mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communications at a user equipment, UE , comprising: receiving , from a base station , a configuration message for a two-step random access procedure, the configuration message comprising periodical configuration information for transmission of a preamble and transmission of a payload, the preamble and the payload associated with a first message of the two-step random access procedure; identifying a first configuration periodicity for transmitting the preamble and a second configuration periodicity for transmitting the payload based at least in part on the configuration message; transmitting , to the base station, the preamble of the first message based at least in part on the first configuration periodicity and the payload of the first message based at least in part on the second configuration periodicity; and further comprising, determining a frame for the first configuration periodicity based at least in part on a frame relationship with a periodicity of one or more random access occasions of a four-step random access procedure, or determining a subframe or slot for the first configuration periodicity based at least in part on a subframe relationship with a periodicity of one or more random access occasions of a four-step random access procedure. receiving , from a base station , a configuration message for a two-step random access procedure, the configuration message comprising periodical configuration information for transmission of a preamble and transmission of a payload, the preamble and the payload associated with a first message of the two-step random access procedure; identifying a first configuration periodicity for transmitting the preamble and a second configuration periodicity for transmitting the payload based at least in part on the configuration message; transmitting , to the base station, the preamble of the first message based at least in part on the first configuration periodicity and the payload of the first message based at least in part on the second configuration periodicity; and further comprising, determining a frame for the first configuration periodicity based at least in part on a frame relationship with a periodicity of one or more random access occasions of a four-step random access procedure, or determining a subframe or slot for the first configuration periodicity based at least in part on a subframe relationship with a periodicity of one or more random access occasions of a four-step random access procedure.
Method of optimizing radiant and thermal efficiency of a gas fired radiant tube heater , the method comprising: a) providing a heat exchange blower to receive intake air and to deliver intake air through a heat exchanger and further deliver pre-heated intake air to a combustion air blower ; b) the combustion air blower receiving pre heated intake air from the heat exchanger , the combustion air blower provides pre-heated intake air to a burner for mixing with fuel and burning the fuel-intake air mixture thereby producing combustion gasses which are fired into a radiant tube ; c) passing the exhaust combustion gases through the radiant tube and through the heat exchanger to transfer and extract residual heat from the combustion gases to pre heat the intake air . a) providing a heat exchange blower to receive intake air and to deliver intake air through a heat exchanger and further deliver pre-heated intake air to a combustion air blower ; b) the combustion air blower receiving pre heated intake air from the heat exchanger , the combustion air blower provides pre-heated intake air to a burner for mixing with fuel and burning the fuel-intake air mixture thereby producing combustion gasses which are fired into a radiant tube ; c) passing the exhaust combustion gases through the radiant tube and through the heat exchanger to transfer and extract residual heat from the combustion gases to pre heat the intake air .
An extracorporeal circulator for performing extracorporeal circulation of blood of a human body, the extracorporeal circulator comprising: a rotary pump configured to generate a rotary pump waveform by constantly rotating, wherein the rotary pump waveform is a linear-type waveform maintaining a constant level; a cardiac function measuring system comprising: a flowmeter configured to measure a flow rate waveform (R) of blood in extracorporeal circulation; a control unit configured to acquire a waveform that is an addition of a pulsation waveform which is a flow rate fluctuation waveform of the blood included in the flow rate waveform (R) measured by the flowmeter and the rotary pump waveform generated when the rotary pump constantly rotates; and a display unit configured to display the waveform indicating a cardiac function of the human body in response to a command from the control unit ; an artificial lung ; a driving means for driving the rotary pump ; a blood removing catheter ; and a blood feeding catheter . a rotary pump configured to generate a rotary pump waveform by constantly rotating, wherein the rotary pump waveform is a linear-type waveform maintaining a constant level; a cardiac function measuring system comprising: a flowmeter configured to measure a flow rate waveform (R) of blood in extracorporeal circulation; a control unit configured to acquire a waveform that is an addition of a pulsation waveform which is a flow rate fluctuation waveform of the blood included in the flow rate waveform (R) measured by the flowmeter and the rotary pump waveform generated when the rotary pump constantly rotates; and a display unit configured to display the waveform indicating a cardiac function of the human body in response to a command from the control unit ; a flowmeter configured to measure a flow rate waveform (R) of blood in extracorporeal circulation; a control unit configured to acquire a waveform that is an addition of a pulsation waveform which is a flow rate fluctuation waveform of the blood included in the flow rate waveform (R) measured by the flowmeter and the rotary pump waveform generated when the rotary pump constantly rotates; and a display unit configured to display the waveform indicating a cardiac function of the human body in response to a command from the control unit ; an artificial lung ; a driving means for driving the rotary pump ; a blood removing catheter ; and a blood feeding catheter .
Method for intermediate storage of sealed insulating glass blanks , in which sealed insulating glass blanks are removed from a sealing station and are placed in an intermediate storage unit , wherein sealed insulating glass blanks are stored in the intermediate storage unit in a manner sorted according to production lots, wherein insulating glass is removed from the intermediate storage unit in a manner sorted according to order lots, characterized in that sealed insulating glass blanks are intermediately stored with spacers having a uniform width in a first area of the intermediate storage unit , and in that sealed insulating glass blanks are intermediately stored with spacers having widths deviating from usual widths in a second area of the intermediate storage unit .
A lighting device comprising terminals for connecting a main power supply, said lighting device comprising: - a light emitting module , - a control circuit comprising: a receiver for receiving a wireless control signal indicative of a power condition of said main power supply; and a sensor for sensing a presence of power of the main power supply at said terminals , and - an auxiliary power supply for powering said lighting device , characterized in that said control circuit is configured for powering said lighting device from said auxiliary power supply based on simultaneous absence of the power at said terminals and absence of receipt of said wireless control signal . - a light emitting module , - a control circuit comprising: a receiver for receiving a wireless control signal indicative of a power condition of said main power supply; and a sensor for sensing a presence of power of the main power supply at said terminals , and a receiver for receiving a wireless control signal indicative of a power condition of said main power supply; and a sensor for sensing a presence of power of the main power supply at said terminals , and - an auxiliary power supply for powering said lighting device ,
A sensor interface comprising: a first cantilever beam bundle comprising at least one resonator and a first output terminal; a second cantilever beam bundle comprising at least one resonator and a second output terminal; and a differential amplifier comprising a first input terminal electrically connected to the first output terminal of the first cantilever beam bundle and a second input terminal electrically connected to the second output terminal of the second cantilever beam bundle, and characterized in that a frequency band of a signal filtered by the first cantilever beam bundle is different from a frequency band of a signal filtered by the second cantilever beam bundle. a first cantilever beam bundle comprising at least one resonator and a first output terminal; a second cantilever beam bundle comprising at least one resonator and a second output terminal; and a differential amplifier comprising a first input terminal electrically connected to the first output terminal of the first cantilever beam bundle and a second input terminal electrically connected to the second output terminal of the second cantilever beam bundle, and characterized in that a frequency band of a signal filtered by the first cantilever beam bundle is different from a frequency band of a signal filtered by the second cantilever beam bundle.
A fastener cartridge assembly, comprising: a cartridge body comprising a cavity, and a sled and/or driver in the cartridge body; a lock moveably positioned in said cavity, wherein said lock is configured to move from a locked position to an unlocked position, and wherein the sled and/or driver is configured to engage the lock during a firing stroke to move the lock from the locked position to the unlocked position; and a fastener removably positioned in said cavity, wherein said fastener is secured to said lock when said lock is in said locked position, characterised in that said cavity comprises a key and said key releases said fastener from said lock when said lock moves to said unlocked position. a cartridge body comprising a cavity, and a sled and/or driver in the cartridge body; a lock moveably positioned in said cavity, wherein said lock is configured to move from a locked position to an unlocked position, and wherein the sled and/or driver is configured to engage the lock during a firing stroke to move the lock from the locked position to the unlocked position; and a fastener removably positioned in said cavity, wherein said fastener is secured to said lock when said lock is in said locked position, characterised in that said cavity comprises a key and said key releases said fastener from said lock when said lock moves to said unlocked position.
A recoater for applying a layer of build material capable of solidification on a working surface , wherein the recoater comprises a discharge port and a flattening member , wherein the discharge port is configured to, in use, discharge build material to form a heap of build material on the working surface at a position ahead of the flattening member relative a direction of spreading of the building material along the working surface , wherein the flattening member is configured to spread material from the heap of build material along the working surface in order to form the layer of build material on top of the working surface through a gap formed between a lower surface of the flattening member and the working surface by relative movement of the flattening member and the working surface, wherein the recoater further includes a shutter distanced from the discharge port in a height direction, wherein the shutter is configured to be movable between a closed position in which build material is not dispensed onto the working surface, and an opened position in which build material is dispensed onto the working surface, wherein the shutter is configured to, in the closed position, at least partially intercept the heap of build material so as to carry on the shutter at least a portion of the heap of build material at an area adjacent and ahead of the lower surface of the flattening member, and wherein in the closed position a lower surface of the shutter is substantially aligned with respect to the lower surface of the flattening member . wherein the discharge port is configured to, in use, discharge build material to form a heap of build material on the working surface at a position ahead of the flattening member relative a direction of spreading of the building material along the working surface , wherein the flattening member is configured to spread material from the heap of build material along the working surface in order to form the layer of build material on top of the working surface through a gap formed between a lower surface of the flattening member and the working surface by relative movement of the flattening member and the working surface, wherein the recoater further includes a shutter distanced from the discharge port in a height direction, wherein the shutter is configured to be movable between a closed position in which build material is not dispensed onto the working surface, and an opened position in which build material is dispensed onto the working surface, wherein the shutter is configured to, in the closed position, at least partially intercept the heap of build material so as to carry on the shutter at least a portion of the heap of build material at an area adjacent and ahead of the lower surface of the flattening member, and wherein in the closed position a lower surface of the shutter is substantially aligned with respect to the lower surface of the flattening member .
A method comprising: receiving , at a port, a reflected signal generated by an interrogation signal being reflected off a remote vibrating target; propagating the reflected signal down a first waveguide (312-1); splitting , by a first beam splitter (310-1), the reflected signal into a first portion propagating down the first waveguide (312-1) and a second portion propagating down a second waveguide (312-2); delaying , by a delay element , a phase of one of the first and second portions of the reflected signal; spatially phase shifting , by one or more spatial phase shifters (318-1, 318-2), one or both of the first or second portions of the reflected signal; splitting , by a second beam splitter (310-2), the first and second portions of the reflected signal into a third portion propagating down the first waveguide (312-1) and a fourth portion propagating down the second waveguide (312-2); detecting , by a split detector , an intensity difference between a first lobe and a second lobe of the third portion of the reflected signal; and calculating a Doppler frequency based on the intensity difference. receiving , at a port, a reflected signal generated by an interrogation signal being reflected off a remote vibrating target; propagating the reflected signal down a first waveguide (312-1); splitting , by a first beam splitter (310-1), the reflected signal into a first portion propagating down the first waveguide (312-1) and a second portion propagating down a second waveguide (312-2); delaying , by a delay element , a phase of one of the first and second portions of the reflected signal; spatially phase shifting , by one or more spatial phase shifters (318-1, 318-2), one or both of the first or second portions of the reflected signal; splitting , by a second beam splitter (310-2), the first and second portions of the reflected signal into a third portion propagating down the first waveguide (312-1) and a fourth portion propagating down the second waveguide (312-2); detecting , by a split detector , an intensity difference between a first lobe and a second lobe of the third portion of the reflected signal; and calculating a Doppler frequency based on the intensity difference.
A moldable rubber mixture comprising: uncured rubber pellets having a diameter between 1 and 10 mm and a length between 1 and 15 mm; and an anti-stick agent which coats the surface of each uncured rubber pellet and prevents each rubber pellet from sticking to the neighboring uncured rubber pellet, said anti-stick agent comprising a cured rubber powder with a particle size between 50 and 250 μm, wherein the cured rubber powder in the moldable rubber mixture is between 0.5 to 10 percent by weight of the uncured rubber pellets in the moldable rubber mixture.
A multi-modular power plant , comprising: a plurality of on-site nuclear power modules configured to generate a power plant output, wherein one or more of the nuclear power modules are designated as service module units which are configured to generate a first portion of the power plant output, and wherein a remainder of the nuclear power modules are configured to generate a second portion of the power plant output; a number of power plant systems which are configured to operate using electricity associated with a house load of the power plant , wherein the first portion of the power plant output is equal to or greater than the house load; and a switchyard configured to electrically connect the power plant to (a) a distributed electrical grid , wherein the distributed electrical grid is configured to service a plurality of geographically distributed consumers , characterized in that the switchyard is configured to electrically connect the power plant to (b) a dedicated electrical grid ,wherein the dedicated electrical grid is configured to provide electricity to a dedicated service load , and wherein the switchyard is configured to apply the second portion of the power plant output to the distributed electrical grid , and wherein the switchyard is further configured to apply at least part of the first portion of the power plant output to both the power plant systems and the dedicated service load during a loss of power from the distributed electrical grid . a plurality of on-site nuclear power modules configured to generate a power plant output, wherein one or more of the nuclear power modules are designated as service module units which are configured to generate a first portion of the power plant output, and wherein a remainder of the nuclear power modules are configured to generate a second portion of the power plant output; a number of power plant systems which are configured to operate using electricity associated with a house load of the power plant , wherein the first portion of the power plant output is equal to or greater than the house load; and a switchyard configured to electrically connect the power plant to (a) a distributed electrical grid , wherein the distributed electrical grid is configured to service a plurality of geographically distributed consumers , characterized in that the switchyard is configured to electrically connect the power plant to (b) a dedicated electrical grid ,wherein the dedicated electrical grid is configured to provide electricity to a dedicated service load , and wherein the switchyard is configured to apply the second portion of the power plant output to the distributed electrical grid , and wherein the switchyard is further configured to apply at least part of the first portion of the power plant output to both the power plant systems and the dedicated service load during a loss of power from the distributed electrical grid .
Apparatus for forming plastic preforms into plastic containers, having at least one forming station which has a blow mold within which the plastic preforms can be formed into the plastic containers by applying a flowable medium, and having an application device which applies the plastic preforms with the flowable medium, wherein the apparatus having a medium supply device for supplying the medium to the application device, characterized in that the media supply device has a control device for controlling a secondary outlet pressure and has at least one pressure inlet for supplying the flowable medium to the control device and at least two outlets for a secondary pressure.
A method for automatically processing blanks for forming packaging boxes, said method comprising the steps of: by means of a feeding conveyor feeding blank material in a feeding direction from a storage of blank material to a blank forming apparatus for cutting and creasing blank material into a custom sized blank ; and by means of said blank forming apparatus cutting and creasing blank material into a custom sized blank having a rectangular bottom panel and rectangular corner (46-49), side and end panels wherein the step of cutting and creasing blank material into the custom sized blank is performed during feeding of said blank material in feeding direction through the blank forming apparatus ; wherein the step of cutting and creasing blank material into a custom sized blank is performed such that by means of a cutting-out device of the blank forming apparatus comprising a pair of opposite cut-out knives cut-outs are provided between corner panels (46-49) and adjoining side panels of the blank, wherein the cutting-out device is displaced from an inactive position to an active position synchronously with feeding of the blank material in feeding direction, and wherein the cutting-out device is displaced in a direction opposite the feeding direction from the active position to the inactive position at a higher speed than the feeding speed of the blank material. by means of a feeding conveyor feeding blank material in a feeding direction from a storage of blank material to a blank forming apparatus for cutting and creasing blank material into a custom sized blank ; and by means of said blank forming apparatus cutting and creasing blank material into a custom sized blank having a rectangular bottom panel and rectangular corner (46-49), side and end panels wherein the step of cutting and creasing blank material into the custom sized blank is performed during feeding of said blank material in feeding direction through the blank forming apparatus ; wherein the step of cutting and creasing blank material into a custom sized blank is performed such that by means of a cutting-out device of the blank forming apparatus comprising a pair of opposite cut-out knives cut-outs are provided between corner panels (46-49) and adjoining side panels of the blank, wherein the cutting-out device is displaced from an inactive position to an active position synchronously with feeding of the blank material in feeding direction, and wherein the cutting-out device is displaced in a direction opposite the feeding direction from the active position to the inactive position at a higher speed than the feeding speed of the blank material.