mhurhangee/patent-ind-claim-en huggingface dataset:
A skin electrode for stimulation comprising; a superporous hydrophilic material having a first state and a second expanded state, in the second state the superporous hydrophilic material is breakable to at least partly enclose at least one hair, and an electrode surface for electrically stimulating the skin by driving current from the electrode surface through the hydrophilic material to the skin comprising the at least one hair, characterised in that the superporous hydrophilic material comprises: 45.1% polymerized acrylamide, 1.5% polymerized acrylic acid, 32.6% polymerized sulfopropylacrylate potassium salt, 0.8% polymerized methylene bisacrylamide, and 20.0% inter-penetrating network former crosscarmelose sodium salt; or in that the superporous hydrophilic material comprises: 50.1% polymerized acrylamide, 1.7% polymerized acrylic acid, 36.2% polymerized sulfopropylacrylate potassium salt, 0.9% polymerized methylene bisacrylamide, and 11.1% inter-penetrating network former crosscarmelose sodium salt; or in that the superporous hydrophilic material comprises: 53.1% polymerized acrylamide, 1.8% polymerized acrylic acid, 38.3% polymerized sulfopropylacrylate potassium salt, 0.9% polymerized methylene bisacrylamide, and 5.9% inter-penetrating network former crosscarmelose sodium salt, 45.1% polymerized acrylamide, 1.5% polymerized acrylic acid, 32.6% polymerized sulfopropylacrylate potassium salt, 0.8% polymerized methylene bisacrylamide, and 20.0% inter-penetrating network former crosscarmelose sodium salt; or in that 50.1% polymerized acrylamide, 1.7% polymerized acrylic acid, 36.2% polymerized sulfopropylacrylate potassium salt, 0.9% polymerized methylene bisacrylamide, and 11.1% inter-penetrating network former crosscarmelose sodium salt; or in that 53.1% polymerized acrylamide, 1.8% polymerized acrylic acid, 38.3% polymerized sulfopropylacrylate potassium salt, 0.9% polymerized methylene bisacrylamide, and 5.9% inter-penetrating network former crosscarmelose sodium salt,
A method for recovering a first refrigerant (FA) contained in an air conditioning system of a vehicle ; the method comprising the steps of: a) arranging a refrigerant recovery tank that comprises a pair of closed containers , which are arranged one inside the other; c) hydraulically connecting a first container of said pair of containers to said air conditioning system ; e) supplying a second refrigerant (FB) to a second container of said pair of containers ; g) cooling the second refrigerant (FB) in said second container for absorbing heat from the first refrigerant (FA) contained in said first container so as to cause a pressure reduction of the first refrigerant (FA) in said first container until reaching a first pre-set pressure (PA3(t)); i) said first pre-set pressure (PA3(t)) of the first refrigerant (FA) in said first container being lower than the pressure (PA1(t)) of the refrigerant (FA) contained in said air conditioning system and causing the transfer of the refrigerant (FA) from the air conditioning system to said first container, the method is characterized by the fact that said step g) of cooling the second refrigerant (FB) comprises the step of carrying out a suction in said second container so as to reduce the pressure (PB2(t)) of the second refrigerant (FB) contained in said second container itself, until reaching a second pre-set pressure (PB3(t)). a) arranging a refrigerant recovery tank that comprises a pair of closed containers , which are arranged one inside the other; c) hydraulically connecting a first container of said pair of containers to said air conditioning system ; e) supplying a second refrigerant (FB) to a second container of said pair of containers ; g) cooling the second refrigerant (FB) in said second container for absorbing heat from the first refrigerant (FA) contained in said first container so as to cause a pressure reduction of the first refrigerant (FA) in said first container until reaching a first pre-set pressure (PA3(t)); i) said first pre-set pressure (PA3(t)) of the first refrigerant (FA) in said first container being lower than the pressure (PA1(t)) of the refrigerant (FA) contained in said air conditioning system and causing the transfer of the refrigerant (FA) from the air conditioning system to said first container,
A shelf wedge for displaying products, the shelf wedge comprising: a base section comprising a first end and a second end that are opposite ends of the base section from each other, the first end defining a front face and having a height greater than the second end ; and a back section comprising a body movably connected to the second end of the base section , the back section further comprises a first projection that extends from the body of the back section , the second end of the base section comprises a first channel , at least a portion of the first projection has a size and a shape complementary to at least a portion of the first channel , the base section is configured to slide on the first projection toward and away from the body of the back section , the base section comprises an inner wall that forms a side of the first channel , the back section comprises a second projection , and the inner wall of the base section inserts between the first and second projections , characterized in that the base section is a wedge-shaped section comprising first and second side walls , and the first side wall forms a side of the first channel opposite to the side of the first channel formed by the inner wall , the first and second side walls having a continuously decreasing height as they extend from the front face to the second end . a base section comprising a first end and a second end that are opposite ends of the base section from each other, the first end defining a front face and having a height greater than the second end ; and a back section comprising a body movably connected to the second end of the base section , the back section further comprises a first projection that extends from the body of the back section , the second end of the base section comprises a first channel , at least a portion of the first projection has a size and a shape complementary to at least a portion of the first channel , the base section is configured to slide on the first projection toward and away from the body of the back section , the base section comprises an inner wall that forms a side of the first channel , the back section comprises a second projection , and the inner wall of the base section inserts between the first and second projections , characterized in that the base section is a wedge-shaped section comprising first and second side walls , and the first side wall forms a side of the first channel opposite to the side of the first channel formed by the inner wall , the first and second side walls having a continuously decreasing height as they extend from the front face to the second end .
Motorized strength training machine comprising an electric motor unit , an axle and a first user force input element , said electric motor unit comprising an electric motor , said electric motor being connected to said axle such that rotation of the electric motor drives said axle and rotation of the axle drives the electric motor, and said first user force input element being connected to said axle such that rotation of said axle displaces the first user force input element and displacement of said first user force input element rotates the axle, said machine further comprising a mechanical range limiting mechanism comprising displaceable first and second rotation limiting stop elements which can be mechanically locked at different angular locations around the axle to mechanically limit the range of rotational motion of the axle, characterized in that the mechanical range limiting mechanism comprises a motorized displacement mechanism which is arranged to displace the first and/or second rotation limiting end stops angularly around the axle based on inputs from a controller.
A user equipment, UE, control method performed by a network access node for UE operable to communicate with the network access node in a wireless communications network , the method comprising: receiving a mobility measure, from a UE, that indicates whether the UE is a high mobility UE; assigning an operational parameter at the network access node to the UE at attachment of the UE to the wireless communications network via the network access node on the basis of said mobility measure, the operational parameter selected according to a predetermined distribution for mapping the operational parameter to a UE, wherein the operational parameter is an access group suitable for managing UE access to the network access node . receiving a mobility measure, from a UE, that indicates whether the UE is a high mobility UE; assigning an operational parameter at the network access node to the UE at attachment of the UE to the wireless communications network via the network access node on the basis of said mobility measure, the operational parameter selected according to a predetermined distribution for mapping the operational parameter to a UE, wherein the operational parameter is an access group suitable for managing UE access to the network access node .
Process comprising pyrolysing a material consisting of plastic such as polyethylene (PE), polypropylene (PP), polystyrene (PS), polyethylene terephthalate (PET), polyvinyl chloride (PVC) and mixtures thereof in the presence of end-of-life tyres (PFU), or the solid pyrolysis residues thereof or other carbon materials, by irradiation with microwaves (MW), to obtain pyrolysis oils having a content greater than 50% by weight of hydrocarbons distillable between 20 and 250 °C and having a sulphur content less than 1% by weight, said process characterised in that : the delivery of the MW is at such a power level as to obtain a mean percentage pyrolysis rate (V M% ) of less than, or equal to, 1.0%/min and/or a mean heating rate (V M risc ) of less than, or equal to, 10 °C/min, in case of pyrolysis induced by PFU; or delivery of the MW at such a power level as to obtain a mean pyrolysis rate (V M% ) of less than or equal to 2.0%/min and/or a mean heating rate (V M risc ) of less than or equal to 15 °C/min, in the case of pyrolysis induced by PFU pyrolysis residues.
A set for alleviating the appearance of scar tissue, said system comprising two separate compounds; a first compound having properties that perform skin regeneration; and a second compound having properties that provide a physical barrier adapted to protect scar tissue by insulating it from ambient air while maintaining and protecting said first compound characterized in that said second compound is PULLULAN wehich is an extracellular bacterial polysaccharide; said PULLULAN is formed as a powder that is soluble in water and is adapted to form a film that can be applied as a layer over said first compound when applied to the skin of a user.
A method comprising: receiving, by a remote provider , an autofill request for the application, wherein the autofill request comprises a subset of content displayed by an application on a user interface UI of a user device ; in response to receiving the autofill request , determining, by the remote provider , one or more suggested user values ; transmitting, by the remote provider , the one or more suggested user values and a field classification request for a text input field displayed by the application on the UI; and receiving, by the remote provider , a response to the field classification request , wherein the response comprises a similarity metric for at least one of the one or more suggested user values , wherein the similarity metric is based on a comparison of a user input value in the text input field to the at least one of the one or more suggested user values . receiving, by a remote provider , an autofill request for the application, wherein the autofill request comprises a subset of content displayed by an application on a user interface UI of a user device ; in response to receiving the autofill request , determining, by the remote provider , one or more suggested user values ; transmitting, by the remote provider , the one or more suggested user values and a field classification request for a text input field displayed by the application on the UI; and receiving, by the remote provider , a response to the field classification request , wherein the response comprises a similarity metric for at least one of the one or more suggested user values , wherein the similarity metric is based on a comparison of a user input value in the text input field to the at least one of the one or more suggested user values .
A sensor for sensing a predetermined particle in a fluid , wherein the sensor comprises (i) an electrode and (ii) a recognition element functionally coupled to the electrode ; wherein the electrode comprises an electrode face configured accessible to the fluid , to the predetermined particle in the fluid , and to a redox mediator in the fluid ; wherein the recognition element is configured for at least temporarily selectively binding with the predetermined particle , and configured to limit access of the redox mediator to the electrode face during the binding of the predetermined particle with the recognition element , wherein: - the predetermined particle comprises a biological particle selected from the group comprising an extracellular vesicle (EV), a tumor-derived extracellular vesicle (tdEV), a virus, a DNA-containing particle, a particle modified with DNA, an RNA-containing particle, a particle modified with RNA, a platelet, an allergen, a bacterium, a peptide, a polypeptide, a protein, a lipoprotein, a hormone, a biopolymer, and an enzyme; - the recognition element comprises a biological recognition element for the predetermined particle ; - the recognition element is configured at the electrode face ; and - a characteristic dimension (d) of the electrode face is selected from the range of 30-1500 nm and a size of the electrode face is configured for detecting the predetermined particle on a single particle level, wherein the characteristic dimension (d) of the electrode face is selected to match the predetermined particle , and wherein the characteristic dimension (d) is selected from the group consisting of a length, a width, and an equivalent circular diameter; and wherein the sensor comprises an array of electrodes , wherein each electrode is functionally coupled to a respective recognition element , wherein the array comprises at least two electrodes , wherein each of the electrodes is configured for individually sensing a predetermined particle . - the predetermined particle comprises a biological particle selected from the group comprising an extracellular vesicle (EV), a tumor-derived extracellular vesicle (tdEV), a virus, a DNA-containing particle, a particle modified with DNA, an RNA-containing particle, a particle modified with RNA, a platelet, an allergen, a bacterium, a peptide, a polypeptide, a protein, a lipoprotein, a hormone, a biopolymer, and an enzyme; - the recognition element comprises a biological recognition element for the predetermined particle ; - the recognition element is configured at the electrode face ; and - a characteristic dimension (d) of the electrode face is selected from the range of 30-1500 nm and a size of the electrode face is configured for detecting the predetermined particle on a single particle level, wherein the characteristic dimension (d) of the electrode face is selected to match the predetermined particle , and wherein the characteristic dimension (d) is selected from the group consisting of a length, a width, and an equivalent circular diameter; and
A method of modulating flow of a fluid in a chromatography system including a laminated wafer microfluidic device fluidically coupled to a first switching valve and a second switching valve , the method comprising independently actuating the first switching valve and the second switching valve between a first position and a second position, the first position of the first switching valve permitting fluid flow from a switching gas source to a port of the laminated wafer microfluidic device , and to a first internal microchannel formed from lamination of the wafers of the microfluidic device , the first position of the second switching valve permitting fluid flow from the switching gas source to another port of the laminated wafer microfluidic device , and to a second internal microchannel formed from lamination of the wafers of the microfluidic device , in which the actuation of the first switching valve and the second switching valve is configured to provide three-way switching using the microfluidic device .
System for starting the flight of power wing airfoils , in particular for a wind generator , comprising: - at least one wing profile , operatively connected through control tie-rods , to winches or other control mechanisms of a flight of said wing profile ; - at least two autonomous transporting 'flying vectors, namely carriers , adapted to be connected through disengageable connecting means to the at least one wing profile and to transport in flight said wing profile , said disengageable connecting means being composed of at least one dragging cable having a first end connected to said autonomous transporting flying carriers and a second opposite end connected to said first end equipped with at least one actuatable engaging/disengaging device adapted to be engaged/disengaged to and from a respective engagement point arranged on said wing profile , a starting of the flight of said wing profile being assisted by a combined action of two or more of said autonomous transporting flying carriers , characterized in that said actuatable engaging/disengaging device is at least one electromagnetic hook and said engagement point arranged on said wing profile is a related element made of metallic material adapted to be magnetically connected to said electromagnetic hook; and in that said wing profile comprises at least one measuring system , preferably of an ultrasound type , adapted to high frequency triangulate the relative positions of said autonomous transporting flying carriers and of said wing profile . - at least one wing profile , operatively connected through control tie-rods , to winches or other control mechanisms of a flight of said wing profile ; - at least two autonomous transporting 'flying vectors, namely carriers , adapted to be connected through disengageable connecting means to the at least one wing profile and to transport in flight said wing profile , said disengageable connecting means being composed of at least one dragging cable having a first end connected to said autonomous transporting flying carriers and a second opposite end connected to said first end equipped with at least one actuatable engaging/disengaging device adapted to be engaged/disengaged to and from a respective engagement point arranged on said wing profile , a starting of the flight of said wing profile being assisted by a combined action of two or more of said autonomous transporting flying carriers ,
Method for unloading bulk goods from a laterally open large container using an unloading device with at least one tilting unit and a platform , wherein the tilting unit and the platform have a common rotational axis , in which - a laterally open large container , which is filled with at least one bulk good , is positioned on the tilting unit , - the platform will be and/or is flipped up in such a way that the platform closes the opening side of the large container , - the tilting unit , together with the large container located thereon, and the platform closing the opening side of the large container , is tilted about the common rotational axis in such a way that the large container is positioned on its opening side , wherein the at least one bulk good is deposited on the platform , and - the tilting unit , together with the large container , is tilted back, wherein the at least one bulk good remains on the platform , characterised in that the large container is positioned on the tilting unit in such a way that the opening side of the large container rests against a frame-shaped stop of the tilting unit . - a laterally open large container , which is filled with at least one bulk good , is positioned on the tilting unit , - the platform will be and/or is flipped up in such a way that the platform closes the opening side of the large container , - the tilting unit , together with the large container located thereon, and the platform closing the opening side of the large container , is tilted about the common rotational axis in such a way that the large container is positioned on its opening side , wherein the at least one bulk good is deposited on the platform , and - the tilting unit , together with the large container , is tilted back, wherein the at least one bulk good remains on the platform ,
A barrier film comprising: a base layer (A); and a barrier layer (B) located on one side of the base layer and including one or more cured layers of polysilazane layers having a surface (S) of a concavo-convex structure formed by protruding particles, wherein the polysilazane layer comprises particles having a diameter larger than the height of the polysilazane layer, or wherein the polysilazane layer comprises particles having a diameter smaller than the height of the polysilazane layer, where the particles exist in a floating state on the surface of the polysilazane layer. a base layer (A); and a barrier layer (B) located on one side of the base layer and including one or more cured layers of polysilazane layers having a surface (S) of a concavo-convex structure formed by protruding particles, wherein the polysilazane layer comprises particles having a diameter larger than the height of the polysilazane layer, or wherein the polysilazane layer comprises particles having a diameter smaller than the height of the polysilazane layer, where the particles exist in a floating state on the surface of the polysilazane layer.
A viscous dispersion liquid comprising: a dispersion medium including water; and titanium dioxide nanoparticles as the main component of semiconductor particles contained in the viscous dispersion liquid; wherein the viscous dispersion liquid has a solid content concentration of 30% by mass to 60% by mass, the titanium dioxide nanoparticles include anatase crystalline titanium dioxide nanoparticles having an average particle diameter of 10 nm to 100 nm, and brookite crystalline titanium dioxide nanoparticles having an average particle diameter of 5 nm to 15 nm, the viscous dispersion liquid has a viscosity of 10 Pa·s to 500 Pa·s at 25°C, and the amount of organic materials having a boiling point of 150 °C or higher at a pressure of 1 atm is 1% by mass or less in terms of solid content, characterized in that the dispersion medium includes water in a proportion of 95 % by mass or more. a dispersion medium including water; and titanium dioxide nanoparticles as the main component of semiconductor particles contained in the viscous dispersion liquid; wherein