mhurhangee/ep-ind-claims huggingface dataset:
A method for wirelessly transmitting user data and control information using a plurality of transmission layers, comprising: determining a total amount of transmission resources granted to a wireless terminal for use in a subframe based on a product of a total number of subcarriers allocated to a wireless terminal and a total number of vector symbols allocated to the wireless terminal, wherein the vector symbols each comprise an information element associated with each transmission layer over which the wireless terminal will transmit in the subframe; estimating a number of vector symbols to be allocated by the wireless terminal to a plurality of user data codewords based on the total amount of transmission resources granted to the wireless terminal for use in the subframe; determining a number of bits in one or more of the plurality of user data codewords to be transmitted by the wireless terminal during the subframe; calculating a number of control vector symbols to allocate to control information based at least in part on the estimated number of vector symbols and the determined number of bits; mapping one or more control codewords to the calculated number of control vector symbols, wherein the one or more control codewords comprise encoded control information; and transmitting vector symbols carrying the user data codewords and the control codewords over the plurality of transmission layers during the subframe. determining a total amount of transmission resources granted to a wireless terminal for use in a subframe based on a product of a total number of subcarriers allocated to a wireless terminal and a total number of vector symbols allocated to the wireless terminal, wherein the vector symbols each comprise an information element associated with each transmission layer over which the wireless terminal will transmit in the subframe; estimating a number of vector symbols to be allocated by the wireless terminal to a plurality of user data codewords based on the total amount of transmission resources granted to the wireless terminal for use in the subframe; determining a number of bits in one or more of the plurality of user data codewords to be transmitted by the wireless terminal during the subframe; calculating a number of control vector symbols to allocate to control information based at least in part on the estimated number of vector symbols and the determined number of bits; mapping one or more control codewords to the calculated number of control vector symbols, wherein the one or more control codewords comprise encoded control information; and transmitting vector symbols carrying the user data codewords and the control codewords over the plurality of transmission layers during the subframe.
A method for increasing the injection speed of a melted plastic injection device for injecting said melted plastic into a molding cavity, said injection device comprising a first cylinder provided with a tubular casing defining a first inner diameter (d 1), and with a first piston slidable inside said tubular casing, adapted to be loaded with melted plastic and to inject said melted plastic toward the molding cavity; a second cylinder constrained to the first cylinder and provided with a second piston the rod of which is connected to the first piston and adapted to actuate said first cylinder during an injection operation; the method comprising the steps of: - releasing the second cylinder and the first cylinder by extracting the first piston from the tubular casing; - coaxially inserting a tubular body, defining a second inner diameter (d 3) which is smaller than the first inner diameter (d 1), into the tubular casing; - disconnecting the first piston from the rod; - connecting a third piston to the rod, said third piston being sized to slide inside said tubular body; - constraining the second cylinder and the first cylinder by inserting the third piston into the tubular casing. a first cylinder provided with a tubular casing defining a first inner diameter (d 1), and with a first piston slidable inside said tubular casing, adapted to be loaded with melted plastic and to inject said melted plastic toward the molding cavity; a second cylinder constrained to the first cylinder and provided with a second piston the rod of which is connected to the first piston and adapted to actuate said first cylinder during an injection operation; - releasing the second cylinder and the first cylinder by extracting the first piston from the tubular casing; - coaxially inserting a tubular body, defining a second inner diameter (d 3) which is smaller than the first inner diameter (d 1), into the tubular casing; - disconnecting the first piston from the rod; - connecting a third piston to the rod, said third piston being sized to slide inside said tubular body; - constraining the second cylinder and the first cylinder by inserting the third piston into the tubular casing.
An isolated culture of: - Hypholoma fasiculare ( H. fasiculare), wherein the isolated culture comprises H. fasiculare strain Pinnel-B (DSM 32925); - Hypholoma capnoides ( H. capnoides), wherein the isolated culture comprises H. capnoides strain TAK02 (DSM 33061); or - Hypholoma capnoides ( H. capnoides), wherein the isolated culture comprises H. capnoides strain TAK05 (DSM 33078). - Hypholoma fasiculare ( H. fasiculare), wherein the isolated culture comprises H. fasiculare strain Pinnel-B (DSM 32925); - Hypholoma capnoides ( H. capnoides), wherein the isolated culture comprises H. capnoides strain TAK02 (DSM 33061); or - Hypholoma capnoides ( H. capnoides), wherein the isolated culture comprises H. capnoides strain TAK05 (DSM 33078).
An apparatus comprising: a crawler robot (122; 208; 300; 800; 1104) configured to move along a surface (204; 303; 824; 1105) of a structure (206; 304; 826); and a crawler support comprising a movable platform (120; 264; 900; 1102), a movement system, a pick and place arm (244; 906; 1106), and a utility arm (252; 904; 1108) configured to support the crawler robot (122; 208; 300; 800; 1104); wherein the pick and place arm (244; 906; 1106) is configured to place the crawler robot (122; 208; 300; 800; 1104) onto the surface (204; 303; 824; 1105) of the structure (206; 304; 826); and characterized in that the utility arm (252; 904; 1108) is configured to move utility cables connected to the crawler robot (122; 208; 300; 800; 1104) as the crawler robot (122; 208; 300; 800; 1104) moves along the surface (204; 303; 824; 1105) of the structure (206; 304; 826). a crawler robot (122; 208; 300; 800; 1104) configured to move along a surface (204; 303; 824; 1105) of a structure (206; 304; 826); and a crawler support comprising a movable platform (120; 264; 900; 1102), a movement system, a pick and place arm (244; 906; 1106), and a utility arm (252; 904; 1108) configured to support the crawler robot (122; 208; 300; 800; 1104); wherein the pick and place arm (244; 906; 1106) is configured to place the crawler robot (122; 208; 300; 800; 1104) onto the surface (204; 303; 824; 1105) of the structure (206; 304; 826); and characterized in that the utility arm (252; 904; 1108) is configured to move utility cables connected to the crawler robot (122; 208; 300; 800; 1104) as the crawler robot (122; 208; 300; 800; 1104) moves along the surface (204; 303; 824; 1105) of the structure (206; 304; 826).
A method of braking initiation for a hydraulic braking system comprising: applying a control signal to a control valve and ramping the control signal from a first signal level to a second signal level at a predetermined rate of change; directing hydraulic fluid, with the control valve in response to the control signal, to a brake actuator; measuring a pressure and a flow rate of the hydraulic fluid to the brake actuator characterised by determining a flow-based position of the brake actuator based on the flow rate of the hydraulic fluid; and determining the second signal level based on at least one of a predetermined stall flow rate threshold and a predetermined stall pressure threshold of the hydraulic fluid. applying a control signal to a control valve and ramping the control signal from a first signal level to a second signal level at a predetermined rate of change; directing hydraulic fluid, with the control valve in response to the control signal, to a brake actuator; measuring a pressure and a flow rate of the hydraulic fluid to the brake actuator characterised by determining a flow-based position of the brake actuator based on the flow rate of the hydraulic fluid; and determining the second signal level based on at least one of a predetermined stall flow rate threshold and a predetermined stall pressure threshold of the hydraulic fluid.
A system for deploying an anchor assembly, comprising: a cartridge carrying the anchor assembly, a handle configured to couple with the cartridge such that mechanical energy stored in a spring within the handle is transferred to the cartridge to deploy the anchor assembly; and a lever on the handle, operatively connected to a cam wheel via a drive mechanism (1130, 1150), such that pulling on the lever causes rotation of the cam wheel; a firing sled releasably coupled to the cam wheel, and connected to the spring, wherein rotation of the cam wheel to a first angular position causes the firing sled to be released from the cam wheel and the mechanical energy stored in the spring to be transferred to the firing sled, causing it to move forward, thereby deploying the anchor assembly from a distal end of the cartridge; and wherein further rotation of the cam wheel to a second angular position restores the firing sled to its original position, thereby restoring the majority of the mechanical energy to the spring. a cartridge carrying the anchor assembly, a handle configured to couple with the cartridge such that mechanical energy stored in a spring within the handle is transferred to the cartridge to deploy the anchor assembly; and a lever on the handle, operatively connected to a cam wheel via a drive mechanism (1130, 1150), such that pulling on the lever causes rotation of the cam wheel; a firing sled releasably coupled to the cam wheel, and connected to the spring, wherein rotation of the cam wheel to a first angular position causes the firing sled to be released from the cam wheel and the mechanical energy stored in the spring to be transferred to the firing sled, causing it to move forward, thereby deploying the anchor assembly from a distal end of the cartridge; and wherein further rotation of the cam wheel to a second angular position restores the firing sled to its original position, thereby restoring the majority of the mechanical energy to the spring.
Electrical socket, in particular electrical socket adapter with - a housing, - a jack area provided on the housing with - a first and a second jack (15, 17) for receiving plugs of a first and of a second standard, wherein the first and the second jack comprises first and second plug-in openings, - a first movable protective element that is displaceable between a closed position and an open position, in which closed position it covers the first plug-in openings and in which closed position it frees the first plug-in openings, - a second movable protective element that is displaceable between a closed position and an open position, in which closed position it covers the second plug-in openings and in which closed position it frees the second plug-in openings, wherein - the first and the second protective element (19, 21) are prestressed in order to be able to automatically return to the closed position, characterized in that the first or the second protective element (19, 21) is mechanically locked respectively in its closed position by the other protective element (19, 21) that is in the open position, wherein the protective element that is in the open position acts as a locking member. - a housing, - a jack area provided on the housing with - a first and a second jack (15, 17) for receiving plugs of a first and of a second standard, wherein the first and the second jack comprises first and second plug-in openings, - a first movable protective element that is displaceable between a closed position and an open position, in which closed position it covers the first plug-in openings and in which closed position it frees the first plug-in openings, - a second movable protective element that is displaceable between a closed position and an open position, in which closed position it covers the second plug-in openings and in which closed position it frees the second plug-in openings, wherein - the first and the second protective element (19, 21) are prestressed in order to be able to automatically return to the closed position,
A path computation client, PCC,comprising: a processor; and a memory coupled to the processor for executing a plurality of programs present in the memory, wherein the programs, when executed by the processor, configures the PCC to: receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP. a processor; and a memory coupled to the processor for executing a plurality of programs present in the memory, wherein the programs, when executed by the processor, configures the PCC to: receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP. receive at least one packet containing at least one label and at least a branch object; decode the branch object received to: identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby identify if the downloading of labels is corresponding to a point-to-multipoint traffic engineering label switch path, P 2 MP TE LSP; and operate as a branch node for the label switch path received in the packet; and thereby fetch at least one outgoing label specified in the branch object and associated with at least a next hop address of at least one corresponding node on the P 2 MP TE LSP.
A mobile data centre consisting in ISO standard containers with dimensions from 3.048m to 16.154m (10 to 53 feet) in length, comprising a galvanized steel liner and adapted with a thermal insulation in their internal walls, configured to accommodate first and second sections, which are powered via an electric distribution panel, a) the first section locating heat exchangers and main distribution panel; and b) the second section locating: at least two evaporators controlled by means of a smart microprocessor using the information received by two temperature and relative humidity sensors located inside of evaporators; an Automatic Transfer Switch with insulation bypass having the ability to carry out maintenance operations without the requirement to shutdown equipment, an uninterruptible power supply system with power capacity of 9kW, 20kW or 60kW with a redundant module in the configuration N+1; two, four, eight or fourteen cabinets of 600mm in width, 1000 mm depth and 42 RMS to install the IT equipment, having each of cabinets clamping means to avoid movements formed by a uni-channel which is attached to container, a uni-channel attached to cabinet and a tensor; ladder type trays installed perpendicularly on the top of each one of the cabinets, a bottom tray for data wiring and other upper for power wiring; as well as wire flexible organizers, the wire on the left for power and the wire on the right for data; and a smoke early detection system that operates by means of an air particle analyser system, backed up in the event of fire using a control panel, two abort stations that may prevent the expelling of the aerosol agent in the containers in the event of a false possibility of fire, and four sirens, and two to four containers which contain an aerosol agent; characterised in that the items that require to be permanently air-conditioned are located centrally in the second section along with the evaporators so as to form a cool aisle and a hot aisle on opposite sides thereof and in that at the bottom of the cabinets there are bearings and rails to allow increasing the space in the front of the cabinets. a) the first section locating heat exchangers and main distribution panel; and b) the second section locating: at least two evaporators controlled by means of a smart microprocessor using the information received by two temperature and relative humidity sensors located inside of evaporators; an Automatic Transfer Switch with insulation bypass having the ability to carry out maintenance operations without the requirement to shutdown equipment, an uninterruptible power supply system with power capacity of 9kW, 20kW or 60kW with a redundant module in the configuration N+1; two, four, eight or fourteen cabinets of 600mm in width, 1000 mm depth and 42 RMS to install the IT equipment, having each of cabinets clamping means to avoid movements formed by a uni-channel which is attached to container, a uni-channel attached to cabinet and a tensor;
An optoelectronic device comprising a photovoltaic cell, the photovoltaic cell comprising: n-type dilute nitride GaInNAs(Sb) emitter layer forming a low bandgap absorber region (LBAR) layer; a base layer formed from GaAs, GaInAs, or low-nitrogen-content GaInNAs(Sb), with lower nitrogen content and higher bandgap with respect to the emitter; a space-charge region; a quasi-neutral region; and an improved transport layer at least partially positioned in the quasi-neutral region of the base layer, the IT layer being defined as having a higher minority-carrier diffusion length than in the LBAR layer whilst having a higher bandgap than the LBAR layer. n-type dilute nitride GaInNAs(Sb) emitter layer forming a low bandgap absorber region (LBAR) layer; a base layer formed from GaAs, GaInAs, or low-nitrogen-content GaInNAs(Sb), with lower nitrogen content and higher bandgap with respect to the emitter; a space-charge region; a quasi-neutral region; and an improved transport layer at least partially positioned in the quasi-neutral region of the base layer, the IT layer being defined as having a higher minority-carrier diffusion length than in the LBAR layer whilst having a higher bandgap than the LBAR layer.
An aerosol-generating device configured to heat an aerosol-forming substrate, comprising: a power supply; a heater positioned to heat the aerosol-forming substrate to form an aerosol; a controller configured to control the supply of power from the power supply to the heater; and a gas sensor that is sensitive to a particular gas or gases, wherein a response of the gas sensor is dependent on a temperature of the gas sensor, and wherein the controller is connected to the gas sensor and is configured to monitor signals from the gas sensor, and wherein the gas sensor is configured to operate within an operational temperature range above ambient temperature, and wherein the gas sensor is positioned such that in use the heater heats the gas sensor to within its operational temperature range when heating the aerosol-forming substrate to form an aerosol. a power supply; a heater positioned to heat the aerosol-forming substrate to form an aerosol; a controller configured to control the supply of power from the power supply to the heater; and a gas sensor that is sensitive to a particular gas or gases, wherein a response of the gas sensor is dependent on a temperature of the gas sensor, and wherein the controller is connected to the gas sensor and is configured to monitor signals from the gas sensor, and wherein the gas sensor is configured to operate within an operational temperature range above ambient temperature, and wherein the gas sensor is positioned such that in use the heater heats the gas sensor to within its operational temperature range when heating the aerosol-forming substrate to form an aerosol.
A haptic feedback input device comprising: an operating unit configured to be rotatably operated; an angle detecting means configured to detect a rotating angle of the operating unit; a motor configured to supply a rotating force to the operating unit; and a control unit configured to calculate a current rotating angle value based on a detecting signal outputted from the angle detecting means, and to generate a driving signal for the motor and an operating signal for an electric device according to the current rotating angle value, wherein the control unit is configured to drive the motor in a direction that the operating unit returns to a limit point of an operating range of the electric device when the operating unit is operated to exceed the operating range of the electric device, characterized in that, when the operating unit is operated to a rotating angle that exceeds the operating range of the electric device, the control unit is configured to set a value of the current rotating angle to a minimum rotating angle at which a returning force supplied to the operating unit is maximized between the limit point and an angle right below the current rotating angle when the operating unit is determined not to be operated further in the same direction that makes the operating unit deviate from the operating range. an operating unit configured to be rotatably operated; an angle detecting means configured to detect a rotating angle of the operating unit; a motor configured to supply a rotating force to the operating unit; and a control unit configured to calculate a current rotating angle value based on a detecting signal outputted from the angle detecting means, and to generate a driving signal for the motor and an operating signal for an electric device according to the current rotating angle value, wherein the control unit is configured to drive the motor in a direction that the operating unit returns to a limit point of an operating range of the electric device when the operating unit is operated to exceed the operating range of the electric device, characterized in that, when the operating unit is operated to a rotating angle that exceeds the operating range of the electric device, the control unit is configured to set a value of the current rotating angle to a minimum rotating angle at which a returning force supplied to the operating unit is maximized between the limit point and an angle right below the current rotating angle when the operating unit is determined not to be operated further in the same direction that makes the operating unit deviate from the operating range.
A toy assembly, comprising: a housing (102, 12, 14); an inner object inside the housing (102, 12, 14); a tether connecting the inner object to the housing (102, 12, 14); and a breakout motor that is operatively connected to a portion of the inner object to drive the inner object to carry out movement inside the housing (102, 12, 14), wherein said movement of the inner object inside the housing (102, 12, 14) drives the tether to open a hole (130, 48) in the housing (102, 12, 14). a housing (102, 12, 14); an inner object inside the housing (102, 12, 14); a tether connecting the inner object to the housing (102, 12, 14); and a breakout motor that is operatively connected to a portion of the inner object to drive the inner object to carry out movement inside the housing (102, 12, 14), wherein said movement of the inner object inside the housing (102, 12, 14) drives the tether to open a hole (130, 48) in the housing (102, 12, 14).