mhurhangee/patent-ind-claim-en huggingface dataset:
An earphone, comprising: an earphone base ; an earphone plug , wherein the earphone plug is disposed on the earphone base; an eject pin for removing a card tray of a mobile terminal, characterised in that the eject pin is disposed in the earphone plug and the eject pin is connected to the earphone base by using a spring ; and in further comprising a limiting mechanism , wherein the limiting mechanism is connected to the earphone base, and controls the eject pin to extend out of the earphone plug along an axial direction of the earphone plug or to retract into the earphone plug. an earphone base ; an earphone plug , wherein the earphone plug is disposed on the earphone base; an eject pin for removing a card tray of a mobile terminal, characterised in that the eject pin is disposed in the earphone plug and the eject pin is connected to the earphone base by using a spring ; and in further comprising a limiting mechanism , wherein the limiting mechanism is connected to the earphone base, and controls the eject pin to extend out of the earphone plug along an axial direction of the earphone plug or to retract into the earphone plug.
A reinforced substrate used for molding a composite material , the reinforced substrate comprising: a first region including reinforcing fibers extending in a fiber direction that is aligned in a single direction; and a second region including reinforcing fibers aligned in the same direction as the fiber direction and being thinner than the first region; the first region and the second region being lined up in alternating fashion in a plane along a direction intersecting the fiber direction, characterized in that the reinforced substrate further comprises auxiliary fibers laminated on the reinforcing fibers so as to extend in a direction that intersects the fiber direction, and joined to at least a portion of the reinforcing fibers to hold the reinforcing fibers; and that the reinforced substrate further comprises a stitching yarn that stitches and joins the reinforcing fibers and the auxiliary fibers together. a first region including reinforcing fibers extending in a fiber direction that is aligned in a single direction; and a second region including reinforcing fibers aligned in the same direction as the fiber direction and being thinner than the first region; the first region and the second region being lined up in alternating fashion in a plane along a direction intersecting the fiber direction, characterized in that the reinforced substrate further comprises auxiliary fibers laminated on the reinforcing fibers so as to extend in a direction that intersects the fiber direction, and joined to at least a portion of the reinforcing fibers to hold the reinforcing fibers; and that the reinforced substrate further comprises a stitching yarn that stitches and joins the reinforcing fibers and the auxiliary fibers together.
A memory (124-1; 124-2), comprising: a plurality of memory cells arranged in a memory array area of a memory array size; a wordline (WL ) coupled to the plurality of memory cells ; a sense amplifier coupled to one of the plurality of memory cells ; and a timing circuit coupled to a wordline clock independent of a wordline decoder , configured to enable (1116; SAEN) the sense amplifier , and comprising a delay stage and a dummy wordline arranged in series; wherein the dummy wordline is configured to emulate at least one first portion of the wordline (WL ), and wherein the delay stage is configured to emulate a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL ), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size. a plurality of memory cells arranged in a memory array area of a memory array size; a wordline (WL ) coupled to the plurality of memory cells ; a sense amplifier coupled to one of the plurality of memory cells ; and a timing circuit coupled to a wordline clock independent of a wordline decoder , configured to enable (1116; SAEN) the sense amplifier , and comprising a delay stage and a dummy wordline arranged in series; coupled to a wordline clock independent of a wordline decoder , configured to enable (1116; SAEN) the sense amplifier , and comprising a delay stage and a dummy wordline arranged in series; wherein the dummy wordline is configured to emulate at least one first portion of the wordline (WL ), and wherein the delay stage is configured to emulate a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL ), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size. a loading corresponding to a loading of at least one of the plurality of memory cells and at least a second portion of the wordline (WL ), wherein the second portion accounts for a wordline loading in a memory (124-2; 124-1) of a different memory array size.
An indoor unit of an air conditioner comprising: a housing provided with a suction port and a discharge port ; a main fan configured to draw air through the suction port and discharge air through the discharge port ; a first auxiliary fan configured to draw, through a first inlet provided near the discharge port , at least a portion of air discharged through the discharge port by the main fan ; a second auxiliary fan configured to draw, through a second inlet provided near the discharge port , at least a portion of air discharged through the discharge port by the main fan ; and a controller configured to control a rotation speed of the first auxiliary fan and a rotation speed of the second auxiliary fan so that a direction in which the first auxiliary fan adjusts airflow discharged through the discharge port by drawing the at least a portion of air through the first inlet , is different from a direction in which the second auxiliary fan adjusts airflow discharged through the discharge port by drawing the at least a portion of air through the second inlet . a housing provided with a suction port and a discharge port ; a main fan configured to draw air through the suction port and discharge air through the discharge port ; a first auxiliary fan configured to draw, through a first inlet provided near the discharge port , at least a portion of air discharged through the discharge port by the main fan ; a second auxiliary fan configured to draw, through a second inlet provided near the discharge port , at least a portion of air discharged through the discharge port by the main fan ; and a controller configured to control a rotation speed of the first auxiliary fan and a rotation speed of the second auxiliary fan so that a direction in which the first auxiliary fan adjusts airflow discharged through the discharge port by drawing the at least a portion of air through the first inlet , is different from a direction in which the second auxiliary fan adjusts airflow discharged through the discharge port by drawing the at least a portion of air through the second inlet .
A method of making a semiconductor device comprising: forming a plurality of first transistors having a first operating voltage, each first transistor comprising first spaced-apart source and drain regions defining a first channel therebetween and a first punch-through stop, PTS, layer in a semiconductor substrate , a first gate oxide above the first channel, and a first gate electrode above the first gate oxide, the first PTS layer being at a first depth below the first channel, and the first channel comprising a first superlattice ; and forming a plurality of second transistors having a second operating voltage higher than the first operating voltage, each second transistor comprising second spaced-apart source and drain regions defining a second channel therebetween and a second PTS layer in the semiconductor substrate , a second gate oxide above the first channel, and a second gate electrode above the second gate oxide, the second PTS layer being at a second depth below the second channel and being greater than the first depth, and the second channel comprising a second superlattice ; wherein the first and second superlattices are formed from a single superlattice film at a same level on the semiconductor substrate ; wherein forming the first and second transistors further comprises performing a rapid thermal anneal, RTA, prior to formation of the first and second superlattices to retain PTS dopant peaks, and performing a gate oxidation as a rapid thermal oxidation, RTO, after forming the superlattices to retain the PTS dopant peaks during the RTO. forming a plurality of first transistors having a first operating voltage, each first transistor comprising first spaced-apart source and drain regions defining a first channel therebetween and a first punch-through stop, PTS, layer in a semiconductor substrate , a first gate oxide above the first channel, and a first gate electrode above the first gate oxide, the first PTS layer being at a first depth below the first channel, and the first channel comprising a first superlattice ; and forming a plurality of second transistors having a second operating voltage higher than the first operating voltage, each second transistor comprising second spaced-apart source and drain regions defining a second channel therebetween and a second PTS layer in the semiconductor substrate , a second gate oxide above the first channel, and a second gate electrode above the second gate oxide, the second PTS layer being at a second depth below the second channel and being greater than the first depth, and the second channel comprising a second superlattice ; wherein the first and second superlattices are formed from a single superlattice film at a same level on the semiconductor substrate ; wherein forming the first and second transistors further comprises performing a rapid thermal anneal, RTA, prior to formation of the first and second superlattices to retain PTS dopant peaks, and performing a gate oxidation as a rapid thermal oxidation, RTO, after forming the superlattices to retain the PTS dopant peaks during the RTO.
Process for producing cement, the process comprising providing heat to a cement clinker manufacturing process using a secondary fuel, wherein the secondary fuel comprises cellulose and plastic and is in the form of pellets of a size between 3-25 mm thickness, having a calorific value of 16 GJ/ton or more, wherein the pellets individually have an average density between 0.7 and 1.3 kg/dm 3 , and wherein said secondary fuel is supplied at a place between the kiln inlet and the first cyclone, wherein the cement clinker is cooled and milled to cement powder.
A method for decomposing phenol byproducts produced in a phenol production process, the method comprising: supplying the phenol byproducts to a reactive distillation column to perform a decomposition reaction; recovering tar from a lower part of the reactive distillation column; recovering acetophenone from a middle portion of a side part of the reactive distillation column; recovering an active ingredient from an upper part of the reactive distillation column; mixing the recovered acetophenone with the recovered tar; and exchanging heat between the phenol byproducts supplied to the reactive distillation column and a mixed stream of the recovered tar and the recovered acetophenone to heat the phenol byproducts; wherein the active ingredient comprises phenol, alpha-methylstyrene, and cumene. supplying the phenol byproducts to a reactive distillation column to perform a decomposition reaction; recovering tar from a lower part of the reactive distillation column; recovering acetophenone from a middle portion of a side part of the reactive distillation column; recovering an active ingredient from an upper part of the reactive distillation column; mixing the recovered acetophenone with the recovered tar; and exchanging heat between the phenol byproducts supplied to the reactive distillation column and a mixed stream of the recovered tar and the recovered acetophenone to heat the phenol byproducts; wherein the active ingredient comprises phenol, alpha-methylstyrene, and cumene.
Passive electrical component, especially a coil, having an interlayer, wherein the interlayer has a lower coefficient of thermal expansion than the surface of the electrical component covered with the interlayer, and disposed atop that a plasma-polymeric carbon-containing coating having a carbon content measured at a depth of 80 nm away from the side of the plasma-polymeric coating remote from the interlayer, wherein the plasma-polymeric coating comprises a carbon content of 50 to 100 atom%, preferably 50 to 90 atom%, or is configured as an organometallic coating a carbon content of 2 to 50 atom%, in each case measured by means of XPS and based on the atoms detected by XPS, and wherein the plasma-polymeric layer has a thickness of 100 nm to 100 μm.
A process gasket for sealing against a process vessel face, comprising: an annular ring formed of a gasket material having first and second opposed surfaces which are configured to seal against respective first and second process vessels faces; an opening in a center of the annular ring which is configured to receive a process fluid therein; a cavity formed in the annular ring; a process variable sensor carried in the cavity of the annular ring configured to sense a process variable of the process fluid; electrical connections that couple to the process variable sensor and extend from the cavity through the annular ring to a location outside of the annular ring; and measurement circuitry coupled to the process variable sensor configured to provide a process variable output related to the sensed process variable output, characterised in that the process gasket includes a paddle extension which is formed as an integral component with the process gasket and which carries transmitter electronics for providing process variable measurement and communication, the transmitter electronics including the measurement circuitry , a microprocessor coupled to the measurement circuitry , and a communication circuitry . an annular ring formed of a gasket material having first and second opposed surfaces which are configured to seal against respective first and second process vessels faces; an opening in a center of the annular ring which is configured to receive a process fluid therein; a cavity formed in the annular ring; a process variable sensor carried in the cavity of the annular ring configured to sense a process variable of the process fluid; electrical connections that couple to the process variable sensor and extend from the cavity through the annular ring to a location outside of the annular ring; and measurement circuitry coupled to the process variable sensor configured to provide a process variable output related to the sensed process variable output, characterised in that the process gasket includes a paddle extension which is formed as an integral component with the process gasket and which carries transmitter electronics for providing process variable measurement and communication, the transmitter electronics including the measurement circuitry , a microprocessor coupled to the measurement circuitry , and a communication circuitry .
A nucleic acid array , comprising: a support having locations that, in operation, receive biological samples comprising nucleic acid sequences and differing from one another to respond differently in successive cycles of fluorescent imaging; and a fiducial feature on the support, the fiducial feature having a fluorescent material that exhibits an absorption spectrum and an emission spectrum that permits the fiducial feature to be excited by different wavelengths of light used in the successive cycles of fluorescent imaging; wherein the successive cycles of fluorescent imaging are cycles performed utilizing light at at least two different wavelengths, and wherein the fluorescent material of the fiducial feature is responsive to both of the at least two different wavelengths; and wherein the fiducial feature comprises a non-closed shape having at least a portion that extends over 180° to at least begin to enclose an inner portion and including at least one opening . a support having locations that, in operation, receive biological samples comprising nucleic acid sequences and differing from one another to respond differently in successive cycles of fluorescent imaging; and a fiducial feature on the support, the fiducial feature having a fluorescent material that exhibits an absorption spectrum and an emission spectrum that permits the fiducial feature to be excited by different wavelengths of light used in the successive cycles of fluorescent imaging; wherein the successive cycles of fluorescent imaging are cycles performed utilizing light at at least two different wavelengths, and wherein the fluorescent material of the fiducial feature is responsive to both of the at least two different wavelengths; and wherein the fiducial feature comprises a non-closed shape having at least a portion that extends over 180° to at least begin to enclose an inner portion and including at least one opening .
A method for producing a low-sulfur bunker fuel composition, the method comprising: hydrotreating a vacuum resid feed stream with hydrogen in the presence of a hydrotreating catalyst at a weight average bed temperature (WABT) of from 550°F (288°C) to 800°F (427°C), a total pressure of from 300 psig (2.1 MPag) to 3000 psig (20.7 MPag), an LHSV from 0.1 hr -1 to 20 hr -1 and a hydrogen treat gas rate from 500 scf/bbl (85 Nm 3 /m 3 ) to 10000 scf/bbl (1700 Nm 3 /m 3 ), to reduce sulfur to no more than 1500 parts per million (wppm) without substantially cracking the vacuum resid; and blending the hydrotreated vacuum resid with no more than 10 vol% of a first diesel boiling range hydrocarbon stream and no more than 40 vol% of a second diesel boiling range hydrocarbon stream, to form the low-sulfur bunker fuel composition, wherein the low-sulfur bunker fuel composition comprises at least 40 vol% of a product of petroleum refining that is not distilled off in either an atmospheric or a vacuum distillation column, wherein the vacuum resid feed stream has 1000 to 10000 wppm sulfur, the first diesel boiling range hydrocarbon stream has no more than 20 wppm sulfur, and the second diesel boiling range hydrocarbon stream has no more than 10 wppm sulfur. hydrotreating a vacuum resid feed stream with hydrogen in the presence of a hydrotreating catalyst at a weight average bed temperature (WABT) of from 550°F (288°C) to 800°F (427°C), a total pressure of from 300 psig (2.1 MPag) to 3000 psig (20.7 MPag), an LHSV from 0.1 hr -1 to 20 hr -1 and a hydrogen treat gas rate from 500 scf/bbl (85 Nm 3 /m 3 ) to 10000 scf/bbl (1700 Nm 3 /m 3 ), to reduce sulfur to no more than 1500 parts per million (wppm) without substantially cracking the vacuum resid; and blending the hydrotreated vacuum resid with no more than 10 vol% of a first diesel boiling range hydrocarbon stream and no more than 40 vol% of a second diesel boiling range hydrocarbon stream, to form the low-sulfur bunker fuel composition, wherein the low-sulfur bunker fuel composition comprises at least 40 vol% of a product of petroleum refining that is not distilled off in either an atmospheric or a vacuum distillation column, wherein the vacuum resid feed stream has 1000 to 10000 wppm sulfur, the first diesel boiling range hydrocarbon stream has no more than 20 wppm sulfur, and the second diesel boiling range hydrocarbon stream has no more than 10 wppm sulfur.
Sprinkler system for a fire-extinguishing system having multiple sprinklers , wherein the sprinkler system comprises a sprinkler and a shielding hood , wherein the sprinkler comprises a trigger element and a base element , wherein the shielding hood is configured to shield the trigger element from extinguishing agent from neighbouring sprinklers , wherein a proximal sprinkler end is connectable to an extinguishing-agent-supply line , wherein the base element is arranged at the proximal sprinkler end , wherein the trigger element is arranged between the proximal sprinkler end and a distal sprinkler end , wherein the shielding hood comprises an opening with a closed perimeter, wherein, in a shielding state of the sprinkler system , the sprinkler is arranged in the opening such that the shielding hood surrounds the sprinkler between the proximal sprinkler end and the trigger element , wherein the base element defines a stop position in the direction of the proximal sprinkler end such that the shielding hood is not displaceable beyond the proximal sprinkler end from the shielding state, and wherein the opening is dimensioned in such a way that, in a mounting state of the sprinkler system , the shielding hood is movable by way of displacement of the opening surrounding the sprinkler from the shielding state beyond the distal sprinkler end along a mounting portion of the sprinkler , wherein the mounting portion comprises sprinkler portions with a small cross section, characterized in that the mounting portion comprises sprinkler portions with a large cross section that are able to be overcome, wherein a sprinkler portion with a small cross section is a sprinkler portion whose cross section is arrangeable in the opening of the shielding hood with a longitudinal axis of the sprinkler and a hood axis of the shielding hood oriented substantially parallel to one another, wherein a sprinkler portion with a large cross section is a sprinkler portion whose cross section is larger than a cross section of the opening with the longitudinal axis of the sprinkler and the hood axis oriented substantially parallel to one another, wherein a sprinkler portion with a large cross section is able to be overcome if the opening is able to be moved past the sprinkler portion with a large cross section by way of additional tilting of the shielding hood .
A method for a wireless communications system, the wireless communication system comprising a terminal and base stations using a first Radio Access Technology, RAT, providing cells which can be selected to serve the terminal , the method comprising: the terminal camping on to a selected cell provided by a base station of the wireless communication system using the first RAT; the base station triggering the terminal to access a cell provided by another base station using a second RAT after the base station receives a specified number of unsuccessful attempts to initiate access from the terminal using the first RAT; when the terminal has received the trigger, the terminal using previously stored system information for sending a message for initiating access to the another base station using the second RAT; and the terminal camping on to the cell provided by the another base station using the second RAT. the terminal camping on to a selected cell provided by a base station of the wireless communication system using the first RAT; the base station triggering the terminal to access a cell provided by another base station using a second RAT after the base station receives a specified number of unsuccessful attempts to initiate access from the terminal using the first RAT; when the terminal has received the trigger, the terminal using previously stored system information for sending a message for initiating access to the another base station using the second RAT; and the terminal camping on to the cell provided by the another base station using the second RAT.