mhurhangee/ep-ind-claims huggingface dataset:
A triggerable composition for two-stage, controlled release of a functional active chemical comprising: a betaine ester of a functional active with at least one hydroxyl group that releases the functional active through a hydrolysis reaction upon contact with an aqueous medium, and an encapsulation material for encapsulating said betaine ester including a functional active, said encapsulation material triggerable to release said betaine ester upon the occurrence of an environmental stimulus; wherein the betaine ester of the functional active has the formula: wherein the R group is a radical of a volatile fragrance alcohol with one or more hydroxyl groups; the moiety is independently derived from a fragrance alcohol of more than four carbon atoms of synthetic or natural origin; each R1, R2, R3, R4 and R5 independently is selected from hydrogen, alkyl, hydroxalkyl, aryl, or aromatic groups; wherein groups R3-R5 include less than 8 carbon atoms in totality; n is ≥ 1, and ≤ 4; and X is a compatible anion. a betaine ester of a functional active with at least one hydroxyl group that releases the functional active through a hydrolysis reaction upon contact with an aqueous medium, and an encapsulation material for encapsulating said betaine ester including a functional active, said encapsulation material triggerable to release said betaine ester upon the occurrence of an environmental stimulus; wherein the betaine ester of the functional active has the formula: wherein the R group is a radical of a volatile fragrance alcohol with one or more hydroxyl groups; the moiety is independently derived from a fragrance alcohol of more than four carbon atoms of synthetic or natural origin; each R1, R2, R3, R4 and R5 independently is selected from hydrogen, alkyl, hydroxalkyl, aryl, or aromatic groups; wherein groups R3-R5 include less than 8 carbon atoms in totality; n is ≥ 1, and ≤ 4; and X is a compatible anion. the R group is a radical of a volatile fragrance alcohol with one or more hydroxyl groups; the moiety is independently derived from a fragrance alcohol of more than four carbon atoms of synthetic or natural origin; each R1, R2, R3, R4 and R5 independently is selected from hydrogen, alkyl, hydroxalkyl, aryl, or aromatic groups; wherein groups R3-R5 include less than 8 carbon atoms in totality; n is ≥ 1, and ≤ 4; and X is a compatible anion.
A high and low-pressure integrated air pump, comprising: a housing including an air inlet and an air outlet; a high-pressure pump disposed within the housing, in fluid communication with the air inlet and in fluid communication with the air outlet via a first outlet passage; and a low-pressure pump disposed within the housing, in fluid communication with the air inlet and in fluid communication with the air outlet via a second outlet passage; a pressure valve disposed between the low-pressure pump and the air outlet, the pressure valve including: a signal switch in communication with a control circuit, a diaphragm in fluid communication with the low-pressure pump, and a trigger disposed between and in communication with the signal switch and the diaphragm, wherein, when the pressure within the low-pressure pump reaches a threshold, the trigger is biased toward the signal switch and triggers the signal switch to send a signal to the control circuit, wherein the signal switch and the control circuit are configured to cooperate to automatically disengage the low-pressure pump and engage the high-pressure pump in response to the signal. a housing including an air inlet and an air outlet; a high-pressure pump disposed within the housing, in fluid communication with the air inlet and in fluid communication with the air outlet via a first outlet passage; and a low-pressure pump disposed within the housing, in fluid communication with the air inlet and in fluid communication with the air outlet via a second outlet passage; a pressure valve disposed between the low-pressure pump and the air outlet, the pressure valve including: a signal switch in communication with a control circuit, a diaphragm in fluid communication with the low-pressure pump, and a trigger disposed between and in communication with the signal switch and the diaphragm, a signal switch in communication with a control circuit, a diaphragm in fluid communication with the low-pressure pump, and a trigger disposed between and in communication with the signal switch and the diaphragm, wherein, when the pressure within the low-pressure pump reaches a threshold, the trigger is biased toward the signal switch and triggers the signal switch to send a signal to the control circuit, wherein the signal switch and the control circuit are configured to cooperate to automatically disengage the low-pressure pump and engage the high-pressure pump in response to the signal.
A ceramic composite material for light conversion, said ceramic composite material being a solidified body consisting of two matrix phases of an α-Al 2 O 3 phase and a Ce-activated Y 3 Al 5 O 12 phase, wherein the Ce-activated Y 3 Al 5 O 12 phase is a phosphor that emits fluorescence, said matrix phases being continuously and three-dimensionally disposed and entangled with each other, said Ce-activated Y 3 Al 5 O 12 phase being capable of being excited by blue light to emit yellow light and said α-Al 2 O 3 phase being capable of transmitting blue light as it is.
Submerged combustion burner comprising at least one oxidant feeding tube (5,9), at least one fuel feeding tube, the feeding tubes (5,7,9) being concentric, a burner head having a peripheral envelope, the fuel and oxidant feeding tubes (5,7,9) abutting against the burner head, at least two, preferably at least three, peripheral outward directed nozzles, each of the nozzles having a nozzle outlet, the nozzle outlets being arranged on a peripheral line on the peripheral envelope of the burner head, the nozzle outlet axis being inclined by an angle of 5 to 30° to the horizontal, and the nozzles practiced in the burner head being connected to the oxidant feeding tube (5,9) and to the fuel feeding tube, part at least of the burner length being enveloped by a cooling jacket and the cooling jacket extending over part of the length of the feeding tubes (5,7,9) up to the burner head, the cooling jacket having a first connecting tube, the burner head comprising a burner cap defining a burner head space between burner cap and burner head, the burner head further comprising through holes (27,28,29) connecting the jacket with the burner head space, and a cooling fluid feeding tube extending essentially concentrically in the internal gas feeding tube and connecting the burner head space with a second connecting tube.
Method for extending a frequency band of an audio frequency signal in a decoding or improvement process, including a step of decoding or extracting, in a first frequency band, called low band, an excitation signal and coefficients of a linear prediction filter, the method being characterized in that it includes the following steps: - obtaining an extended signal (U HB2 (k), E403) in at least one second frequency band higher than the first frequency band from the excitation signal upsampled and extended into the at least one second frequency band (U HB1 (k), E401); - scaling the extended signal by a defined gain per subframe as a function of a ratio between the ratio between the energy per subframe and the energy per frame of the excitation signal of the low band and the ratio between the energy per subframe and the energy per frame of the extended signal; - filtering said scaled extended signal using a linear prediction filter whose coefficients are derived from the coefficients of the low band filter. - obtaining an extended signal (U HB2 (k), E403) in at least one second frequency band higher than the first frequency band from the excitation signal upsampled and extended into the at least one second frequency band (U HB1 (k), E401); - scaling the extended signal by a defined gain per subframe as a function of a ratio between the ratio between the energy per subframe and the energy per frame of the excitation signal of the low band and the ratio between the energy per subframe and the energy per frame of the extended signal; - filtering said scaled extended signal using a linear prediction filter whose coefficients are derived from the coefficients of the low band filter.
A lithium ion battery cathode material of a spherical or spherical-like layered structure, characterized in that a chemical formula of said cathode material is Li a Ni x Co y Mn z M b O 2, wherein 1.0 ≦ a≦ 1.2; 0.0 <b ≦ 0.05; 0.30≦ x ≦ 0.90; 0.05 ≦ y ≦ 0.40; 0.05 ≦ z ≦ 0.50; x+y+z+b=1; M is doping element and M is one or two or more of Mg, Ti, Al, Zr, Y, Co, Mn, Ni, Ba and a rare earth element; wherein the median particle diameter of said cathode material is 3.0 to 8.0 μm and the cathode material powder comprises primary particles of a morphology of spherical or spherical-like shape and a small amount of secondary particles agglomerated from primary particles as visible by scanning electron microscope, whereby the percentage of the particles having a particle diameter of 5 μm or less is greater than 60% by number of the total of primary particles and secondary particles agglomerated from primary particles of the cathode material.
A stationary chuck (200, 300) for positionally maintaining an associated in-process wafer, comprising: a base plate having, on an upper surface thereof, a plurality of machined concentric ridges that form a series of concentric circular zones; a silicon carbide coating on the upper surface of the base plate; and a plurality of silicon carbide inlays capable of being bonded onto the silicon carbide coating in the concentric circular zones. a base plate having, on an upper surface thereof, a plurality of machined concentric ridges that form a series of concentric circular zones; a silicon carbide coating on the upper surface of the base plate; and a plurality of silicon carbide inlays capable of being bonded onto the silicon carbide coating in the concentric circular zones.
An apparatus comprising: means (120, 125, 130) configured for receiving by a user equipment, UE, from a node in a wireless communications system, a trigger for uplink, UL, transmission; means (120, 125, 130) configured for determining a slot type by the UE characterized by means (120, 125, 130) configured for determining the need for UL listen before talk, LBT, - based interference sensing on the determined slot type, means (120, 125, 130) configured for performing symbol wise LBT-based interference sensing in response to the determined slot type being a flexible slot for one or more first symbols of the slot, performing a shortened UL transmission by the UE after a successful LBT-based interference sensing for a symbol, and means (120, 125, 130) configured for transmitting by the UE without performing LBT-based interference sensing in response to the determined slot type being a UL slot. means (120, 125, 130) configured for receiving by a user equipment, UE, from a node in a wireless communications system, a trigger for uplink, UL, transmission; means (120, 125, 130) configured for determining a slot type by the UE characterized by means (120, 125, 130) configured for determining the need for UL listen before talk, LBT, - based interference sensing on the determined slot type, means (120, 125, 130) configured for performing symbol wise LBT-based interference sensing in response to the determined slot type being a flexible slot for one or more first symbols of the slot, performing a shortened UL transmission by the UE after a successful LBT-based interference sensing for a symbol, and means (120, 125, 130) configured for transmitting by the UE without performing LBT-based interference sensing in response to the determined slot type being a UL slot.
A method of introducing a sequence-specific nuclease into a plant cell, the method comprising: coating a nanoparticle with an SSN, wherein the nanoparticle is a dendrimeric nanomatrix or a nanoparticle that is coated with a cell-penetrating peptide; placing the cell having a cell wall and the coated nanoparticle in contact with each other; and allowing uptake of the nanoparticle and the SSN into the plant cell comprising a cell wall. coating a nanoparticle with an SSN, wherein the nanoparticle is a dendrimeric nanomatrix or a nanoparticle that is coated with a cell-penetrating peptide; placing the cell having a cell wall and the coated nanoparticle in contact with each other; and allowing uptake of the nanoparticle and the SSN into the plant cell comprising a cell wall.
An oil-extended rubber comprising: a vulcanizable rubber component; and a coconut oil with a free fatty acid content in a range of 5 to 18% by mass as measured by the test method according to AOAC 940.28, wherein the content of the coconut oil is ranging from 21.5 to 37.5 part per hundred rubber (phr). a vulcanizable rubber component; and a coconut oil with a free fatty acid content in a range of 5 to 18% by mass as measured by the test method according to AOAC 940.28, wherein the content of the coconut oil is ranging from 21.5 to 37.5 part per hundred rubber (phr).
A method of teaching a tempering machine for the direct adjustability of a tempering degree of a confectionary mass to be tempered in the tempering machine, comprising the steps of: introducing the confectionary mass into a cooling zone of the tempering machine at a substantially constant temperature and at a substantially constant volume flow, conveying the confectionary mass through the cooling zone, determining the tempering degree of the confectionary mass after the cooling zone while continuing introduction of the confectionary mass into the cooling zone of the tempering machine at a substantially constant temperature and at a substantially constant volume flow, afterwards: automatically changing a parameter of the tempering machine during a time interval according to a mathematical function, afterwards: again determining the tempering degree of the confectionary mass after the cooling zone within the time interval, and afterwards: automatically recording the course of the tempering degree over the parameter within the time interval. introducing the confectionary mass into a cooling zone of the tempering machine at a substantially constant temperature and at a substantially constant volume flow, conveying the confectionary mass through the cooling zone, determining the tempering degree of the confectionary mass after the cooling zone while continuing introduction of the confectionary mass into the cooling zone of the tempering machine at a substantially constant temperature and at a substantially constant volume flow, afterwards: automatically changing a parameter of the tempering machine during a time interval according to a mathematical function, afterwards: again determining the tempering degree of the confectionary mass after the cooling zone within the time interval, and afterwards: automatically recording the course of the tempering degree over the parameter within the time interval.
Carrying device for receiving goods, comprising - a rear wall which delimits a carrying volume for receiving the goods towards the rear, - a front wall delimiting the carrying volume towards the front and - a flexible bottom device, which -- has a bottom wall, -- is designed without side walls, -- can be arranged in a closed state and an open state, -- in the closed state delimits the load-bearing volume downwards, -- in the open condition releases the support volume downwards, and -- has securing means arranged on the side of the bottom wall for loss-proof retention of the goods in the carrying volume, characterized in that the securing means has a plurality of projections laterally delimiting the carrying volume and arranged at a distance from one another and/or has at least one such projection which is designed as a knob and/or as a pin and/or as a web. - a rear wall which delimits a carrying volume for receiving the goods towards the rear, - a front wall delimiting the carrying volume towards the front and - a flexible bottom device, which -- has a bottom wall, -- is designed without side walls, -- can be arranged in a closed state and an open state, -- in the closed state delimits the load-bearing volume downwards, -- in the open condition releases the support volume downwards, and -- has securing means arranged on the side of the bottom wall for loss-proof retention of the goods in the carrying volume, -- has a bottom wall, -- is designed without side walls, -- can be arranged in a closed state and an open state, -- in the closed state delimits the load-bearing volume downwards, -- in the open condition releases the support volume downwards, and -- has securing means arranged on the side of the bottom wall for loss-proof retention of the goods in the carrying volume,
A sensing edge for providing a signal to a controller indicating that a forward edge of a door is obstructed during operation, the sensing edge comprising: an elongate sheath having a first end, a first cavity at the first end, and a second end, the elongate sheath being mounted to the forward edge; a first end plug (14, 90) including a lower surface, an inner end, an outer end (26, 91), first engaging structures (20, 80) extending from the inner end, the first engaging structures (20, 80) being positioned within the first cavity in an assembled configuration; and a first end flap (22, 92) constructed of a rubber-like material the sensing edge being characterized in that the first end plug (14,90) includes a first vertical groove (28, 94) in the outer end (26, 91), having a T-shape and extending from a lower opening at the lower surface to a wall structure (42, 98), the first vertical groove (28, 94) being open along its length along the outer end (26, 91), and the first end flap (22,92) includes a generally flat first body (30, 108) and a first flange structure (32, 102), the first flange structure (32, 102) positioned in the first vertical groove (28, 94) in the assembled configuration to secure the first end flap (22, 92) to the first end plug (14, 90). an elongate sheath having a first end, a first cavity at the first end, and a second end, the elongate sheath being mounted to the forward edge; a first end plug (14, 90) including a lower surface, an inner end, an outer end (26, 91), first engaging structures (20, 80) extending from the inner end, the first engaging structures (20, 80) being positioned within the first cavity in an assembled configuration; and a first end flap (22, 92) constructed of a rubber-like material the sensing edge being characterized in that the first end plug (14,90) includes a first vertical groove (28, 94) in the outer end (26, 91), having a T-shape and extending from a lower opening at the lower surface to a wall structure (42, 98), the first vertical groove (28, 94) being open along its length along the outer end (26, 91), and the first end flap (22,92) includes a generally flat first body (30, 108) and a first flange structure (32, 102), the first flange structure (32, 102) positioned in the first vertical groove (28, 94) in the assembled configuration to secure the first end flap (22, 92) to the first end plug (14, 90).
Vehicle comprising a first part carrying at least one rear wheel at least indirectly, a second part being attached to the first part in a swiveling manner and carrying at least one front wheel, at least one handlebar (31, 32, 33) being rigidly connected to the second part, a crash sensor system, characterized in that at least one weakening- or destruction device (38, 39, 40) is provided, said weakening- or destruction device (38, 39, 40) able to be directly or indirectly triggered by the crash sensor system and able to weaken or destroy the at least one handlebar (31, 32, 33) or able to weaken or destroy the connection of the at least one handlebar (31, 32, 33) to the second part when triggered. a first part carrying at least one rear wheel at least indirectly, a second part being attached to the first part in a swiveling manner and carrying at least one front wheel, at least one handlebar (31, 32, 33) being rigidly connected to the second part, a crash sensor system, characterized in that at least one weakening- or destruction device (38, 39, 40) is provided, said weakening- or destruction device (38, 39, 40) able to be directly or indirectly triggered by the crash sensor system and able to weaken or destroy the at least one handlebar (31, 32, 33) or able to weaken or destroy the connection of the at least one handlebar (31, 32, 33) to the second part when triggered.
A method for fabricating a semiconductor package from a package assembly comprising: providing a lead frame comprising at least a first lead and a second lead, the first and second leads (23a, 23b) each having a top surface and a bottom surface, a first integrated circuit die on the top surface of the first lead, and a second integrated circuit die on the top surface of the second lead; encapsulating at least portions of the lead frame and at least portions of the first integrated circuit die and the second integrated circuit die in a mold encapsulation, the mold encapsulation having a top major surface and a bottom major surface; plating the bottom surface of the first lead and the bottom surface of the second lead with a first electrical plating; applying a conductive film to connect the bottom surface of the first lead and the bottom surface of the second lead; cutting through the mold encapsulation, the second lead, and the first electrical plating on the bottom surface of the second lead to create a channel, the channel exposing a first lead sidewall and a second lead sidewall of the second lead; plating, through the channel, the first lead sidewall and the second lead sidewall with a second electrical plating; and removing the conductive film, characterized in that the cutting is carried out while the conductive film is connected to the bottom surface of the first and second leads (23a, 23b). providing a lead frame comprising at least a first lead and a second lead, the first and second leads (23a, 23b) each having a top surface and a bottom surface, a first integrated circuit die on the top surface of the first lead, and a second integrated circuit die on the top surface of the second lead; encapsulating at least portions of the lead frame and at least portions of the first integrated circuit die and the second integrated circuit die in a mold encapsulation, the mold encapsulation having a top major surface and a bottom major surface; plating the bottom surface of the first lead and the bottom surface of the second lead with a first electrical plating; applying a conductive film to connect the bottom surface of the first lead and the bottom surface of the second lead; cutting through the mold encapsulation, the second lead, and the first electrical plating on the bottom surface of the second lead to create a channel, the channel exposing a first lead sidewall and a second lead sidewall of the second lead; plating, through the channel, the first lead sidewall and the second lead sidewall with a second electrical plating; and removing the conductive film, characterized in that the cutting is carried out while the conductive film is connected to the bottom surface of the first and second leads (23a, 23b).