mhurhangee/patent-ind-claim-en huggingface dataset:
A first assembly comprising: a plug body encasing a plurality of electrical receptacles and first ends of a plurality of wires electrically connected to the electrical receptacles , the plug body including a threaded coupling unitary therewith; a conduit adapter comprising a first threaded surface for engagement with the threaded coupling ; a threaded conduit ; characterized in that the conduit adapter comprises a second threaded surface to engage with the threaded conduit , and in that the first assembly further comprises a bushing positioned within the conduit adapter , wherein the bushing comprises a cylindrical body and a lip extending from an end of the cylindrical body , wherein the lip sits over a terminal end of the threaded conduit that is engaged with the second threaded surface to allow the plurality of wires to extend from the plug body , through the conduit adapter , and into the threaded conduit . a plug body encasing a plurality of electrical receptacles and first ends of a plurality of wires electrically connected to the electrical receptacles , the plug body including a threaded coupling unitary therewith; a conduit adapter comprising a first threaded surface for engagement with the threaded coupling ; a threaded conduit ; characterized in that the conduit adapter comprises a second threaded surface to engage with the threaded conduit , and in that the first assembly further comprises a bushing positioned within the conduit adapter , wherein the bushing comprises a cylindrical body and a lip extending from an end of the cylindrical body , wherein the lip sits over a terminal end of the threaded conduit that is engaged with the second threaded surface to allow the plurality of wires to extend from the plug body , through the conduit adapter , and into the threaded conduit .
Method for revamping an existing rolling plant for producing a final strip (P) starting from a slab having a determinate starting thickness, the existing rolling plant comprising: - at least one heating furnace configured to heat at least said slab to a determinate starting temperature; - at least one reversible roughing stand configured to subject said slab to one or more rolling passes in order to obtain an intermediate rolled product ; - a compact rolling train disposed operatively in line with said at least one roughing stand , comprising a plurality of finishing stands located in line with each other and configured to reduce the thickness of said intermediate rolled product , until said final strip (P) having a determinate final thickness is obtained; characterized in that in order to obtain a revamped plant , the method provides to operate on said existing plant by carrying out at least one step of modifying said rolling train , in which at least one initial stand of said rolling train is moved away from the remaining stands located downstream of it and brought closer to the roughing stand , thus dividing the rolling train into a pre-finishing unit and a finishing unit , wherein said pre-finishing unit is positioned at a minimum distance (D) from said roughing stand such that the intermediate rolled product is not operatively engaged with both respective stands simultaneously, and at least one step of installing a rapid heating device , consisting of selectively activatable elements, between said pre-finishing unit and said finishing unit , in order to heat said pre-finished rolled product , at exit from said pre-finishing unit , so that the temperature of said final strip (P) in correspondence with the outlet of the last stand of said finishing unit is higher than at least 830°C, even for a minimum thickness of less than 1.2 mm. - at least one heating furnace configured to heat at least said slab to a determinate starting temperature; - at least one reversible roughing stand configured to subject said slab to one or more rolling passes in order to obtain an intermediate rolled product ; - a compact rolling train disposed operatively in line with said at least one roughing stand , comprising a plurality of finishing stands located in line with each other and configured to reduce the thickness of said intermediate rolled product , until said final strip (P) having a determinate final thickness is obtained;
A touch screen apparatus comprising: a first touch panel having a plurality of first touch sensors (Cm), wherein a capacitance in each first touch sensor (Cm) is changed by a user's touch; a second touch panel having a plurality of second touch sensors (Rm), wherein a resistance value in each second touch sensor (Rm) is changed by a user's touch; and a touch sensing circuit for generating three-dimensional 3D touch information (TI) by sensing a touch position through the first touch sensor (Cm) and sensing a touch force through the second touch sensor (Rm) on the basis of touch synchronization signal (Tsync), wherein the touch synchronization signal (Tsync) has first and second periods (P1, P2), and the first period (P1) includes at least one of first sensing period (SP1), and at least one of second sensing period (SP2) which is different from the first sensing period (SP1), and wherein the touch sensing circuit is adapted to generate touch raw data (TRD) by sensing the change of the capacitance in the first touch sensor (Cm) for the first sensing period (SP1) of the first period (P1), to generate force raw data (FRD) by sensing the change of the resistance value in the second touch sensor (Rm) for the second sensing period (SP2) of the first period (P1), and to generate the 3D touch information (TI) based on the touch raw data (TRD) and the force raw data (FRD) for the second period (P2). a first touch panel having a plurality of first touch sensors (Cm), wherein a capacitance in each first touch sensor (Cm) is changed by a user's touch; a second touch panel having a plurality of second touch sensors (Rm), wherein a resistance value in each second touch sensor (Rm) is changed by a user's touch; and a touch sensing circuit for generating three-dimensional 3D touch information (TI) by sensing a touch position through the first touch sensor (Cm) and sensing a touch force through the second touch sensor (Rm) on the basis of touch synchronization signal (Tsync), wherein the touch synchronization signal (Tsync) has first and second periods (P1, P2), and the first period (P1) includes at least one of first sensing period (SP1), and at least one of second sensing period (SP2) which is different from the first sensing period (SP1), and wherein the touch sensing circuit is adapted to generate touch raw data (TRD) by sensing the change of the capacitance in the first touch sensor (Cm) for the first sensing period (SP1) of the first period (P1), to generate force raw data (FRD) by sensing the change of the resistance value in the second touch sensor (Rm) for the second sensing period (SP2) of the first period (P1), and to generate the 3D touch information (TI) based on the touch raw data (TRD) and the force raw data (FRD) for the second period (P2).
A composition comprising 1) a coating, wherein the coating comprises an epoxy, an acrylic, a urethane, a silicone, a rubber, or a combination thereof; and 2) porous polymeric particles disposed in the coating, wherein the porous polymeric particles comprise a polymerized product of a reaction mixture comprising: a) a first phase comprising i) a compound of Formula (I) HO(-CH 2 -CH(OH)-CH2-O) n -H (I) wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; b) a second phase dispersed in the first phase, wherein a volume of the first phase is greater than a volume of the second phase and wherein the second phase comprises i) a monomer composition comprising a monomer of Formula (II) CH 2 =C(R 1 )-(CO)-O[-CH 2 -CH 2 -O] p -(CO)-C(R 1 )=CH 2 (II) wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles. a) a first phase comprising i) a compound of Formula (I) HO(-CH 2 -CH(OH)-CH2-O) n -H (I) wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; i) a compound of Formula (I) HO(-CH 2 -CH(OH)-CH2-O) n -H (I) wherein n is an integer equal to at least 1; and ii) a nonionic surfactant; b) a second phase dispersed in the first phase, wherein a volume of the first phase is greater than a volume of the second phase and wherein the second phase comprises i) a monomer composition comprising a monomer of Formula (II) CH 2 =C(R 1 )-(CO)-O[-CH 2 -CH 2 -O] p -(CO)-C(R 1 )=CH 2 (II) wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles. i) a monomer composition comprising a monomer of Formula (II) CH 2 =C(R 1 )-(CO)-O[-CH 2 -CH 2 -O] p -(CO)-C(R 1 )=CH 2 (II) wherein p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and p is an integer equal to at least 1; R 1 is a hydrogen or alkyl; and ii) a poly(propylene glycol) having a weight average molecular weight of at least 500 grams/mole, wherein the poly(propylene glycol) is removed from the polymerized product to provide the porous polymeric particles.
A method of making a semiconductor device comprising: - providing a mixed substrate disposed within a chamber, wherein the mixed substrate comprises an active area surface having a single crystalline surface morphology and an insulator surface having an amorphous surface morphology; and - supplying trisilane to the chamber under chemical vapor deposition conditions effective to deposit a Si-containing film onto the substrate directly onto each of the active area surface and the insulator surface by thermal chemical vapor deposition, wherein the Si-containing film has a first thickness T 1 over the active area surface and a second thickness T 2 over the insulator surface such that T 1 :T 2 is in the range of 2:1 to 1:2. - providing a mixed substrate disposed within a chamber, wherein the mixed substrate comprises an active area surface having a single crystalline surface morphology and an insulator surface having an amorphous surface morphology; and - supplying trisilane to the chamber under chemical vapor deposition conditions effective to deposit a Si-containing film onto the substrate directly onto each of the active area surface and the insulator surface by thermal chemical vapor deposition,
A general-purpose engine being a four-stroke engine, the general-purpose engine comprising an engine main body having a canister muffler connected to a cylinder ; and a cooling mechanism for cooling the engine main body , wherein the cooling mechanism includes: a cooling fan for generating a cooling air flow by rotating; a blowing part for blowing the cooling air flow generated by rotation of the cooling fan ; and a cooling air circulation opening of a shroud covering the engine main body and the cooling mechanism is disposed at an upper part of a partition which partitions a cylinder chamber to which the cylinder is provided and a muffler chamber to which the canister muffler is provided, and communicates a side of a cylinder head of the cylinder chamber and an upward side of the muffler chamber , and circulates cooling air from the side of the cylinder head of the cylinder chamber to the muffler chamber , wherein a ventilation port is formed directly above the cooling air circulation opening , a shroud portion where the ventilation port is arranged is an upper wall of the cylinder chamber , the ventilation port being configured to emit to outside the cooling air circulating within the shroud during driving of the general-purpose engine , and heat within the shroud during stop of the general-purpose engine . a cooling fan for generating a cooling air flow by rotating; a blowing part for blowing the cooling air flow generated by rotation of the cooling fan ; and a cooling air circulation opening of a shroud covering the engine main body and the cooling mechanism is disposed at an upper part of a partition which partitions a cylinder chamber to which the cylinder is provided and a muffler chamber to which the canister muffler is provided, and communicates a side of a cylinder head of the cylinder chamber and an upward side of the muffler chamber , and circulates cooling air from the side of the cylinder head of the cylinder chamber to the muffler chamber , wherein a ventilation port is formed directly above the cooling air circulation opening , a shroud portion where the ventilation port is arranged is an upper wall of the cylinder chamber , the ventilation port being configured to emit to outside the cooling air circulating within the shroud during driving of the general-purpose engine , and heat within the shroud during stop of the general-purpose engine .
A structure , comprising: a perforated first skin ; a second skin ; and a core comprising a first sidewall , a second sidewall , a first baffle and a second baffle , the core forming a plurality of cavities vertically between the perforated first skin and the second skin; the first baffle extending between a first baffle first end and a first baffle second end , the first baffle connected to the perforated first skin at the first baffle first end, and the first baffle connected to the second skin at the first baffle second end by a first moveable joint; the second baffle extending between a second baffle first end and a second baffle second end , the second baffle connected to the perforated first skin at the second baffle first end, and the second baffle connected to the second skin at the second baffle second end; and the plurality of cavities comprising a first cavity, the first cavity extending laterally between the first sidewall and the second sidewall, and the first cavity extending longitudinally between the first baffle and the second baffle, characterised in that : the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel. a perforated first skin ; a second skin ; and a core comprising a first sidewall , a second sidewall , a first baffle and a second baffle , the core forming a plurality of cavities vertically between the perforated first skin and the second skin; the first baffle extending between a first baffle first end and a first baffle second end , the first baffle connected to the perforated first skin at the first baffle first end, and the first baffle connected to the second skin at the first baffle second end by a first moveable joint; the second baffle extending between a second baffle first end and a second baffle second end , the second baffle connected to the perforated first skin at the second baffle first end, and the second baffle connected to the second skin at the second baffle second end; and the plurality of cavities comprising a first cavity, the first cavity extending laterally between the first sidewall and the second sidewall, and the first cavity extending longitudinally between the first baffle and the second baffle, characterised in that : the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel. the second skin comprises a first panel and a second panel that is connected to the first panel at a second moveable joint; the first baffle is connected to the first panel at a first end of the first panel by the first moveable joint; and the second baffle is connected to the second panel at a first end of the second panel.
A coupling system comprising at least a male component and a female component , wherein the male component is insertable into the female component along a longitudinal axis common to the male and female components, and is retained movably by the female component , characterized in that : the male component comprises a substantially cylindrical elongated body , an open end and an opposite, closed end ; the female component comprises a substantially cylindrical elongated body having an inner longitudinal bore of dimensions which are adapted to the insertion and retaining of the male component , an open extremity and an opposite, closed extremity ; the male component is insertable via its open end into the open end of the female component via a simultaneous longitudinal displacement movement and a quarter-rotation movement; and the male component includes blocking means preventing longitudinal axis displacement and rotation, which cooperate with complementary stopping means present in the female component . the male component comprises a substantially cylindrical elongated body , an open end and an opposite, closed end ; the female component comprises a substantially cylindrical elongated body having an inner longitudinal bore of dimensions which are adapted to the insertion and retaining of the male component , an open extremity and an opposite, closed extremity ; the male component is insertable via its open end into the open end of the female component via a simultaneous longitudinal displacement movement and a quarter-rotation movement; and the male component includes blocking means preventing longitudinal axis displacement and rotation, which cooperate with complementary stopping means present in the female component .
A pharmaceutical composition for use in a method of treating a small lymphocytic lymphoma (SLL) in an individual in need thereof, wherein the pharmaceutical composition comprises 5-{[ -2,5-dimethyl-4-(tetrahydro-2H-pyran-4-ylmethyl)piperazin-1-yl]carbonyl}-N-(5-fluoro-2-methylpyrimidin-4-yl)-6,6-dimethyl-1,4,5,6-tetrahydropyrrolo[3,4-c]pyrazol-3-amine, or a pharmaceutically acceptable salt thereof.
A method in a wireless receiver of compensating common phase error in a received wireless signal , the method comprising: receiving, from a wireless transmitter , a value N of a length of an orthogonal cover code, in downlink control information, DCI; receiving , from the wireless transmitter , a first symbol of the wireless signal , the first symbol comprising: a demodulation reference signal, DM-RS, that is code division multiplexed with a common phase error reference signal, CPE-RS, characterised in that the DM-RS uses for the code division multiplexing an orthogonal cover code with a length M, the CPE-RS uses for the code division multiplexing the length N orthogonal cover code, wherein N is less than or equal to M, and N corresponds to the received DCI value; determining M code points in the first symbol associated with the orthogonal cover code with the length M of the DM-RS; estimating a channel corresponding to the received wireless signal using the M code points associated with the DM-RS; estimating the CPE-RS corresponding to the estimated channel using N code points of the M code points associated with the DM-RS; and compensating the estimated channel for phase error using the estimated CPE-RS. receiving, from a wireless transmitter , a value N of a length of an orthogonal cover code, in downlink control information, DCI; receiving , from the wireless transmitter , a first symbol of the wireless signal , the first symbol comprising: a demodulation reference signal, DM-RS, that is code division multiplexed with a common phase error reference signal, CPE-RS, characterised in that the DM-RS uses for the code division multiplexing an orthogonal cover code with a length M, the CPE-RS uses for the code division multiplexing the length N orthogonal cover code, wherein N is less than or equal to M, and N corresponds to the received DCI value; determining M code points in the first symbol associated with the orthogonal cover code with the length M of the DM-RS; estimating a channel corresponding to the received wireless signal using the M code points associated with the DM-RS; estimating the CPE-RS corresponding to the estimated channel using N code points of the M code points associated with the DM-RS; and compensating the estimated channel for phase error using the estimated CPE-RS.
Kit for creating floral architecture, wherein said floral architecture is the combination of components for designing various systems, installations in spaces and architecture, and said floral architecture is comprising: pot with mats for plant growing , supporting structures for machines , meshes , flexible water tank , water pump , time switch - timer , a computer , plug , irrigation system , door , filling hole , water purifier , system for automatic water tank filling , exterior masks or wall claddings , pergola , advertising space , seating area , lighting and , solar power system , traffic signalling , water fountain , storage box , drainage of excess water , fixer for flower pots stability , distribution box with a cover , drainage water hose , water supply hose , fence , distribution channel , divider , stretching system , flexible supporting structure for flower pots .
An orientable nozzle assembly for an additive manufacturing system, comprising: a nozzle and an elbow , the elbow is in fluid communication with an output of an extruder of the additive manufacturing system, the elbow having a first angle of bend; characterized in that , the nozzle is operably coupled by a first flange and a second flange to the elbow , that the nozzle has a second angle of bend; and that the first flange and the second flange are rotatable relative to one another. a nozzle and an elbow , the elbow is in fluid communication with an output of an extruder of the additive manufacturing system, the elbow having a first angle of bend; characterized in that , the nozzle is operably coupled by a first flange and a second flange to the elbow , that the nozzle has a second angle of bend; and that the first flange and the second flange are rotatable relative to one another.