mhurhangee/patent-ind-claim-en huggingface dataset:
A connection system for joining two wind turbine components together, comprising: on a first wind turbine component , one or more bearing surfaces , one or more support surfaces extending away from the one or more bearing surfaces , and one or more bores formed in the one or more support surfaces ; on a second wind turbine component , one or more bearing surfaces , one or more support surfaces extending away from the one or more bearing surfaces , and one or more bores formed in the one or more support surfaces ; one or more pins configured to be engaged with respective one or more bores of the first and second wind turbine components to thereby join the first and second wind turbine components together, wherein when the first and second wind turbine components are to be joined, the first and second wind turbine components are positioned relative to each other such that the one or more bearing surfaces generally confront each other, the one or more support surfaces generally confront each other, and the one or more bores in the first and second wind turbine components are generally aligned with each other or become generally aligned with each other upon engagement of the one or more pins , wherein the first wind turbine component includes the base frame of the nacelle . on a first wind turbine component , one or more bearing surfaces , one or more support surfaces extending away from the one or more bearing surfaces , and one or more bores formed in the one or more support surfaces ; on a second wind turbine component , one or more bearing surfaces , one or more support surfaces extending away from the one or more bearing surfaces , and one or more bores formed in the one or more support surfaces ; one or more pins configured to be engaged with respective one or more bores of the first and second wind turbine components to thereby join the first and second wind turbine components together, wherein when the first and second wind turbine components are to be joined, the first and second wind turbine components are positioned relative to each other such that the one or more bearing surfaces generally confront each other, the one or more support surfaces generally confront each other, and the one or more bores in the first and second wind turbine components are generally aligned with each other or become generally aligned with each other upon engagement of the one or more pins , wherein the first wind turbine component includes the base frame of the nacelle .
A compound of formula (IIA) or an N -oxide thereof, or a pharmaceutically acceptable salt or solvate thereof, or a co-crystal thereof: wherein E represents -CH 2 -; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen; or Z represents C 1-6 alkyl, aryl or heteroaryl, any of which groups may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkoxy and aminocarbonyl; R 11 represents hydrogen or halogen; R 15 represents halogen or difluoromethoxy; and R 16 represents hydrogen or halogen. E represents -CH 2 -; Q represents -CH 2 - or -CH 2 O-; Z represents hydrogen; or Z represents C 1-6 alkyl, aryl or heteroaryl, any of which groups may be optionally substituted by one, two or three substituents independently selected from C 1-6 alkoxy and aminocarbonyl; R 11 represents hydrogen or halogen; R 15 represents halogen or difluoromethoxy; and R 16 represents hydrogen or halogen.
An Internet Protocol Security, IPSec, acceleration method, wherein the method is performed by a first module in a device, the device communicates with a peer device, and the method comprises: establishing (S102), by the first module, a security association, SA, with the peer device; and sending (S 103), by the first module, the SA to a second module, characterized in that the first module is an IKE module and the second module is a data forwarding module configured to communicate with the peer device, wherein the IKE module and the data forwarding module are separately deployed independently in different devices, and wherein the connection between the IKE module and the data forwarding module is a network connection; and wherein the second module is deployed in one of: an accelerator card, a server and a cluster. establishing (S102), by the first module, a security association, SA, with the peer device; and sending (S 103), by the first module, the SA to a second module, characterized in that the first module is an IKE module and the second module is a data forwarding module configured to communicate with the peer device, wherein the IKE module and the data forwarding module are separately deployed independently in different devices, and wherein the connection between the IKE module and the data forwarding module is a network connection; and wherein the second module is deployed in one of: an accelerator card, a server and a cluster.
A method for purifying crude rice bran wax comprising: a) mixing said wax with ethanol under a pressure of 2-3 bar forming a reaction mixture; b) refluxing said mixture at 90-110 °C for 1 hour dissolving said wax; c) allowing said mixture to stand idle for 30 minutes at a temperature between 70 to 75 °C; d) separating undissolved matters from liquid fraction; e) repeating steps (a) to (d) a second time with said undissolved matters to extract remaining wax in a second liquid fraction; f) collecting and pooling said liquid fraction and said second liquid fraction in a separate vessel; g) cooling said pooled liquid fractions allowing to crystallize said dissolved wax; h) removing said crystallized wax by filtration; i) washing said crystallized wax by ethanol; and j) drying said wax under vacuum forming a final product. a) mixing said wax with ethanol under a pressure of 2-3 bar forming a reaction mixture; b) refluxing said mixture at 90-110 °C for 1 hour dissolving said wax; c) allowing said mixture to stand idle for 30 minutes at a temperature between 70 to 75 °C; d) separating undissolved matters from liquid fraction; e) repeating steps (a) to (d) a second time with said undissolved matters to extract remaining wax in a second liquid fraction; f) collecting and pooling said liquid fraction and said second liquid fraction in a separate vessel; g) cooling said pooled liquid fractions allowing to crystallize said dissolved wax; h) removing said crystallized wax by filtration; i) washing said crystallized wax by ethanol; and j) drying said wax under vacuum forming a final product.
A method of electrochemically reducing CO 2 , comprising: introducing a first feed stream comprising H 2 O to a positive electrode of an electrolysis cell comprising the positive electrode , a negative electrode , a proton-conducting membrane between the positive electrode and the negative electrode , and a porous buffer structure between the proton-conducting membrane and the negative electrode ; directing a second feed stream comprising a solvent and a non-polar form of a switchable polarity material into a CO 2 capture apparatus ; directing a third feed stream comprising CO 2 into the CO 2 capture apparatus to interact with the second feed stream and form a first product stream comprising the solvent and a polar form of the switchable polarity material; introducing the first product stream to the negative electrode of the electrolysis cell ; and applying a potential difference between the positive electrode and the negative electrode of the electrolysis cell to generate hydrogen ions from the H 2 O that diffuse through the proton-conducting membrane to convert the polar form of the switchable polarity material into CO 2 and the non-polar form of the switchable polarity material and to form one or more products from the produced CO 2 and the solvent. introducing a first feed stream comprising H 2 O to a positive electrode of an electrolysis cell comprising the positive electrode , a negative electrode , a proton-conducting membrane between the positive electrode and the negative electrode , and a porous buffer structure between the proton-conducting membrane and the negative electrode ; directing a second feed stream comprising a solvent and a non-polar form of a switchable polarity material into a CO 2 capture apparatus ; directing a third feed stream comprising CO 2 into the CO 2 capture apparatus to interact with the second feed stream and form a first product stream comprising the solvent and a polar form of the switchable polarity material; introducing the first product stream to the negative electrode of the electrolysis cell ; and applying a potential difference between the positive electrode and the negative electrode of the electrolysis cell to generate hydrogen ions from the H 2 O that diffuse through the proton-conducting membrane to convert the polar form of the switchable polarity material into CO 2 and the non-polar form of the switchable polarity material and to form one or more products from the produced CO 2 and the solvent.
Carrier structure for solar panels , comprising: - at least one carrying frame configured to carry at least a part of at least one solar panel , and - at least one accessory which is coupleable to the carrying frame , wherein at least one of the at least one carrying frame and the at least one accessory comprises at least one coupling pin configured to be at least partly received in a complementary receiving space provided in at least one of the at least one accessory or the at least one carrying frame , characterised in that the receiving space is provided with at least one locking element for locking the accessory and the carrying frame to each other when the coupling pin is being fitted in the receiving space , and wherein the at least one locking element is configured to cut into an outer periphery of the coupling pin . - at least one carrying frame configured to carry at least a part of at least one solar panel , and - at least one accessory which is coupleable to the carrying frame , wherein at least one of the at least one carrying frame and the at least one accessory comprises at least one coupling pin configured to be at least partly received in a complementary receiving space provided in at least one of the at least one accessory or the at least one carrying frame , characterised in that the receiving space is provided with at least one locking element for locking the accessory and the carrying frame to each other when the coupling pin is being fitted in the receiving space , and wherein the at least one locking element is configured to cut into an outer periphery of the coupling pin .
A synthetic fibre of the monofilament type for use in an artificial lawn, which synthetic fibre has a width greater than the thickness of the synthetic fibre, said synthetic fibre being provided with a thickened part at its free ends, seen in transverse direction, and having a curved section and a thickness/width ratio such that the synthetic fibre will buckle locally upon being subjected to an external load, characterised in that the thickness of the central part of the synthetic fibre between the thickened parts is a constant (D) and is between 0.05 mm and 0.15 mm, the width of the synthetic fibre is between 0.5 mm and 1.5 mm, and wherein the synthetic fibre is made of polyethylene.
A computer-implemented decentralized digital asset storage and transfer system, comprising a first access gateway communicably coupled to a platform comprising at least three dedicated and computationally independent computing nodes, wherein said platform is configured to, upon receipt of a digital asset storage or transfer instruction via said first access gateway, perform a method comprising: • defining a said node as an originating node and others of said nodes as verifying nodes; • performing, by said originating node, a verification process in respect of said instruction to determine a verification result, and broadcasting said verification result to said verifying nodes; • performing, by each verifying node independently, a verification process in respect of said instruction to determine a verification result, and comparing said verification result with the verification result received from the originating node; • determining a consensus between verification results determined by said nodes; • in the event of a consensus, each node processing said instruction, independently of said other nodes; and • in the event of no consensus, penalizing said originating node according to a preset penalty policy and selecting an alternative one of said nodes as an originating node, and repeating the said method with the other nodes as verifying nodes. • defining a said node as an originating node and others of said nodes as verifying nodes; • performing, by said originating node, a verification process in respect of said instruction to determine a verification result, and broadcasting said verification result to said verifying nodes; • performing, by each verifying node independently, a verification process in respect of said instruction to determine a verification result, and comparing said verification result with the verification result received from the originating node; • determining a consensus between verification results determined by said nodes; • in the event of a consensus, each node processing said instruction, independently of said other nodes; and • in the event of no consensus, penalizing said originating node according to a preset penalty policy and selecting an alternative one of said nodes as an originating node, and repeating the said method with the other nodes as verifying nodes.
A sensor cleaning device comprising: a first valve to move fluid from a first end to a second end of the first valve ; a second valve to control airflow from an air compressor ; a set of fluid nozzles to eject the fluid onto a lens of a sensor; and a housing structure coupled to the first valve , the second valve , and the set of fluid nozzles , the housing structure comprising: (i) a first channel to channel the fluid from the second end of the first valve to the set of fluid nozzles , (ii) an expansion chamber , (iii) a second channel to channel air from the second valve to the expansion chamber , and (iv) a slit opening to eject air from the expansion chamber to the lens of the sensor; wherein the expansion chamber is arranged to allow air from the second channel to fill up so as to increase the pressure of the air within the expansion chamber before the air is ejected from the slit opening . a first valve to move fluid from a first end to a second end of the first valve ; a second valve to control airflow from an air compressor ; a set of fluid nozzles to eject the fluid onto a lens of a sensor; and a housing structure coupled to the first valve , the second valve , and the set of fluid nozzles , the housing structure comprising: (i) a first channel to channel the fluid from the second end of the first valve to the set of fluid nozzles , (ii) an expansion chamber , (iii) a second channel to channel air from the second valve to the expansion chamber , and (iv) a slit opening to eject air from the expansion chamber to the lens of the sensor; wherein the expansion chamber is arranged to allow air from the second channel to fill up so as to increase the pressure of the air within the expansion chamber before the air is ejected from the slit opening .
An electromagnetic antenna having a first electromagnetic waveguide radiating part of predetermined geometric shape, forming a first electromagnetic propagation medium and having a first radiation wall having a plurality of spaced-apart radiating slots , each radiating slot extending in a first longitudinal direction, and a second wall , opposite the first radiation wall , said antenna comprising a coupling slot situated in a contact area, said coupling slot passing through said second wall , said coupling slot extending in a second direction forming a nonzero angle of orientation (α) with said first longitudinal direction, characterized in that it has a second active part comprising a stack of at least two dielectric layers , at least one of the dielectric layers being etched with at least one metal track, resulting in at least one active circuit, forming a second electromagnetic propagation medium, at least one portion of said second active part being pressed against said second wall in said contact area.
A method performed by an electronic circuit comprising inputs connected to a photovoltaic panel , wherein outputs of the electronic circuit connect to a photovoltaic string , the method comprising: sensing, by a controller of the electronic circuit , a condition indicating one or more of: a ground fault in the electronic circuit or photovoltaic panel ; or an arcing within the photovoltaic string ; responsive to sensing the condition, opening, by the controller , a first switch (SW1) connected between one of the inputs of the electronic circuit and one of the outputs of the electronic circuit in order to disconnect the photovoltaic panel from the photovoltaic string ; and activating, by a second controller , a bypass circuit connecting the outputs of the electronic circuit in order to provide a low resistance path between the outputs of the electronic circuit for a current flowing through the photovoltaic string , wherein the bypass circuit comprises a first node (Z) connected to the second controller , a second switch (SW2), a third switch (SW3), a zener diode (Zl), and a charge storage device (Cl), a second node (X) connected to the second switch (SW2), and a third node (Y) connected to the third switch (SW3), the zener diode (Zl), and a diode (DR1) that is also connected to the charge storage device (Cl), and the charge storage device (Cl) is operable to provide voltage (Vlogic), from the current flowing through the photovoltaic string , to the second controller . sensing, by a controller of the electronic circuit , a condition indicating one or more of: a ground fault in the electronic circuit or photovoltaic panel ; or an arcing within the photovoltaic string ; a ground fault in the electronic circuit or photovoltaic panel ; or an arcing within the photovoltaic string ; responsive to sensing the condition, opening, by the controller , a first switch (SW1) connected between one of the inputs of the electronic circuit and one of the outputs of the electronic circuit in order to disconnect the photovoltaic panel from the photovoltaic string ; and activating, by a second controller , a bypass circuit connecting the outputs of the electronic circuit in order to provide a low resistance path between the outputs of the electronic circuit for a current flowing through the photovoltaic string , wherein the bypass circuit comprises a first node (Z) connected to the second controller , a second switch (SW2), a third switch (SW3), a zener diode (Zl), and a charge storage device (Cl), a second node (X) connected to the second switch (SW2), and a third node (Y) connected to the third switch (SW3), the zener diode (Zl), and a diode (DR1) that is also connected to the charge storage device (Cl), and the charge storage device (Cl) is operable to provide voltage (Vlogic), from the current flowing through the photovoltaic string , to the second controller .
A developer container comprising: a housing having at least one storage chamber for storing developer; a first rotating member extending from a first end portion to a second end portion through at least one of the at least one storage chamber ; a first gear (28G1, 68G) connected to the first end portion and disposed outside of the housing ; and a second gear (28G2, 69G) connected to the second end portion and disposed outside of the housing , the first rotating member being configured to transmit driving force from the first gear (28G1, 68G) to the second gear (28G2, 69G), wherein: the at least one storage chamber comprises a first storage chamber for storing a first developer and a second storage chamber for storing a second developer; and the first rotating member includes a first rotating body disposed in the first storage chamber and a second rotating body disposed in the second storage chamber . a housing having at least one storage chamber for storing developer; a first rotating member extending from a first end portion to a second end portion through at least one of the at least one storage chamber ; a first gear (28G1, 68G) connected to the first end portion and disposed outside of the housing ; and a second gear (28G2, 69G) connected to the second end portion and disposed outside of the housing , the first rotating member being configured to transmit driving force from the first gear (28G1, 68G) to the second gear (28G2, 69G), wherein: the at least one storage chamber comprises a first storage chamber for storing a first developer and a second storage chamber for storing a second developer; and the first rotating member includes a first rotating body disposed in the first storage chamber and a second rotating body disposed in the second storage chamber . the at least one storage chamber comprises a first storage chamber for storing a first developer and a second storage chamber for storing a second developer; and the first rotating member includes a first rotating body disposed in the first storage chamber and a second rotating body disposed in the second storage chamber .
A computer-implemented method of simulating a process of a geological structure, the method comprising: (a) obtaining a first digital model comprising structural data representing a geological structure, wherein the geological structure comprises a folded and faulted geological domain, and wherein the folded and faulted geological domain comprises a discontinuous layer that includes two or more disjoint portions that are not physically connected; (b) selecting at least one marching technique based in part on a grid dimension and a grid cell shape of a grid on the first digital model; (c) applying the at least one marching technique to at least a portion of the structural data of the first digital model to identify at least some boundary data, wherein the boundary data associates the two or more disjoint portions of the at least one discontinuous layer together as part of the geological structure; (d) populating a second digital model based in part on the first digital model, a property, and the boundary data, wherein a space within an enclosed boundary comprising the associated disjoint portions of a layer is populated by ascribing a value corresponding to the property to the space; (e) simulating a process of the geological structure using the second digital model; and (f) outputting the simulation results for use in one of fluid extraction operations, fluid injection operations or wellbore insertion operations. (a) obtaining a first digital model comprising structural data representing a geological structure, wherein the geological structure comprises a folded and faulted geological domain, and wherein the folded and faulted geological domain comprises a discontinuous layer that includes two or more disjoint portions that are not physically connected; (b) selecting at least one marching technique based in part on a grid dimension and a grid cell shape of a grid on the first digital model; (c) applying the at least one marching technique to at least a portion of the structural data of the first digital model to identify at least some boundary data, wherein the boundary data associates the two or more disjoint portions of the at least one discontinuous layer together as part of the geological structure; (d) populating a second digital model based in part on the first digital model, a property, and the boundary data, wherein a space within an enclosed boundary comprising the associated disjoint portions of a layer is populated by ascribing a value corresponding to the property to the space; (e) simulating a process of the geological structure using the second digital model; and (f) outputting the simulation results for use in one of fluid extraction operations, fluid injection operations or wellbore insertion operations.