mhurhangee/patent-ind-claim-en huggingface dataset:
A method of making at least one headgear section for a headgear for use in positioning a respiratory mask on a patient's face, comprising: ultrasonically welding together at least a headgear component and a pocket fabric to form an ultrasonic welding joint , thereby forming the at least one headgear section with a pocket between the headgear component and the pocket fabric , wherein the headgear component includes an outer textile and an inner textile and wherein a three-dimensional spacer fabric is positioned between the outer textile and the inner textile , wherein the headgear component is ultrasonically die cut and welded to round its edges. ultrasonically welding together at least a headgear component and a pocket fabric to form an ultrasonic welding joint , thereby forming the at least one headgear section with a pocket between the headgear component and the pocket fabric , wherein the headgear component includes an outer textile and an inner textile and wherein a three-dimensional spacer fabric is positioned between the outer textile and the inner textile , wherein the headgear component is ultrasonically die cut and welded to round its edges.
A printing apparatus comprising: an ink transfer element comprising: a surface , the surface being an outside surface of a porous layer and being configured to, when an ink comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; an ink supply apparatus configured to supply the ink to the ink transfer element; and at least one further ink transfer element arranged to receive the more solid ink from the surface for applying the more solid ink to a print medium . an ink transfer element comprising: a surface , the surface being an outside surface of a porous layer and being configured to, when an ink comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; a surface , the surface being an outside surface of a porous layer and being configured to, when an ink comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; an ink supply apparatus configured to supply the ink to the ink transfer element; and at least one further ink transfer element arranged to receive the more solid ink from the surface for applying the more solid ink to a print medium .
Movement device having a position determination system , comprising a first assembly with a first movement surface and a separate second assembly with a second movement surface , which is arranged opposite the first movement surface , wherein the second assembly is movable relative to the first assembly , wherein the first assembly comprises a large number of planar first field interaction means , which are distributed flat over the first movement surface and arranged parallel to the latter, wherein they each define a first interaction surface , wherein the second assembly comprises a large number of second field interaction means , wherein the first and the second field interaction means (23; 43) can be brought into electromagnetic interaction, wherein, in each case, a coupling mediated via the corresponding field can be measured, wherein these couplings are taken into account during the determination of the relative position between the first and second assembly (20; 40), wherein the second field interaction means are each of planar design, wherein they are distributed flat over the second movement surface and arranged parallel to the latter, wherein they each define a second interaction surface , characterized in that the first assembly is immovable, wherein the second interaction surfaces are designed to be larger than the first interaction surfaces .
Process for thermal cracking of a feedstock of plastic materials, in particular waste materials, comprising the steps of melting the feedstock, conveying melted feedstock in a pyrolysis chamber , where said melted feedstock is heated in a substantially oxygen purged environment to convert it into pyrolysis gases, said process further comprising the steps of: • driving pyrolysis gases from the pyrolysis chamber into a tray reflux column comprising a partial condenser at its upper extremity and valve trays comprising valves covered with caps , • returning pyrolysis gases condensed in the tray reflux column into the pyrolysis chamber , • distilling pyrolysis gases exiting the partial condenser of the tray reflux column, to provide one or more fuel products. • driving pyrolysis gases from the pyrolysis chamber into a tray reflux column comprising a partial condenser at its upper extremity and valve trays comprising valves covered with caps , • returning pyrolysis gases condensed in the tray reflux column into the pyrolysis chamber , • distilling pyrolysis gases exiting the partial condenser of the tray reflux column, to provide one or more fuel products.
A bottle comprising: - a flexible main part with an inner part for receiving a liquid therein, wherein the main part includes an upper part and a lower part ; - an opening part located in the upper part of the main part , which is intended for receiving of the liquid in the inner part of the main part and for discharging the liquid from the inner part of the main part ; - a closure part above the opening part to restrict the receiving and discharging of the liquid; characterized in that a strap is embedded in the main part such that the upper part , along with the opening part and the closure part , can be bent and secured behind the strap ; or a pocket is embedded in the main part such that the upper part , along with the opening part and the closure part , can be bent and hidden in the pocket . - a flexible main part with an inner part for receiving a liquid therein, wherein the main part includes an upper part and a lower part ; - an opening part located in the upper part of the main part , which is intended for receiving of the liquid in the inner part of the main part and for discharging the liquid from the inner part of the main part ; - a closure part above the opening part to restrict the receiving and discharging of the liquid; characterized in that a strap is embedded in the main part such that the upper part , along with the opening part and the closure part , can be bent and secured behind the strap ; or a pocket is embedded in the main part such that the upper part , along with the opening part and the closure part , can be bent and hidden in the pocket .
A component manufacturing method comprising: immersing an unprocessed component in a fluid , the unprocessed component having a hole that has an opening in an outer surface of the unprocessed component ; creating a flow of the fluid such that air bubbles resulting from laser peening performed by irradiating an inner wall of the hole of the unprocessed component with a laser beam in the fluid flow along the hole ; setting an irradiation area of the laser beam in an inner surface of the hole ; and in the fluid of which the flow has been created, irradiating the irradiation area with the laser beam , characterized in that the irradiation area is irradiated with the laser beam from a side of the outer surface through the opening . immersing an unprocessed component in a fluid , the unprocessed component having a hole that has an opening in an outer surface of the unprocessed component ; creating a flow of the fluid such that air bubbles resulting from laser peening performed by irradiating an inner wall of the hole of the unprocessed component with a laser beam in the fluid flow along the hole ; setting an irradiation area of the laser beam in an inner surface of the hole ; and in the fluid of which the flow has been created, irradiating the irradiation area with the laser beam , characterized in that the irradiation area is irradiated with the laser beam from a side of the outer surface through the opening .
Method for the electrical characterization of a photovoltaic cell of a photovoltaic module (Mi), said photovoltaic module including a plurality of photovoltaic cells connected to one another and one or more bypass diodes, each bypass diode being configured to bypass a submodule formed of one or more photovoltaic cells of said photovoltaic module, including steps of: - Obtaining the irradiance received by said photovoltaic module, - Obtaining a temperature of each photovoltaic cell of a first submodule of said photovoltaic module, - Comparing said temperature obtained for each photovoltaic cell of the first submodule with a reference temperature (Tref), - Determining the state of each photovoltaic cell of the first submodule between a healthy state, in which its temperature is equal to the reference temperature, and a faulty state, in which its temperature is different from said reference temperature, - Estimating the I-V curve associated with a first photovoltaic cell of said first submodule, by searching in a database of I-V curves, taking into account: ∘ The healthy state or the faulty state of said first photovoltaic cell; ∘ The healthy state or the faulty state of all of the other photovoltaic cells of the first submodule; ∘ The electric power supplied by each photovoltaic cell of the first submodule. - Obtaining the irradiance received by said photovoltaic module, - Obtaining a temperature of each photovoltaic cell of a first submodule of said photovoltaic module, - Comparing said temperature obtained for each photovoltaic cell of the first submodule with a reference temperature (Tref), - Determining the state of each photovoltaic cell of the first submodule between a healthy state, in which its temperature is equal to the reference temperature, and a faulty state, in which its temperature is different from said reference temperature, - Estimating the I-V curve associated with a first photovoltaic cell of said first submodule, by searching in a database of I-V curves, taking into account: ∘ The healthy state or the faulty state of said first photovoltaic cell; ∘ The healthy state or the faulty state of all of the other photovoltaic cells of the first submodule; ∘ The electric power supplied by each photovoltaic cell of the first submodule. ∘ The healthy state or the faulty state of said first photovoltaic cell; ∘ The healthy state or the faulty state of all of the other photovoltaic cells of the first submodule; ∘ The electric power supplied by each photovoltaic cell of the first submodule.
Method for manufacturing a binder comprising a hydratable material comprising the steps: - providing a starting material from one or more raw materials convertible by tempering at 600 to 1200 °C into the hydratable material, wherein the starting material has a Ca/Si molar ratio from 0.5 to 1.8 and contains no or up to 30 % by weight of other elements than CaO and SiO 2 with regard to the total mass calculated as oxides, - tempering the starting material at a temperature in the range from 600 to 1200 °C during a residence time from 1 minute to 5 hours to provide the hydratable material containing not more than 10 % by weight monocalcium silicate and at least 15 % by weight hydratable phases in the form of lime and dicalcium silicate, wherein at least 50 % of the crystalline hydratable phases are dicalcium silicate, wherein the residence time and the tempering temperature are adapted to obtain the said hydratable material by converting not more than 80 % by weight of the starting material, and cooling the hydratable material to provide the binder comprising the hydratable material. - providing a starting material from one or more raw materials convertible by tempering at 600 to 1200 °C into the hydratable material, wherein the starting material has a Ca/Si molar ratio from 0.5 to 1.8 and contains no or up to 30 % by weight of other elements than CaO and SiO 2 with regard to the total mass calculated as oxides, - tempering the starting material at a temperature in the range from 600 to 1200 °C during a residence time from 1 minute to 5 hours to provide the hydratable material containing not more than 10 % by weight monocalcium silicate and at least 15 % by weight hydratable phases in the form of lime and dicalcium silicate, wherein at least 50 % of the crystalline hydratable phases are dicalcium silicate,
An apparatus for storing data and wirelessly communicating data between a vehicle or an agricultural implement and a computing device, the apparatus comprising: a non-conductive housing ; a thermally and electrically conductive housing ; a first interior region defined by the non-conductive housing and a first side of the thermally and electrically conductive housing; a connector sub-assembly ; a second interior region defined by a second side of the thermally and electrically conductive housing and the connector sub-assembly; an antenna located in the first interior region; a first integrated circuit coupled to the antenna and located in the first interior region; the antenna comprising at least two coplanar finger elements each coupled to the first integrated circuit and capable of transmitting and receiving signals of a different radio frequency and a tail element orthogonal to the at least two coplanar finger elements; at least a second integrated circuit located in the second interior region; at least one ground clip coupled to the connector sub-assembly, the second integrated circuit, and the thermally and electrically conductive housing; at least one mating connector coupled to the connector sub-assembly and arranged to communicatively couple with at least one connector of the vehicle or agricultural implement; and a memory coupled to the second integrated circuit and programmed to store, at least temporarily, digital data received from the vehicle or agricultural implement or the computing device via the at least one connector of the vehicle or agricultural implement or via the antenna. a non-conductive housing ; a thermally and electrically conductive housing ; a first interior region defined by the non-conductive housing and a first side of the thermally and electrically conductive housing; a connector sub-assembly ; a second interior region defined by a second side of the thermally and electrically conductive housing and the connector sub-assembly; an antenna located in the first interior region; a first integrated circuit coupled to the antenna and located in the first interior region; the antenna comprising at least two coplanar finger elements each coupled to the first integrated circuit and capable of transmitting and receiving signals of a different radio frequency and a tail element orthogonal to the at least two coplanar finger elements; at least a second integrated circuit located in the second interior region; at least one ground clip coupled to the connector sub-assembly, the second integrated circuit, and the thermally and electrically conductive housing; at least one mating connector coupled to the connector sub-assembly and arranged to communicatively couple with at least one connector of the vehicle or agricultural implement; and a memory coupled to the second integrated circuit and programmed to store, at least temporarily, digital data received from the vehicle or agricultural implement or the computing device via the at least one connector of the vehicle or agricultural implement or via the antenna.
A hybrid adsorption heat exchanging device comprising: at least one tubular or micro channel structure for carrying a heat transfer fluid; the external surface of said structure being provided with extensions in at least two locations; said extensions forming a bed therebetween provided with one or more adsorbent materials; a coating of adsorbent material being provided on at least a part of said extensions. at least one tubular or micro channel structure for carrying a heat transfer fluid; the external surface of said structure being provided with extensions in at least two locations; said extensions forming a bed therebetween provided with one or more adsorbent materials; a coating of adsorbent material being provided on at least a part of said extensions.
A cooling system for at least one electronic control unit of a motor vehicle , the cooling system comprising a housing for the at least one electronic control unit , the housing comprising an air circulation duct configured to supply air to the at least one electronic control unit , wherein the air circulation duct comprises: - a first inlet configured to be connected to a vehicular air conditioning device , and - a second inlet configured to be connected to inside a driver's cab of the motor vehicle , - a fan being positioned within the air circulation duct , downstream the first and second inlets, - the second inlet comprising a second closing element movable between an open position and a closed position of the second inlet ; characterized in that the second closing element is movable between the open and the closed position based on a suction force generated by the fan of the air circulation duct . - a first inlet configured to be connected to a vehicular air conditioning device , and - a second inlet configured to be connected to inside a driver's cab of the motor vehicle , - a fan being positioned within the air circulation duct , downstream the first and second inlets, - the second inlet comprising a second closing element movable between an open position and a closed position of the second inlet ;
A method for producing a gardenia-derived colorant in which the total content of geniposide and genipin is reduced, the method comprising treating a gardenia-derived colorant containing geniposide or genipin or both using an activated carbon having: (a) a methylene blue adsorption ability, as determined according to JIS K 1474:2014, of 50 ml/g or more; and (b) an iodine adsorption ability, as determined according to JIS K 1474:2014, of 750 mg/g or more, thereby removing geniposide or genipin or both. (a) a methylene blue adsorption ability, as determined according to JIS K 1474:2014, of 50 ml/g or more; and (b) an iodine adsorption ability, as determined according to JIS K 1474:2014, of 750 mg/g or more, thereby removing geniposide or genipin or both.
A cleaning pad comprising: a liquid pervious floor sheet , and an absorbent core juxtaposed with said floor sheet and comprising absorbent gelling material therein, characterized by said cleaning pad satisfying the inequality: absorbency with amine oxide cleaning solution > 0.7 ∗ cof - 0.14, wherein 0.5 < cof < 0.85, absorbency < 1, and cof is the coefficient of friction with amine oxide cleaning solution. wherein said absorbency with amine oxide cleaning solution is greater than 0.35, and wherein said liquid pervious floor sheet has an outwardly facing surface, wherein said cleaning pad further comprises a hydrophilic smoothing strip joined to said outwardly facing surface of said floor sheet , wherein said amine oxide cleaning solution comprises 0.04% amine oxide active CAS no. 70592-80-2, 0.5% EtOH ethyl alcohol and balance deionized water, and wherein absorbency and cof are measured according to the methods defined under the headers "Absorbency" and "Coefficient of Friction". a liquid pervious floor sheet , and an absorbent core juxtaposed with said floor sheet and comprising absorbent gelling material therein, characterized by said cleaning pad satisfying the inequality: absorbency with amine oxide cleaning solution > 0.7 ∗ cof - 0.14, wherein 0.5 < cof < 0.85, absorbency < 1, and cof is the coefficient of friction with amine oxide cleaning solution. absorbency with amine oxide cleaning solution > 0.7 ∗ cof - 0.14, wherein 0.5 < cof < 0.85, absorbency < 1, and cof is the coefficient of friction with amine oxide cleaning solution. wherein said absorbency with amine oxide cleaning solution is greater than 0.35, and wherein said liquid pervious floor sheet has an outwardly facing surface, wherein said cleaning pad further comprises a hydrophilic smoothing strip joined to said outwardly facing surface of said floor sheet , wherein said amine oxide cleaning solution comprises 0.04% amine oxide active CAS no. 70592-80-2, 0.5% EtOH ethyl alcohol and balance deionized water, and wherein absorbency and cof are measured according to the methods defined under the headers "Absorbency" and "Coefficient of Friction".
A method comprising: receiving , by a secure rendering engine that is verifiably local to an enclave region of memory in an enclave-capable computing device or enclave server , a payload comprising untrusted content ; classifying the payload as a candidate for potentially-unwanted content (PUC); applying , by the secure rendering engine , conversion rules to convert the content to an enclave secured format, thereby forming trusted content , sanitizing , by the secure rendering engine , the trusted content according to the conversion rules and optionally according to user input previously received , signing , by the secure rendering engine , the trusted content with a digital signature that is unique to the enclave and unique to the hardware of the enclave-capable computing device or enclave server ; and exporting , by the secure rendering engine , the trusted content from the enclave region . receiving , by a secure rendering engine that is verifiably local to an enclave region of memory in an enclave-capable computing device or enclave server , a payload comprising untrusted content ; classifying the payload as a candidate for potentially-unwanted content (PUC); applying , by the secure rendering engine , conversion rules to convert the content to an enclave secured format, thereby forming trusted content , sanitizing , by the secure rendering engine , the trusted content according to the conversion rules and optionally according to user input previously received , signing , by the secure rendering engine , the trusted content with a digital signature that is unique to the enclave and unique to the hardware of the enclave-capable computing device or enclave server ; and exporting , by the secure rendering engine , the trusted content from the enclave region .