mhurhangee/patent-ind-claim-en huggingface dataset:
Arrangement having: an explosion-proof housing with an explosion-proof interior which is encapsulated by housing walls relative to the environment and in which electrical and/or electronic components are arranged, a ventilator arrangement with a ventilator provided in the interior , wherein the ventilator arrangement has an intake opening and an outflow opening arranged below the intake opening , and wherein in the interior the ventilator arrangement provokes a cooling stream (S) directed vertically downward along a housing wall portion of a lateral housing wall which is free from orifices through which cooling medium flows, an external cooling body provided on the outside of the housing , characterised in that the ventilator arrangement is arranged on a lateral housing wall , the lateral housing wall onto which the cooling stream flows is formed by a door or hatch, an inner cooling body is present in the interior in the cooling stream (S), wherein the inner cooling body and the outer cooling body are arranged on the housing wall portion of the lateral housing wall and are separated from each other by the lateral housing wall , and inner and outer blind holes are made in the housing wall portion which do not penetrate completely through the housing wall portion but merely form recesses in which heat-conductive elements are arranged in order to improve the heat transmission between the housing wall portion and the inner cooling body and the outer cooling body . an explosion-proof housing with an explosion-proof interior which is encapsulated by housing walls relative to the environment and in which electrical and/or electronic components are arranged, a ventilator arrangement with a ventilator provided in the interior , wherein the ventilator arrangement has an intake opening and an outflow opening arranged below the intake opening , and wherein in the interior the ventilator arrangement provokes a cooling stream (S) directed vertically downward along a housing wall portion of a lateral housing wall which is free from orifices through which cooling medium flows, an external cooling body provided on the outside of the housing , characterised in that the ventilator arrangement is arranged on a lateral housing wall , the lateral housing wall onto which the cooling stream flows is formed by a door or hatch, an inner cooling body is present in the interior in the cooling stream (S), wherein the inner cooling body and the outer cooling body are arranged on the housing wall portion of the lateral housing wall and are separated from each other by the lateral housing wall , and inner and outer blind holes are made in the housing wall portion which do not penetrate completely through the housing wall portion but merely form recesses in which heat-conductive elements are arranged in order to improve the heat transmission between the housing wall portion and the inner cooling body and the outer cooling body .
Balance wheel (5, 15, 35, 35', 35", 55) comprising a rim connected to a hub by means of at least one arm , the balance wheel (5, 15, 35, 35', 35", 55) comprising an adjustable auxiliary temperature compensation system (13, 33, 33 1 , 33 2 , 33 1 ', 33 2 ', 53) mounted in the space defined by the rim , enabling the temperature compensation of the balance wheel (5, 15, 35, 35', 35", 55) to be adjusted, the temperature compensation system (13, 33, 33 1 , 33 2 , 33 1 ', 33 2 ', 53) comprising: - a bimetallic strip device comprising: -- at least one first strip and at least one second strip, said at least one first and at least one second strips each having different expansion coefficients and are arranged such that they are attached on top of one another to ensure that the curvature of the bimetallic strip device varies as a function of temperature, the bimetallic strip device extending between a first end and a second end, and -- a block forming an integral part of one of the ends of one of said at least one first and at least one second strips making it possible to increase the influence of the adjustable auxiliary temperature compensation system (13, 33, 33 1 , 33 2 , 33 1 ', 33 2 ', 53); - a fixing device forming an integral part of the first end of the bimetallic strip device, the fixing device comprising adjustable orientation means configured to change the orientation of the compensation system with respect to said at least one arm of the balance wheel (5, 15, 35, 35', 35", 55). - a bimetallic strip device comprising: -- at least one first strip and at least one second strip, said at least one first and at least one second strips each having different expansion coefficients and are arranged such that they are attached on top of one another to ensure that the curvature of the bimetallic strip device varies as a function of temperature, the bimetallic strip device extending between a first end and a second end, and -- a block forming an integral part of one of the ends of one of said at least one first and at least one second strips making it possible to increase the influence of the adjustable auxiliary temperature compensation system (13, 33, 33 1 , 33 2 , 33 1 ', 33 2 ', 53); -- at least one first strip and at least one second strip, said at least one first and at least one second strips each having different expansion coefficients and are arranged such that they are attached on top of one another to ensure that the curvature of the bimetallic strip device varies as a function of temperature, the bimetallic strip device extending between a first end and a second end, and -- a block forming an integral part of one of the ends of one of said at least one first and at least one second strips making it possible to increase the influence of the adjustable auxiliary temperature compensation system (13, 33, 33 1 , 33 2 , 33 1 ', 33 2 ', 53); - a fixing device forming an integral part of the first end of the bimetallic strip device, the fixing device comprising adjustable orientation means configured to change the orientation of the compensation system with respect to said at least one arm of the balance wheel (5, 15, 35, 35', 35", 55).
A method of forming composite zeolite catalyst particles, the method comprising: Combining NaOH, a silicon source, an organic structure directing agent, water and an aluminum source to form a catalyst gel, where the organic structure directing agent comprises a diquaternary ammonium compound in accordance with: where, X is a halogen selected from Cl, Br, I, or combinations thereof; R1 is a substituted or an unsubstituted C 18-22 alkyl group; R2 is a substituted or an unsubstituted C 6 alkyl group; and R3 is a substituted or an unsubstituted C 6-8 alkyl group; stirring the catalyst gel for homogenization; and heating the catalyst gel in a sealed vessel under autogenous pressure to form the composite zeolite catalyst particles, where the composite zeolite catalyst particle comprises both Mordenite and ZSM-5 zeolites and is characterized by having an intergrowth region comprising a mixture of both Mordenite crystals and ZSM-5 crystals. Combining NaOH, a silicon source, an organic structure directing agent, water and an aluminum source to form a catalyst gel, where the organic structure directing agent comprises a diquaternary ammonium compound in accordance with: where, X is a halogen selected from Cl, Br, I, or combinations thereof; R1 is a substituted or an unsubstituted C 18-22 alkyl group; R2 is a substituted or an unsubstituted C 6 alkyl group; and R3 is a substituted or an unsubstituted C 6-8 alkyl group; stirring the catalyst gel for homogenization; and X is a halogen selected from Cl, Br, I, or combinations thereof; R1 is a substituted or an unsubstituted C 18-22 alkyl group; R2 is a substituted or an unsubstituted C 6 alkyl group; and R3 is a substituted or an unsubstituted C 6-8 alkyl group; heating the catalyst gel in a sealed vessel under autogenous pressure to form the composite zeolite catalyst particles, where the composite zeolite catalyst particle comprises both Mordenite and ZSM-5 zeolites and is characterized by having an intergrowth region comprising a mixture of both Mordenite crystals and ZSM-5 crystals.
Electrical heating unit for introduction into the exhaust gas system of an internal combustion engine , in particular upstream with respect to an exhaust gas cleaning unit , for instance of a catalytic converter, which for operation requires a temperature higher than the ambient temperature, said electrical heating unit (H, H.1, H.2) comprising a casing and at least one resistance heating element which is designed as a band and is retained inside the casing , wherein the at least one heating band has a meandering shape and is arranged with its flat face extending parallel or substantially parallel to the longitudinal axis of the casing , characterised in that the heating unit (H) comprises at least one support structure (19, 19.1; 47, 47.1, 47.2) which is located on the end face relative to the heating band and is mechanically connected to the casing , with slot-shaped heating band bearings to retain the heating band inside the casing , into which slot-shaped heating band bearings the heating band engages with an edge portion, and by means of which support structure (19, 19.1; 47, 47.1, 47.2) the heating band is electrically insulated from the casing .
A method of determining a panoramic view of an environment behind a trailer of a vehicle-trailer system , the method comprising: receiving, at data processing hardware , a first image from a rear trailer camera positioned on a rear portion of the trailer ; receiving, at the data processing hardware , a second image from a right-side trailer camera positioned on a right-side portion of the trailer ; receiving, at the data processing hardware , a third image from a left-side trailer camera positioned on a left-side portion of the trailer ; receiving a fourth image from a rear vehicle camera positioned on a rear portion of a vehicle of the vehicle-trailer system , the fourth image including a trailer representation of the trailer ; determining, at the data processing hardware , a panoramic view based on the first image , the second image , and the third image ; determining, at the data processing hardware , a trailer angle (α) based on sensor system data received from a sensor system ; determining, at the data processing hardware , a viewing area within the panoramic view based on the trailer angle (α); and sending, from the data processing hardware to a display in communication with the data processing hardware , instructions to display the viewing area wherein the instructions to display the viewing area of the panoramic view include displaying the viewing area of the panoramic view within a boundary of the trailer representation of the fourth image . receiving, at data processing hardware , a first image from a rear trailer camera positioned on a rear portion of the trailer ; receiving, at the data processing hardware , a second image from a right-side trailer camera positioned on a right-side portion of the trailer ; receiving, at the data processing hardware , a third image from a left-side trailer camera positioned on a left-side portion of the trailer ; receiving a fourth image from a rear vehicle camera positioned on a rear portion of a vehicle of the vehicle-trailer system , the fourth image including a trailer representation of the trailer ; determining, at the data processing hardware , a panoramic view based on the first image , the second image , and the third image ; determining, at the data processing hardware , a trailer angle (α) based on sensor system data received from a sensor system ; determining, at the data processing hardware , a viewing area within the panoramic view based on the trailer angle (α); and sending, from the data processing hardware to a display in communication with the data processing hardware , instructions to display the viewing area wherein the instructions to display the viewing area of the panoramic view include displaying the viewing area of the panoramic view within a boundary of the trailer representation of the fourth image .
A method for manufacturing composite particles, the method comprising: a spraying step of centrifugally spraying a slurry for composite particles for dry molding used for manufacturing an electrode for an electrochemical device using an atomizer , the slurry comprising an electrode active material, a solvent, and a binder; and a drying step of drying the slurry centrifugally sprayed in the spraying step, wherein the atomizer includes: a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part , wherein the rotary disk includes a plurality of grooves stretching in a radiation direction at least in a periphery part of a surface on which the slurry is sprayed. a spraying step of centrifugally spraying a slurry for composite particles for dry molding used for manufacturing an electrode for an electrochemical device using an atomizer , the slurry comprising an electrode active material, a solvent, and a binder; and a drying step of drying the slurry centrifugally sprayed in the spraying step, wherein the atomizer includes: a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part , a nozzle part dropping the slurry at a linear velocity of equal to or more than 50 m/min; and a rotary disk centrifugally spraying the slurry to be dropped from the nozzle part , wherein the rotary disk includes a plurality of grooves stretching in a radiation direction at least in a periphery part of a surface on which the slurry is sprayed.
A human von Willebrand factor (VWF) molecule capable of binding to Factor VIII comprising a C1 domain which lacks an O-glycosylation site at amino acid position 2298 for use in the treatment of a blood coagulation disorder, wherein said blood coagulation disorder is hemophilia A or von Willebrand disease and the VWF molecule having a reduced in vivo clearance when compared to native plasma-derived VWF.
A method for depositing an impurity barrier layer between a ceramic matrix composite substrate and an overlying layer, the method comprising: introducing, to a heated plume of a thermal spray gun, a composite feedstock comprising: a first coating material comprising a plurality of first particles, wherein the first coating material comprises at least one of silicon carbide or silicon nitride; and a second coating material that is different from the first coating material, , wherein the second coating material comprises at least one of a rare earth silicate, a rare earth disilicate, a transition metal, alumina, a silicon carbide based ceramic, or a silicon nitride based ceramic, and wherein the second coating material at least partially encapsulates respective surfaces of the plurality of first particles; and directing, using the heated plume, at least the first coating material to a surface of a ceramic matrix composite (CMC) substrate to deposit an impurity barrier layer comprising at least the first coating material. introducing, to a heated plume of a thermal spray gun, a composite feedstock comprising: a first coating material comprising a plurality of first particles, wherein the first coating material comprises at least one of silicon carbide or silicon nitride; and a second coating material that is different from the first coating material, , a first coating material comprising a plurality of first particles, wherein the first coating material comprises at least one of silicon carbide or silicon nitride; and a second coating material that is different from the first coating material, , wherein the second coating material comprises at least one of a rare earth silicate, a rare earth disilicate, a transition metal, alumina, a silicon carbide based ceramic, or a silicon nitride based ceramic, and wherein the second coating material at least partially encapsulates respective surfaces of the plurality of first particles; and directing, using the heated plume, at least the first coating material to a surface of a ceramic matrix composite (CMC) substrate to deposit an impurity barrier layer comprising at least the first coating material.
An aluminum alloy consisting of, in terms of mass ratio: 0.7% to 1.8% of silicon; 1.5% to 2.1% of copper; 0.4% to 1.8% of manganese; 0.6% to 1.6% of magnesium; 0.1% to 0.7% of zinc; and optionally at least one selected from the group consisting of, in terms of mass ratio: 0.05% to 0.15% of nickel; 0.05% to 0.15% of cobalt; and 0.05% to 0.3% of titanium; with the balance being aluminum and inevitable impurities. 0.7% to 1.8% of silicon; 1.5% to 2.1% of copper; 0.4% to 1.8% of manganese; 0.6% to 1.6% of magnesium; 0.05% to 0.15% of nickel; 0.05% to 0.15% of cobalt; and 0.05% to 0.3% of titanium;
A power supply road comprising ferrite core structure for a power supply device of an electric vehicle, the ferrite core structure comprising: a plurality of horizontal core portions arranged to be spaced apart from each other to prevent a flux leakage into the ground; a plurality of first vertical core portions formed to extend from both end portions of the horizontal core portions in a direction of an upper side of the horizontal core portions to prevent the flux leakage into an outer side surface; characterized in that at least two columns of second vertical core portions formed to extend from a central portion of the horizontal core portions (1 1 0) in a direction of the upper side of the horizontal core portions and arranged to be parallel to the first vertical core portions ; and a first supporting portion to connect the plurality of first vertical core portions to each other to support the first vertical core portions , wherein the second vertical core portions disperse a deflection load applied to both side surfaces of the second vertical core portions to prevent a formation of cracks on a surface of an intermediate portion of a power supply road, and the power supply road further comprising: at least one steel bar implanted under the ferrite core structure in a longitudinal direction of the power supply road which coincides with a traveling direction of a vehicle on said power supply road and spaced apart from the ferrite core structure. a plurality of horizontal core portions arranged to be spaced apart from each other to prevent a flux leakage into the ground; a plurality of first vertical core portions formed to extend from both end portions of the horizontal core portions in a direction of an upper side of the horizontal core portions to prevent the flux leakage into an outer side surface; characterized in that at least two columns of second vertical core portions formed to extend from a central portion of the horizontal core portions (1 1 0) in a direction of the upper side of the horizontal core portions and arranged to be parallel to the first vertical core portions ; and a first supporting portion to connect the plurality of first vertical core portions to each other to support the first vertical core portions , wherein the second vertical core portions disperse a deflection load applied to both side surfaces of the second vertical core portions to prevent a formation of cracks on a surface of an intermediate portion of a power supply road, and the power supply road further comprising: at least one steel bar implanted under the ferrite core structure in a longitudinal direction of the power supply road which coincides with a traveling direction of a vehicle on said power supply road and spaced apart from the ferrite core structure.
A method of operating an AC to DC converter circuit , the method comprising: changing a configuration of a DC output filter circuit to a capacitive configuration by switching an inductive circuit element (L) from being in series with a capacitive element to being bypassed and to maintain the capacitive circuit element across an output of the DC output filter circuit , to reshape a current waveform in a rectifier circuit included in the AC to DC converter circuit , based on an operating efficiency of the AC to DC converter circuit .
System for connecting or disconnecting a trailer to a vehicle , wherein a tow bar is mounted to the vehicle at rear part thereof, and wherein the trailer is provided with a trailer hitch , characterized in that the tow bar is maneuverable in all three dimensions and is controlled by at least one electric, pneumatic or hydraulic motor mounted in connection with the tow bar , the at least one motor is controlled either automatically by sensors, by a remote control or by other means of control mounted directly on the at least one motor or inside the vehicle, wherein the tow bar , when the tow bar and trailer hitch are positioned within a predetermined radius of one another, at activation, is automatically connecting to the trailer hitch of the trailer , even if they are not perfectly aligned, and when the tow bar and trailer are connected, the tow bar and trailer are centered automatically for driving.
A method for improving datacenter security by configuring a security layer as a set of nano-services that are executed to service a single tenant of a datacenter such that the nano-service protects the single tenant from other entities in the datacenter and the nano-service being compromised does not compromise security of other tenants of the datacenter, the method comprising: receiving a request to instantiate a virtual resource (vR) for a tenant; generating a nano-service to implement at least one security layer function for the virtual resource; and connecting the nano-service to the virtual resource and a virtual bridge in the datacenter to enable communication between the virtual resource and a network of the datacenter with a security layer function processing traffic between the virtual resource and the virtual bridge, characterised in that for each virtual resource of the tenant a corresponding nano-service is provided, and for each nano-service a connection is established between the virtual bridge and the corresponding nano-service, and a connection from the corresponding nano-service to the virtual resource, each nano-service having its own filtering rules. receiving a request to instantiate a virtual resource (vR) for a tenant; generating a nano-service to implement at least one security layer function for the virtual resource; and connecting the nano-service to the virtual resource and a virtual bridge in the datacenter to enable communication between the virtual resource and a network of the datacenter with a security layer function processing traffic between the virtual resource and the virtual bridge, characterised in that for each virtual resource of the tenant a corresponding nano-service is provided, and for each nano-service a connection is established between the virtual bridge and the corresponding nano-service, and a connection from the corresponding nano-service to the virtual resource, each nano-service having its own filtering rules.