mhurhangee/ep-ind-claims huggingface dataset:
A hay net (10, 110, 210), the net (10, 110, 210) comprising a mesh body (20, 120, 220) forming a bag, having a securing member (22, 122, 222) at a first position (14, 114, 214) relative to the body (20, 120, 220) of the net (10, 110, 210), a mouth (16, 116, 216) formed at a second position (12, 112, 212) relative to the body (20, 120, 220) of the net (10, 110, 210), the first position (14, 114, 214) being spaced from the second position (12, 112, 212), and a strap (30, 130, 230) engaging the net (10, 110, 210) adjacent the first position (14, 114, 214) to secure the strap (30, 130, 230) relative to the body (20, 120, 220) of the net (10, 110, 210) adjacent the first position (14, 114, 214), and engaging the net (10, 110, 210) adjacent the second position (12, 112, 212) to secure the strap (30, 130, 230) relative to the body (20, 120, 220) of the net (10, 110, 210) adjacent the second position (12, 112, 212), wherein the length of the strap (30, 130, 230) between the first and second positions (14, 114, 214, 12, 112, 212) is variable whilst maintaining engagement between the strap (30, 130, 230) and the net (10, 110, 210) adjacent both the first and second positions (14, 114, 214, 12, 112, 212), characterised in that the length of the strap (30, 130, 230) between the first and second positions (14, 114, 214, 12, 112, 212) is variable whilst maintaining the mouth (16, 116, 216) in a closed formation
A method for facilitating Optical Supervisory Channel, OSC, communications between a main site and a plurality of remote sites in an optical network, wherein the main and remote sites are comprised within a Radio Access Network and wherein the main and remote sites are connected via a point to multipoint optical infrastructure, and wherein the optical network comprises a hub node located between the main and remote sites, the method comprising: the hub node receiving an OSC signal on an OSC from the main site; the hub node forwarding the received OSC signal on the OSC to a first remote site, and receives an OSC signal from the first remote site; the hub node forwarding the OSC signal received from the first remote site to a second remote site on the OSC; and receiving an OSC signal from the second remote site, wherein the hub node repeats the steps of receiving and forwarding OSC signals to sequentially route OSC signals on the OSC to each of the remote sites in a daisy chain configuration; and the hub node returning an OSC signal received on the OSC from a last of the remote sites in the daisy chain configuration to the main site; the OSC being transported over the point to multipoint optical infrastructure. the hub node receiving an OSC signal on an OSC from the main site; the hub node forwarding the received OSC signal on the OSC to a first remote site, and receives an OSC signal from the first remote site; the hub node forwarding the OSC signal received from the first remote site to a second remote site on the OSC; and receiving an OSC signal from the second remote site, wherein the hub node repeats the steps of receiving and forwarding OSC signals to sequentially route OSC signals on the OSC to each of the remote sites in a daisy chain configuration; and the hub node returning an OSC signal received on the OSC from a last of the remote sites in the daisy chain configuration to the main site;
Reaction vessel suitable for carrying out an exothermic reaction of a liquid reactant with one or more gaseous reactants to form a gaseous reaction product at elevated temperature and elevated pressure, wherein gas collection regions and gas capture regions in the form of upturned cups or caverns, tray constructions having gas collectors and gas distributors or combinations thereof are used as non-pressure-bearing internals and the residence time of the gaseous reactant(s) in the reaction vessel is increased by the non-pressure-bearing internals and the non-pressure-bearing internals are arranged so that they are surrounded by the liquid reactant, where the reaction vessel contains from three to 100 non-pressure-bearing internals arranged above one another and the size of the internals increases in the flow direction of the ascending gaseous reactant, where the internals are separated by a wall from the wall of the reaction vessel in such a way that the liquid reactant circulates through the space arising from the spacing between the said walls in the opposite direction to the direction of ascension of the ascending gaseous reactant.
Charging station for charging an electrical storage in a motor vehicle, comprising at least one output device for delivering electrical energy to the electrical storage of the motor vehicle as well as a e power distribution busbar for supplying the at least one output device with electrical energy, wherein the at least one output device has a coupling, via which the at least one output device is connectable directly to an adapter port of the power distribution busbar, wherein the adapter port forms a lateral access point, at which the individual conductors within the power distribution busbar can be accessed electrically conductive, wherein the at least one output device has an output connection for an output line for delivery of electrical energy to the motor vehicle, wherein the coupling and the output connection are arranged at or in a common housing, and wherein in the housing are arranged an energy meter and a control unit with a network interface, which are configured to meter the energy, which is delivered to the motor vehicle via the output connection, and to communicate energy delivery data via the network interface to a data processing system, wherein the coupling has at least two power transmission elements electrically isolated from each other, which are configured to engage into individual openings of the adapter port for each conductor in the power distribution busbar and to establish electrical connections to the conductors in the power distribution busbar, wherein the output device has at least one retaining clamp, which is configured to form a mechanically firm connection between the power distribution busbar and the housing, in case the output device is connected to the adapter port of the power busbar, wherein the at least one retaining clamp comprises at least one hook, which is configured to engage into an undercut at the power distribution busbar, in order to hold the output device at the power distribution busbar, wherein the output device has a safety lock, via which the at least one retaining clamp is lockable, in order to avoid a tool-free demounting of the output device from the power distribution busbar.
A semiconductor device, comprising: a substrate configured with a fin extending from the substrate, the fin including a channel region; a gate electrode over the channel region, wherein a gate dielectric layer is provided between the gate electrode and the channel region and a gate spacer is provided on sides of the gate electrode; source and drain regions in or on the fin and adjacent the channel region and comprising semiconductor material; a trench extending into each of the source and drain regions; and contact metal within the trench in each of the source and drain regions; wherein the source and drain regions each is configured with a graded doping scheme that includes lower doping in areas through which the corresponding trench passes and higher doping in other areas; or wherein the source and drain regions each include a doped portion and an undoped portion, and wherein each of the trenches passes through the corresponding undoped portion and ends proximate to or in the doped portion. a substrate configured with a fin extending from the substrate, the fin including a channel region; a gate electrode over the channel region, wherein a gate dielectric layer is provided between the gate electrode and the channel region and a gate spacer is provided on sides of the gate electrode; source and drain regions in or on the fin and adjacent the channel region and comprising semiconductor material; a trench extending into each of the source and drain regions; and contact metal within the trench in each of the source and drain regions; wherein the source and drain regions each is configured with a graded doping scheme that includes lower doping in areas through which the corresponding trench passes and higher doping in other areas; or wherein the source and drain regions each include a doped portion and an undoped portion, and wherein each of the trenches passes through the corresponding undoped portion and ends proximate to or in the doped portion. wherein the source and drain regions each is configured with a graded doping scheme that includes lower doping in areas through which the corresponding trench passes and higher doping in other areas; or wherein the source and drain regions each include a doped portion and an undoped portion, and wherein each of the trenches passes through the corresponding undoped portion and ends proximate to or in the doped portion.
Modular thermo-refrigeration unit comprising at least a first condenser/evaporator module of a first type of module and a second condenser/evaporator module of a second type of module arranged with their longitudinal axis (4, 5) transverse to the longitudinal axis of said unit, said first and second modules (2, 3) having a length substantially equal to the width of said unit and prismatic structure having at least three main lateral faces (7, 8, 9, 10, 11, 12), said first module comprising a first and respectively a second finned coil (13, 14) present on a first and respectively a second lateral face (7, 8) thereof, and a plurality of fans shared by said first and second finned coils (13, 14) and present on a third lateral face thereof, characterized in that said second module comprises one finned coil present on a first lateral face thereof, a separator baffle present on a second lateral face thereof, and a plurality of fans dedicated to said one finned coil thereof, and present on a third lateral face thereof, wherein a single circuit (19, 20) of a coolant fluid of said unit is associated with the combination in series of said first module and said second module, heat exchange between air and said coolant fluid of said single circuit (19, 20) being performed through said first and second finned coils (13, 14) of said first module and said one finned coil of said second module, wherein said first and second coil (13, 14) of said first module and said one coil of said second module have the same length, and wherein the cross section of said second module corresponds to half the cross section of said first module.
Apparatus configured for treating an exterior surface of a wind turbine blade of a horizontal axis wind turbine including a nacelle mounted on top of a tower, said apparatus comprising an expandable structure that is deployable from a collapsed state into an expanded state in which the structure defines an elongated treatment zone into which a wind turbine blade is receivable in use, the apparatus further including treating means arranged to apply a treatment in the treatment zone, wherein the expandable structure comprises an inflatable structure, said apparatus being configured for applying surface treatment to the surface of said wind turbine blade using the expandable structure, whilst said wind turbine blade is mounted to said wind turbine and in a vertical orientation of same, wherein said inflatable structure forms the primary load-bearing element of the expandable structure and wherein the surface treatment means includes a plurality of treating heads arranged along the expandable structure to apply surface treatment radially inwards into the treatment zone.
A method for establishing a wireless communication channel between a vehicle and a vehicle accessory, the vehicle and the vehicle accessory each comprising a wireless transceiver (104, 106), the method comprising, in the vehicle: detecting a wired communication channel between the vehicle and the accessory; transmitting a vehicle identifier from the vehicle to the accessory via the wired communication channel; receiving an accessory identifier via the wired communication channel; deriving a unique code based on the vehicle identifier and the accessory identifier using a predetermined function; broadcasting the unique code by the vehicle wireless transceiver; in the vehicle accessory: deriving the unique code based on the received vehicle identifier and the accessory identifier using the same predetermined function as used in the vehicle; receiving the broadcast unique code by the accessory wireless transceiver; determining that the received unique code corresponds to the determined unique code; finding a network broadcasting the unique code by the accessory wireless transceiver; and establishing a wireless connection between the wireless transceiver of the vehicle and the wireless transceiver of the accessory using the network characterized by the unique code. detecting a wired communication channel between the vehicle and the accessory; transmitting a vehicle identifier from the vehicle to the accessory via the wired communication channel; receiving an accessory identifier via the wired communication channel; deriving a unique code based on the vehicle identifier and the accessory identifier using a predetermined function; broadcasting the unique code by the vehicle wireless transceiver; in the vehicle accessory: deriving the unique code based on the received vehicle identifier and the accessory identifier using the same predetermined function as used in the vehicle; receiving the broadcast unique code by the accessory wireless transceiver; determining that the received unique code corresponds to the determined unique code; finding a network broadcasting the unique code by the accessory wireless transceiver; and establishing a wireless connection between the wireless transceiver of the vehicle and the wireless transceiver of the accessory using the network characterized by the unique code. deriving the unique code based on the received vehicle identifier and the accessory identifier using the same predetermined function as used in the vehicle; receiving the broadcast unique code by the accessory wireless transceiver; determining that the received unique code corresponds to the determined unique code; finding a network broadcasting the unique code by the accessory wireless transceiver; and establishing a wireless connection between the wireless transceiver of the vehicle and the wireless transceiver of the accessory using the network characterized by the unique code.
A method for using an EGL driver to create a renderable surface for an OpenGL API, the EGL driver and the OpenGL API for use with a Vulkan graphics driver, a memory, at least one processor, and a module stored in the memory including computer instruction code that is executable by the at least one processor, the method comprising: creating an EGL display structure in response to an eglGetDisplay call from an EGL application; initializing (503, 600) the EGL display structure in response to an egllnitialize call from the EGL application, by: calling the Vulkan graphics driver to create a Vulkan surface; and querying the Vulkan driver for attributes of the Vulkan surface and a physical display associated with the Vulkan surface; in response to an eglChooseConfig call from the EGL application, choosing an EGL configuration matching the attributes; and creating the EGL surface in response to an eglCreateWindowSurface call from the EGL application. creating an EGL display structure in response to an eglGetDisplay call from an EGL application; initializing (503, 600) the EGL display structure in response to an egllnitialize call from the EGL application, by: calling the Vulkan graphics driver to create a Vulkan surface; and querying the Vulkan driver for attributes of the Vulkan surface and a physical display associated with the Vulkan surface; in response to an eglChooseConfig call from the EGL application, choosing an EGL configuration matching the attributes; and creating the EGL surface in response to an eglCreateWindowSurface call from the EGL application.
A sublimation defrosting method for removing a frost layer adhering to a cooling surface for cooling a to-be-cooled gas (a); the method comprising a heating/temperature-rising step of heating an adhesion portion of the cooling surface, to which the frost layer adheres, to rise a temperature of the adhesion portion by a heat source located on an adhesion portion side with respect to the frost layer, under a temperature condition below a melting point of the frost layer, a cooling step of keeping a tip-side region (Ft) of the frost layer adhering to the adhesion portion at a lower temperature than a raised temperature of the adhesion portion, and a sublimation step of sublimating a root-side region (Fr) of the frost layer adhering to the adhesion portion heated in the heating/temperature-rising step so as to reduce an adhesion area where the root-side region (Fr) adheres to the adhesion portion. a heating/temperature-rising step of heating an adhesion portion of the cooling surface, to which the frost layer adheres, to rise a temperature of the adhesion portion by a heat source located on an adhesion portion side with respect to the frost layer, under a temperature condition below a melting point of the frost layer, a cooling step of keeping a tip-side region (Ft) of the frost layer adhering to the adhesion portion at a lower temperature than a raised temperature of the adhesion portion, and a sublimation step of sublimating a root-side region (Fr) of the frost layer adhering to the adhesion portion heated in the heating/temperature-rising step so as to reduce an adhesion area where the root-side region (Fr) adheres to the adhesion portion.
A device for drying a gas, in particular air, which may contain various gaseous compounds, the drying having to make it possible to extract most of the water vapor present in the gas, without removing some of the other compounds present, or without modifying the content thereof, comprising at least one chamber, with an inlet for a gas flow to be treated and an outlet for the treated gas flow, this chamber being limited by at least one membrane, the water vapor permeability of which is substantially greater than its permeability with respect to other gases or vapors, a moisture-absorbing material being positioned, or circulating, against the membrane on the side opposite the chamber, the surface area of the chamber and of the membrane being determined, by taking into account the flow rate of gas and its assumed water vapor content, in order to ensure sufficient desiccation of the gas flow between the inlet and the outlet of the device, characterized in that it comprises: - a stack of plates (P1, P2) provided with central openings (A, B), except for the outermost plates which are closed, - each chamber is formed by a central opening provided in a plate, this central opening being between two parallel membranes, whilst the moisture-absorbing material is provided against the membranes on the side opposite the chamber, a gas inlet channel and an outlet channel passing through the wall (P1a) of the plate which surrounds the central opening, - each plate defining a chamber for the passage of the gas is sandwiched between two plates (P2, P3) comprising a housing (B, B1) for the moisture-absorbing material, - and several chambers are stacked, and connected, in series. - a stack of plates (P1, P2) provided with central openings (A, B), except for the outermost plates which are closed, - each chamber is formed by a central opening provided in a plate, this central opening being between two parallel membranes, whilst the moisture-absorbing material is provided against the membranes on the side opposite the chamber, a gas inlet channel and an outlet channel passing through the wall (P1a) of the plate which surrounds the central opening, - each plate defining a chamber for the passage of the gas is sandwiched between two plates (P2, P3) comprising a housing (B, B1) for the moisture-absorbing material, - and several chambers are stacked, and connected, in series.
A method for treatment of a hot gas generated by a pyrolysis or a gasification process, wherein the hot gas is passed to a first unit for particle removal and cooling, whereby subsequently, a gaseous stream is removed from a first condensed stream thus obtained and passed to a second unit for particle removal and cooling, wherein a second condensed stream is obtained, said first condensed stream and second condensed stream being recycled to said first unit and said second unit, respectively, wherein said step of recycling comprises injecting, in said first unit, said first condensed stream as small droplets in the stream of hot gas, wherein a liquid-to-gas ratio (L/G ratio) in said first unit is in a range of 10 - 40, said L/G ratio being expressed on mass basis (i.e. kg liquid per kg gas).
An orthopaedic device comprising: a connecting element (2,2") suited for receiving at least part of a first rod and comprising: an anchor for securing said connecting element to a bone, in particular a vertebra; a first lateral opening (6,6") leading to a socket; and a top opening with a first inner screw thread leading to the socket; and a lock screw, received within said top opening and comprising: a proximal face presenting a screw drive, accessible from outside the connecting element (2,2"); a distal end for locking said first rod within the connecting element (2,2"), and characterized in that said lock screw is adapted to fit through said first lateral opening (6,6") to be subsequently introduced into said top opening with the proximal face leading, and said distal end of the lock screw does not fit through said top opening, so as to enable pre-tensioning the lock screw within the connecting element (2,2"). a connecting element (2,2") suited for receiving at least part of a first rod and comprising: an anchor for securing said connecting element to a bone, in particular a vertebra; a first lateral opening (6,6") leading to a socket; and a top opening with a first inner screw thread leading to the socket; and a lock screw, received within said top opening and comprising: a proximal face presenting a screw drive, accessible from outside the connecting element (2,2"); a distal end for locking said first rod within the connecting element (2,2"), and characterized in that said lock screw is adapted to fit through said first lateral opening (6,6") to be subsequently introduced into said top opening with the proximal face leading, and said distal end of the lock screw does not fit through said top opening, so as to enable pre-tensioning the lock screw within the connecting element (2,2"). an anchor for securing said connecting element to a bone, in particular a vertebra; a first lateral opening (6,6") leading to a socket; and a top opening with a first inner screw thread leading to the socket; and a lock screw, received within said top opening and comprising: a proximal face presenting a screw drive, accessible from outside the connecting element (2,2"); a distal end for locking said first rod within the connecting element (2,2"), and characterized in that said lock screw is adapted to fit through said first lateral opening (6,6") to be subsequently introduced into said top opening with the proximal face leading, and said distal end of the lock screw does not fit through said top opening, so as to enable pre-tensioning the lock screw within the connecting element (2,2"). a proximal face presenting a screw drive, accessible from outside the connecting element (2,2"); a distal end for locking said first rod within the connecting element (2,2"), and characterized in that said lock screw is adapted to fit through said first lateral opening (6,6") to be subsequently introduced into said top opening with the proximal face leading, and said distal end of the lock screw does not fit through said top opening, so as to enable pre-tensioning the lock screw within the connecting element (2,2").