mhurhangee/ep-ind-claims huggingface dataset:
A phosphor screen for a microelectromechanical image intensifier, comprising: a wafer structure with a silicon layer and an active area defined within the silicon layer; a lattice of interior walls formed from the silicon top layer within the active area; a non-particle phosphor layer in a range from 200 nm to 300 nm in thickness disposed in the active area, between the lattice of interior walls and atop of the lattice of interior walls; and a reflective metal layer that is disposed directly on the non-particle phosphor layer. a wafer structure with a silicon layer and an active area defined within the silicon layer; a lattice of interior walls formed from the silicon top layer within the active area; a non-particle phosphor layer in a range from 200 nm to 300 nm in thickness disposed in the active area, between the lattice of interior walls and atop of the lattice of interior walls; and a reflective metal layer that is disposed directly on the non-particle phosphor layer.
Process to make alpha olefins comprising: a) providing a dehydration zone containing a dehydration catalyst, wherein the dehydration catalyst is selected in the group consisting of a crystalline silicate having a ratio Si/Al of at least 100, a dealuminated crystalline silicate, and a phosphorus modified zeolite; b) introducing a feedstock comprising ethanol, optionally water, optionally an inert component into said dehydration zone and into contact with said dehydration catalyst, wherein the ethanol is from biological origin; c) operating said dehydration zone at conditions effective to dehydrate ethanol to ethylene, wherein the temperature of the dehydration zone is ranging from 280°C to 500°C, and wherein the WHSV of the alcohol is ranging from 4 to 20 h -1; d) recovering from step c) an effluent comprising ethylene, water, unconverted ethanol if any and the optional inert component, e) introducing said effluent into a fractionation zone to recover an ethylene stream, f) introducing said ethylene stream into an oligomerization zone containing an oligomerization catalyst and into contact with said oligomerization catalyst, g) operating said oligomerization zone at conditions effective to produce an effluent consisting of 1-butene, 1-hexene, optionally heavier alpha olefins and unconverted ethylene if any, h) introducing the effluent from step g) into a fractionation zone to recover a stream consisting of 1-butene, a stream consisting of 1-hexene, optionally a stream consisting of heavier alpha olefins and an optional ethylene stream. a) providing a dehydration zone containing a dehydration catalyst, wherein the dehydration catalyst is selected in the group consisting of a crystalline silicate having a ratio Si/Al of at least 100, a dealuminated crystalline silicate, and a phosphorus modified zeolite; b) introducing a feedstock comprising ethanol, optionally water, optionally an inert component into said dehydration zone and into contact with said dehydration catalyst, wherein the ethanol is from biological origin; c) operating said dehydration zone at conditions effective to dehydrate ethanol to ethylene, wherein the temperature of the dehydration zone is ranging from 280°C to 500°C, and wherein the WHSV of the alcohol is ranging from 4 to 20 h -1; d) recovering from step c) an effluent comprising ethylene, water, unconverted ethanol if any and the optional inert component, e) introducing said effluent into a fractionation zone to recover an ethylene stream, f) introducing said ethylene stream into an oligomerization zone containing an oligomerization catalyst and into contact with said oligomerization catalyst, g) operating said oligomerization zone at conditions effective to produce an effluent consisting of 1-butene, 1-hexene, optionally heavier alpha olefins and unconverted ethylene if any, h) introducing the effluent from step g) into a fractionation zone to recover a stream consisting of 1-butene, a stream consisting of 1-hexene, optionally a stream consisting of heavier alpha olefins and an optional ethylene stream.
A buckling device for retaining a seatbelt for use in a passenger vehicle, the device comprising: a seatbelt buckle configured to receive and retain a latch plate having two latchable finger portions, the seatbelt buckle including a housing adapted for mounting to a vehicle structure, the housing defining an internal cavity; a button disposed within the housing and reciprocally moveable relative to the housing; an insertion slot having an overall width defined at least in part by the buckle housing and the button, the insertion slot defining an opening; and a blocking member disposed in the insertion slot, the blocking member blocking a portion of the opening and defining first and second slot portions, wherein the widths of the first and second slot portions are smaller than the overall width of the insertion slot and wherein the first and second slot portions are configured to receive first and second finger portions of a latch plate, characterized in that the blocking member is moveable relative to the housing and comprises a blockout portion that is integrally formed with the button and moves with the button. a seatbelt buckle configured to receive and retain a latch plate having two latchable finger portions, the seatbelt buckle including a housing adapted for mounting to a vehicle structure, the housing defining an internal cavity; a button disposed within the housing and reciprocally moveable relative to the housing; an insertion slot having an overall width defined at least in part by the buckle housing and the button, the insertion slot defining an opening; and a blocking member disposed in the insertion slot, the blocking member blocking a portion of the opening and defining first and second slot portions, wherein the widths of the first and second slot portions are smaller than the overall width of the insertion slot and wherein the first and second slot portions are configured to receive first and second finger portions of a latch plate, characterized in that the blocking member is moveable relative to the housing and comprises a blockout portion that is integrally formed with the button and moves with the button.
A method for producing a wind turbine, the method comprising the steps of: a) providing a nacelle structure, b) providing a module to be mounted to the nacelle structure in a hanging position, and c) moving the module relative to the nacelle structure and at least partially through the nacelle structure at an erection site until the module is in the hanging position on the nacelle structure, characterized in that the module is transported to the erection site inside the nacelle structure in a transporting position which is different from the hanging position. a) providing a nacelle structure, b) providing a module to be mounted to the nacelle structure in a hanging position, and c) moving the module relative to the nacelle structure and at least partially through the nacelle structure at an erection site until the module is in the hanging position on the nacelle structure,
A device for the purification of blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation and for gas exchange in blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation comprising a column with: a) an inlet and an outlet for gases or gas mixtures, b) an inlet and an outlet for blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation, c) at least one gas-permeable membrane and d) a carrier, which is coated with substances for the adsorptive removal of toxins of biological and chemical synthetic origin, their metabolites and degradation products present in blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation. a) an inlet and an outlet for gases or gas mixtures, b) an inlet and an outlet for blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation, c) at least one gas-permeable membrane and d) a carrier, which is coated with substances for the adsorptive removal of toxins of biological and chemical synthetic origin, their metabolites and degradation products present in blood, blood substitutes or solutions for the introduction into the human and/or animal blood circulation.
A method of transmitting encapsulated media during a telecommunication session, the method comprising: establishing a main tunnel between a tunneling client and a tunneling server using a first socket, the main tunnel comprising a corresponding tunnel identifier and Internet Protocol "IP" address; traversing the encapsulated media over the main tunnel during the telecommunication session; determining that a cloned tunnel is needed for the telecommunication session; establishing a cloned tunnel between the tunneling client and the tunneling server using a second socket that has been marked as a cloned tunnel candidate, wherein the cloned tunnel comprises the corresponding tunnel identifier and IP address of the main tunnel; and traversing the encapsulated media over the cloned tunnel instead of the main tunnel during the telecommunication session. establishing a main tunnel between a tunneling client and a tunneling server using a first socket, the main tunnel comprising a corresponding tunnel identifier and Internet Protocol "IP" address; traversing the encapsulated media over the main tunnel during the telecommunication session; determining that a cloned tunnel is needed for the telecommunication session; establishing a cloned tunnel between the tunneling client and the tunneling server using a second socket that has been marked as a cloned tunnel candidate, wherein the cloned tunnel comprises the corresponding tunnel identifier and IP address of the main tunnel; and traversing the encapsulated media over the cloned tunnel instead of the main tunnel during the telecommunication session.
A cardiac surgery retractor enabled for the preferred use thereof in minimally invasive surgery and for the use thereof with a diaphragm, characterized by the fact that it comprises a baseband formed by a larger base and a smaller base, the larger base and the smaller base mutually arranged in a perpendicular manner and forming a cross-section of the baseband in the shape of an L, the smaller base being planar and the larger base having a curved geometry with a convex physiognomy in relation to the contact thereof with the smaller base and the baseband therefore having an intersection line between the larger base and the smaller base with a geometric shape of a circumferential arc or similar; the baseband incorporating a fin formed by a profile with a cross-section also in the shape of an L and the fin being articulated at the smaller base of the baseband, at a lateral edge of the smaller base contiguous to the contact thereof with the larger base of the same baseband; such that in one position of the joint of the fin, one of the sides of the L profile forming the fin is the continuation of the same smaller planar base of the baseband and the other side of the same L profile of the fin is the continuation of the curved geometry of the larger base of the baseband and the line of the vertex of the L profile of the fin is the continuation of the geometric shape of the intersection line between the larger base and the smaller base of the baseband; and in another position of the joint of the fin, the side of the L profile of the fin is positioned on the smaller base of the baseband; the surface of the convex face of the larger base and the side of the L profile of the fin both being rough; and the end of the larger base opposite the intersection line with the smaller base incorporates two arms (3, 4) articulated with respect to the larger base itself which, in one position of said joint, are positioned on the face of the larger base which corresponds to the concave part of the same larger base and in another position of the same joint are arranged extended and with an orientation perpendicular to the same larger base in a direction opposite the position of the smaller base; the edge of the smaller base, which is in a position opposite the intersection line with the larger base, incorporating a tubular extension towards the exterior of the smaller base itself.
Method for limiting the maximum pressure of an air compressor, which comprises a reciprocating-piston compressor, of a breakdown assistance apparatus for tyres of motor vehicles, wherein the reciprocating-piston compressor is driven by electric motor means via a slider-crank mechanism, wherein the change in the rotational speed of the electric motor which drives the reciprocating-piston compressor, which change is dependent on the change in the pressure at the outlet of the reciprocating-piston compressor, is ascertained, and is provided as a pressure-proportional variable for the operation of the reciprocating-piston compressor to a control device in the form of an input variable, wherein the air compressor is deactivated by means of its control device in a manner dependent on a threshold value, which is preset for different tyre types and which is representative of a maximum pressure, for the rotational speed of the electric motor which drives the reciprocating-piston compressor.
A method of operating a pressurized wastewater-drainage system having interconnected line sections (SA1...SA9) for conducting wastewater to a transfer station and a plurality of pump stations connected to the line sections (SA1...SA9) for collecting the wastewater, wherein at least a portion of the pump stations transmit status information indicating its respective pump readiness status to a central controller, characterized - in that a group is formed from the set of pump stations that are ready to pump in relation to one of the line sections (SA1...SA9) such that the number of pump stations of the group corresponds at least to a minimum number (p_min) of pump stations associated with this line section (SA1...SA9), the minimum number (p_min) of pump stations being selected such that a certain minimum flow is reached in this line section for self-cleaning, - in that the pump stations of the group are then activated simultaneously by the central controller. - in that a group is formed from the set of pump stations that are ready to pump in relation to one of the line sections (SA1...SA9) such that the number of pump stations of the group corresponds at least to a minimum number (p_min) of pump stations associated with this line section (SA1...SA9), the minimum number (p_min) of pump stations being selected such that a certain minimum flow is reached in this line section for self-cleaning, - in that the pump stations of the group are then activated simultaneously by the central controller.
A nucleotide analog comprising: a) a nucleotide comprising a phosphate moiety, a base, and a sugar; b) an electrochemically detectable, photocleavable terminating moiety attached to the nucleotide; and c) a second photocleavable terminating moiety attached to the nucleotide. a) a nucleotide comprising a phosphate moiety, a base, and a sugar; b) an electrochemically detectable, photocleavable terminating moiety attached to the nucleotide; and c) a second photocleavable terminating moiety attached to the nucleotide.
A treatment assembly, the assembly comprising: - an evaporation device including a gas circulation conduit, and a material with a large specific surface filling an evaporation section of the circulation conduit; - a device for circulating the gas through the circulation conduit; - a liquid impregnating the material with a large specific surface, characterized in that the liquid containing at least one volatile biocide and/or phytoprotective product or a mixture of volatile biocide and/or phytoprotective products, with a boiling temperature comprised between 130 and 280°C at atmospheric pressure, the material with a large specific surface having a liquid retention capacity greater than 50 L/m 3 of material with a large specific surface at 20°C; - a recharging device, arranged to re-impregnate the material with a large specific surface with liquid or to replace the spent material with a large specific surface with a new material with a large specific surface impregnated with liquid. - an evaporation device including a gas circulation conduit, and a material with a large specific surface filling an evaporation section of the circulation conduit; - a device for circulating the gas through the circulation conduit; - a liquid impregnating the material with a large specific surface, characterized in that the liquid containing at least one volatile biocide and/or phytoprotective product or a mixture of volatile biocide and/or phytoprotective products, with a boiling temperature comprised between 130 and 280°C at atmospheric pressure, the material with a large specific surface having a liquid retention capacity greater than 50 L/m 3 of material with a large specific surface at 20°C; - a recharging device, arranged to re-impregnate the material with a large specific surface with liquid or to replace the spent material with a large specific surface with a new material with a large specific surface impregnated with liquid.
A method, executed by a radio network node, for configuring a User Equipment, UE, camping on a cell served by the radio network node for Synchronization Signal, SS, Blocks based cell re-selection measurements for RRC_IDLE and RRC_INACTIVE states, the method comprising: - providing information to the UE, including configuration parameters for a measurement window, the configuration parameters comprising a window periodicity parameter, a window offset parameter and a window duration parameter, for configuring the UE for the SS Blocks based cell re-selection measurements for RRC_IDLE and RRC_INACTIVE states; wherein the radio network node uses Radio Resource Control, RRC, signaling to convey the information to the UE prior to or in conjunction with switching the UE from RRC_CONNECTED state to RRC_INACTIVE or RRC_IDLE state. - providing information to the UE, including configuration parameters for a measurement window, the configuration parameters comprising a window periodicity parameter, a window offset parameter and a window duration parameter, for configuring the UE for the SS Blocks based cell re-selection measurements for RRC_IDLE and RRC_INACTIVE states; wherein the radio network node uses Radio Resource Control, RRC, signaling to convey the information to the UE prior to or in conjunction with switching the UE from RRC_CONNECTED state to RRC_INACTIVE or RRC_IDLE state.
A reinforced esophageal heat transfer device (100, 300) comprising: a distal end configured for nasopharyngeal or oropharyngeal insertion into an esophagus of a subject; a proximal end including an inlet port and an outlet port; a heat transfer region between the distal end and the proximal end, wherein the heat transfer region is configured for contacting esophageal epithelium of a subject; a plurality of lumens configured for providing a fluid path for flow of a heat transfer medium to and from the heat transfer region, wherein the plurality of lumens includes a heat transfer medium supply lumen fluidly connected to the inlet port and a heat transfer medium return lumen fluidly connected to the outlet port, wherein the heat transfer medium supply lumen and the heat transfer medium return lumen are separated from each other by at least one internal wall; characterized in that at least two reinforcing elements that extend through the heat transfer return lumen and the outlet port into an outflow tube and configured for reinforcing the outflow tube and the heat transfer medium return lumen to enable the heat transfer medium to flow through the return fluid path via negative pressure applied to the outflow tube; and at least two reinforcing elements that extend through the heat transfer medium supply lumen and the inlet port into an inflow tube and configured for reinforcing the inflow tube and the heat transfer medium supply lumen to enable the heat transfer medium to flow through the supply fluid path via negative pressure applied to the outflow tube. a distal end configured for nasopharyngeal or oropharyngeal insertion into an esophagus of a subject; a proximal end including an inlet port and an outlet port; a heat transfer region between the distal end and the proximal end, wherein the heat transfer region is configured for contacting esophageal epithelium of a subject; a plurality of lumens configured for providing a fluid path for flow of a heat transfer medium to and from the heat transfer region, wherein the plurality of lumens includes a heat transfer medium supply lumen fluidly connected to the inlet port and a heat transfer medium return lumen fluidly connected to the outlet port, wherein the heat transfer medium supply lumen and the heat transfer medium return lumen are separated from each other by at least one internal wall; characterized in that at least two reinforcing elements that extend through the heat transfer return lumen and the outlet port into an outflow tube and configured for reinforcing the outflow tube and the heat transfer medium return lumen to enable the heat transfer medium to flow through the return fluid path via negative pressure applied to the outflow tube; and at least two reinforcing elements that extend through the heat transfer medium supply lumen and the inlet port into an inflow tube and configured for reinforcing the inflow tube and the heat transfer medium supply lumen to enable the heat transfer medium to flow through the supply fluid path via negative pressure applied to the outflow tube.
A method for producing a gear unit housing, comprising the following, successive steps: - making available a ring gear with internal gearing at least in portions, and a housing cover, wherein the ring gear and the housing cover each have at least one end-face joining face (11, 21); - heating the joining faces (11, 21) by a heating element or an infrared emitter, so that the ring gear and the housing cover are melted in portions on the end face; and - coaxially joining the ring gear to the housing cover to form a material-formed bond between the joining faces (11, 21). - making available a ring gear with internal gearing at least in portions, and a housing cover, wherein the ring gear and the housing cover each have at least one end-face joining face (11, 21); - heating the joining faces (11, 21) by a heating element or an infrared emitter, so that the ring gear and the housing cover are melted in portions on the end face; and - coaxially joining the ring gear to the housing cover to form a material-formed bond between the joining faces (11, 21).