thermoplastic polyester elastomer in the barrier layer is 1.2 to 5.
Method for producing a forming die for pressure-forming workpieces, in which a die core of the forming die is provided at the outer side with a core reinforcement in the form of a reinforcement body made of a fibre-reinforced plastics material in such a manner that the reinforcement body arranged on the die core surrounds the die core in a peripheral direction of the die core around a working movement axis of the die core , along which working movement axis a workpiece receiving member of the die core extends inside the die core , wherein the reinforcement body comprises a plastics matrix and a reinforcing fibre structure which is embedded in the plastics matrix and which extends in the peripheral direction of the die core wherein the reinforcement body is applied to the die core so as to produce a radial pretensioning of the reinforcement body against the die core such that the core reinforcement which is arranged on the die core is radially pretensioned transversely to the working movement axis against the die core , and wherein the reinforcement body is applied to the die core so as to produce a radial pretensioning of the reinforcement body against the die core by a core cross-section (QM) of the die core which extends perpendicularly to the working movement axis being decreased to an assembly core cross-section with respect to a core cross-section for use which is present in a state for use of the die core , characterised in that the reinforcement body is applied to the die core so as to produce a radial pretensioning of the reinforcement body against the die core • by the fibre-reinforced plastics material in the non-hardened state being applied to the outer side of the die core which has the assembly core cross-section in such a manner that the reinforcing fibre structure of the fibre-reinforced plastics material extends in the peripheral direction of the die core which has the assembly core cross-section and • by the core cross-section (QM) of the die core being increased to the core cross-section for use after the hardening of the fibre-reinforced plastics material applied to the outer side of the die core . • by the fibre-reinforced plastics material in the non-hardened state being applied to the outer side of the die core which has the assembly core cross-section in such a manner that the reinforcing fibre structure of the fibre-reinforced plastics material extends in the peripheral direction of the die core which has the assembly core cross-section and • by the core cross-section (QM) of the die core being increased to the core cross-section for use after the hardening of the fibre-reinforced plastics material applied to the outer side of the die core .
Heat transfer device component of a temperature control system of an electrical energy store , the heat transfer device component being composed of a carrier material and at least two layers , of which a first layer is electrically insulating and a second layer enables temperature control, that is, cooling and heating of the electrical energy store , wherein the carrier material has fibre-reinforced plastic, and/or the carrier material is designed as an organic sheet, a fibre-reinforced tape/organic sheet or a plastics laminate having integrated metal layers , characterised in that - the second layer has an electrically operable heating device , and - the second layer has fluid ducts through which a heat transfer device medium can flow, - the heat transfer device component is produced by lamination, coating, pressing, pultrusion, sintering, thermoforming, injection moulding or blow extrusion. - the second layer has an electrically operable heating device , and - the second layer has fluid ducts through which a heat transfer device medium can flow, - the heat transfer device component is produced by lamination, coating, pressing, pultrusion, sintering, thermoforming, injection moulding or blow extrusion.
A passive matrix display device using a semiconductor light emitting device comprising: a substrate ; a plurality of first electrodes disposed on the substrate ; a light emitting device array comprising a plurality of semiconductor light emitting devices electrically connected to the first electrodes , constituting individual pixels,; a plurality of second electrodes electrically connected to the semiconductor light emitting devices ; and a wavelength converting layer disposed on the semiconductor light emitting devices , characterized in that: each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer , an active layer disposed on the n-type semiconductor layer , a p-type semiconductor layer disposed on the active layer , a p-type electrode , and a n-type electrode , and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof. a substrate ; a plurality of first electrodes disposed on the substrate ; a light emitting device array comprising a plurality of semiconductor light emitting devices electrically connected to the first electrodes , constituting individual pixels,; a plurality of second electrodes electrically connected to the semiconductor light emitting devices ; and a wavelength converting layer disposed on the semiconductor light emitting devices , characterized in that: each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer , an active layer disposed on the n-type semiconductor layer , a p-type semiconductor layer disposed on the active layer , a p-type electrode , and a n-type electrode , and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof. each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer , an active layer disposed on the n-type semiconductor layer , a p-type semiconductor layer disposed on the active layer , a p-type electrode , and a n-type electrode , and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof.
An electric roofing torch comprising: a tubular body having an upstream end and a downstream end ; a fan unit mounted in the tubular body to drive a flow of air through the tubular body; and a heater tube comprising a heater matrix , the heater tube being mounted in the tubular body to heat the flow of air as it passes through the tubular body, wherein the fan unit is an electric vaneaxial fan which is mounted upstream of the heater tube, that comprises a fan housing and a fan core , the fan core comprising a stator core and an impeller , the impeller being arranged to rotate about a central axis of the electric roofing torch; wherein the tubular body comprises a double-walled structure comprising an inner tube and an outer tube , the inner tube housing the heater tube and providing a conduit for the flow of air between an upstream end of the inner tube and a downstream end of the inner tube; and wherein the fan housing provides a fan outlet that is arranged within the inner tube upstream of the heater tube; and characterised in that the fan housing provides a fan inlet which protrudes beyond an upstream end of the outer tube. a tubular body having an upstream end and a downstream end ; a fan unit mounted in the tubular body to drive a flow of air through the tubular body; and a heater tube comprising a heater matrix , the heater tube being mounted in the tubular body to heat the flow of air as it passes through the tubular body, wherein the fan unit is an electric vaneaxial fan which is mounted upstream of the heater tube, that comprises a fan housing and a fan core , the fan core comprising a stator core and an impeller , the impeller being arranged to rotate about a central axis of the electric roofing torch; wherein the tubular body comprises a double-walled structure comprising an inner tube and an outer tube , the inner tube housing the heater tube and providing a conduit for the flow of air between an upstream end of the inner tube and a downstream end of the inner tube; and wherein the fan housing provides a fan outlet that is arranged within the inner tube upstream of the heater tube; and characterised in that the fan housing provides a fan inlet which protrudes beyond an upstream end of the outer tube.
A method for producing a urolithin represented by formula , comprising step (a): converting a urolithin represented by formula , in a solution with a microorganism belonging to the genus Clostridium to the urolithin represented by formula , wherein R 1 to R 7 each represent a hydroxyl group, a hydrogen atom, or a methoxy group, and at least one of R 1 to R 7 represents a hydroxy group.
Method for manufacturing an optical element having at least one functional region, comprising the steps of: - forming a three-dimensional structure of the optical element using a 3D printer such that the three-dimensional structure has at least one microfluidic cavity for receiving a functional substance ; - filling the at least one microfluidic cavity with the functional substance to form the at least one functional region, wherein the method is characterised by the step of - curing and/or drying the functional substance . - forming a three-dimensional structure of the optical element using a 3D printer such that the three-dimensional structure has at least one microfluidic cavity for receiving a functional substance ; - filling the at least one microfluidic cavity with the functional substance to form the at least one functional region, wherein the method is characterised by the step of - curing and/or drying the functional substance .
A stimulation device in a piggery, wherein the device is for use in a method of preventing or terminating tail biting in pigs, the stimulation device being made of natural fibers and is fixed to the ceiling or the stall structure of the piggery by a fixing member for keeping the stimulation device in place regardless of the pull caused by the pigs, characterized in that the stimulation device contains ammonium chloride which is absorbed into the stimulation device from a solution where it is present at 50-375 g/l of water.
A portable electronic device , comprising: an enclosure at least partially defining an internal cavity ; a display cover coupled with the enclosure and defining an opening ; a sensor assembly carried by the enclosure and at least partially disposed in the internal cavity , comprising: a sensor cover disposed within the opening ; a solid-state sensor comprising a first capacitive layer and a second capacitive layer , the solid-state sensor configured to provide a signal in response to a touch input on the sensor cover moving the sensor cover and causing a reduction in distance (d) between the first capacitive layer and the second capacitive layer ; a fingerprint sensor positioned between the sensor cover and the solid-state sensor ; and a haptic actuator configured to provide, based on the signal, a vibration that mimics a mechanical button press. an enclosure at least partially defining an internal cavity ; a display cover coupled with the enclosure and defining an opening ; a sensor assembly carried by the enclosure and at least partially disposed in the internal cavity , comprising: a sensor cover disposed within the opening ; a solid-state sensor comprising a first capacitive layer and a second capacitive layer , the solid-state sensor configured to provide a signal in response to a touch input on the sensor cover moving the sensor cover and causing a reduction in distance (d) between the first capacitive layer and the second capacitive layer ; a fingerprint sensor positioned between the sensor cover and the solid-state sensor ; and a sensor cover disposed within the opening ; a solid-state sensor comprising a first capacitive layer and a second capacitive layer , the solid-state sensor configured to provide a signal in response to a touch input on the sensor cover moving the sensor cover and causing a reduction in distance (d) between the first capacitive layer and the second capacitive layer ; a fingerprint sensor positioned between the sensor cover and the solid-state sensor ; and
A blood treatment device with at least one extracorporeal blood circuit with a dialyzer and with at least one centrifugal pump means , wherein furthermore a monitoring means is provided, by means of which the flow resistance of the extracorporeal circuit at start-up of the extracorporeal circuit is determined in an initial test with short-circuited patient lines, wherein the flow resistance is at least partly determined with reference to the flow (Q) in at least one portion of the extracorporeal blood circuit and the speed (n) of the centrifugal pump means, and wherein the extracorporeal blood circuit is at least partly formed by a disposable cassette, wherein in a first step the flow (Q1) in the at least one portion of the extracorporeal blood circuit is determined at a first speed (n1) by means of the monitoring means and in a second step the flow (Q2) in the at least one portion of the extracorporeal blood circuit is determined at a second speed (n2), wherein with reference to these values (Q1, Q2; n1, n2) the ratio of the differential values is calculated as a measure for the flow resistance (dQ/dn), and wherein by means of the monitoring means a faulty condition of the extracorporeal blood circuit is detected when the measure for the flow resistance (dQ/dn) leaves a predefined range and/or exceeds or falls below a predefined threshold value, wherein the treatment is enabled when the measure for the flow resistance (dQ/dn) lies within specified limit values, and, if this is not the case, an error message is issued.
A process for the production of propylene glycol from a lactate ester comprising supplying a feed comprising a C 3-6 alkyl lactate ester, wherein the feed is contacted with a stream of hydrogen-containing gas and subjected to hydrogenation in the vapour-phase in the presence of a catalyst at a temperature of from 130°C to 185°C, a pressure of from 20 bar to 60 bar, and a weight hourly space velocity greater than 0.3 h -1 , and wherein the catalyst is a reduced copper catalyst selected from copper alumina, optionally comprising manganese, copper chromite, copper zinc oxide and Raney copper.
A scroll compressor , comprising: paired scroll members that include a compression chamber to compress working fluid; a housing that houses the paired scroll members; a discharge cylinder that discharges the compressed working fluid from the compression chamber and is rotated around an axis with respect to the housing ; a bearing that rotatably supports the discharge cylinder with respect to the housing ; and a seal member that is located between the discharge cylinder and the housing , wherein a lubricant that lubricates the seal member is enclosed in a space formed between the bearing and the seal member , characterised in that the seal member includes a seal lip portion , the seal lip portion includes a lip front end part (16a1) that comes into contact with an outer peripheral surface (X) of the discharge cylinder , an annular spring (16a2) is provided on outer peripheral side of the seal lip portion , and the lip front end part (16a1) is pressed against an entire circumference of the outer peripheral surface of the discharge cylinder . paired scroll members that include a compression chamber to compress working fluid; a housing that houses the paired scroll members; a discharge cylinder that discharges the compressed working fluid from the compression chamber and is rotated around an axis with respect to the housing ; a bearing that rotatably supports the discharge cylinder with respect to the housing ; and a seal member that is located between the discharge cylinder and the housing , wherein a lubricant that lubricates the seal member is enclosed in a space formed between the bearing and the seal member , characterised in that the seal member includes a seal lip portion , the seal lip portion includes a lip front end part (16a1) that comes into contact with an outer peripheral surface (X) of the discharge cylinder , an annular spring (16a2) is provided on outer peripheral side of the seal lip portion , and the lip front end part (16a1) is pressed against an entire circumference of the outer peripheral surface of the discharge cylinder .