mhurhangee/patent-ind-claim-en huggingface dataset:
A fertilizer composition comprising: a base fertilizer granule, wherein the base fertilizer is a phosphate; a barrier coating covering at least a portion of an outer surface of the base fertilizer granule, the barrier coating being selected from the group consisting of urea, langbeinite, ammonium sulfate, potassium sulfate, magnesium sulfate, calcium sulfate, elemental sulfur, silicates, respective hydrates, and combinations thereof; characterized in that it further comprises one or more micronutrients dispersed within the barrier coating such that the one or more micronutrients are isolated from the base fertilizer granule; and a polymer coating covering at least a portion of the barrier coating, and one or more additional micronutrients covering at least a portion of the outer surface of the polymer coating. a base fertilizer granule, wherein the base fertilizer is a phosphate; a barrier coating covering at least a portion of an outer surface of the base fertilizer granule, the barrier coating being selected from the group consisting of urea, langbeinite, ammonium sulfate, potassium sulfate, magnesium sulfate, calcium sulfate, elemental sulfur, silicates, respective hydrates, and combinations thereof; characterized in that it further comprises one or more micronutrients dispersed within the barrier coating such that the one or more micronutrients are isolated from the base fertilizer granule; and a polymer coating covering at least a portion of the barrier coating, and one or more additional micronutrients covering at least a portion of the outer surface of the polymer coating.
A method for separating a mixture of plastics of different densities and materials heavier than plastics by flotation in the pure water bath of a flotation tank , comprising the steps of: separating, in a first level, materials heavier than plastic which, due to their weight, settle on a sieve bottom which is mounted in the flotation tank so as to be horizontally displaceable, transferring the plastics still in the suspended state to a second level in which plastics of different density are separated, characterised by slowly moving the sieve bottom of the first level to a first end position, to reduce a gap between the sieve bottom and a wall of the flotation tank and then accelerating the sieve bottom to the other end position and abruptly stopping when the other end position is reached, and repeating the movement of the sieve bottom at intervals to clean the sieve bottom. separating, in a first level, materials heavier than plastic which, due to their weight, settle on a sieve bottom which is mounted in the flotation tank so as to be horizontally displaceable, transferring the plastics still in the suspended state to a second level in which plastics of different density are separated, characterised by slowly moving the sieve bottom of the first level to a first end position, to reduce a gap between the sieve bottom and a wall of the flotation tank and then accelerating the sieve bottom to the other end position and abruptly stopping when the other end position is reached, and repeating the movement of the sieve bottom at intervals to clean the sieve bottom.
A method for wireless communication, comprising: determining , by a wireless communication device, that the wireless communication device is configured to use a primary component carrier, PCC, a first secondary component carrier, SCC, and a second SCC for carrier aggregation, wherein a primary cell is associated with the PCC, a first secondary cell is associated with the first SCC, a second secondary cell is associated with the second SCC, and the first secondary cell provides scheduling information for the second secondary cell; monitoring , by the wireless communication device, at least one of the first SCC or the second SCC, wherein monitoring the at least one of the first SCC or the second SCC includes monitoring a signal quality associated with the first SCC; detecting that the signal quality associated with the first SCC does not satisfy a threshold based, at least in part, on monitoring the signal quality associated with the first SCC; and deactivating the second secondary cell based, at least in part, on detecting that the signal quality associated with the first SCC does not satisfy the threshold. determining , by a wireless communication device, that the wireless communication device is configured to use a primary component carrier, PCC, a first secondary component carrier, SCC, and a second SCC for carrier aggregation, wherein a primary cell is associated with the PCC, a first secondary cell is associated with the first SCC, a second secondary cell is associated with the second SCC, and the first secondary cell provides scheduling information for the second secondary cell; monitoring , by the wireless communication device, at least one of the first SCC or the second SCC, wherein monitoring the at least one of the first SCC or the second SCC includes monitoring a signal quality associated with the first SCC; detecting that the signal quality associated with the first SCC does not satisfy a threshold based, at least in part, on monitoring the signal quality associated with the first SCC; and deactivating the second secondary cell based, at least in part, on detecting that the signal quality associated with the first SCC does not satisfy the threshold. detecting that the signal quality associated with the first SCC does not satisfy a threshold based, at least in part, on monitoring the signal quality associated with the first SCC; and deactivating the second secondary cell based, at least in part, on detecting that the signal quality associated with the first SCC does not satisfy the threshold.
An apparatus comprising: a first power gate transistor coupled between an ungated power supply node and a gated power supply node, the first power gate transistor having a gate terminal controllable by a first logic ; and a second power gate transistor coupled between the ungated power supply node and the gated power supply node, the second power gate transistor having a gate terminal controllable by a second logic , wherein the first power gate transistor is larger than the second power gate transistor , wherein the first and second power gate transistors are parallel connected, and wherein the second logic has multiple modes including: weakly turn on the second power gate transistor such that at least two diodes are formed between the ungated power supply node and the gated power supply node, diode-connect the second power gate transistor , substantially turn on the second power gate transistor , and turn off the second power gate transistor . a first power gate transistor coupled between an ungated power supply node and a gated power supply node, the first power gate transistor having a gate terminal controllable by a first logic ; and a second power gate transistor coupled between the ungated power supply node and the gated power supply node, the second power gate transistor having a gate terminal controllable by a second logic , wherein the first power gate transistor is larger than the second power gate transistor , wherein the first and second power gate transistors are parallel connected, and wherein the second logic has multiple modes including: weakly turn on the second power gate transistor such that at least two diodes are formed between the ungated power supply node and the gated power supply node, diode-connect the second power gate transistor , substantially turn on the second power gate transistor , and turn off the second power gate transistor . weakly turn on the second power gate transistor such that at least two diodes are formed between the ungated power supply node and the gated power supply node, diode-connect the second power gate transistor , substantially turn on the second power gate transistor , and turn off the second power gate transistor .
A venting apparatus comprising: a. a substrate having an opening therein; and b. a fluoropolymer membrane disposed over said opening and thermally bonded to said substrate by a thermoplastic material provided between said fluoropolymer membrane and said substrate, wherein said thermoplastic material is a thermoplastic fluoropolymer material; and wherein the substrate is a plastic substrate selected from the group consisting of glass filled polyphenylene sulfide (PPS); polybutylene terephthalate (PBT); polyether ether ketone (PEEK); polypthalamides (PPA); acetal homopolymers; polyethylene terephthalate (PET); thermoset epoxies; and thermoset elastomers. a. a substrate having an opening therein; and b. a fluoropolymer membrane disposed over said opening and thermally bonded to said substrate by a thermoplastic material provided between said fluoropolymer membrane and said substrate,
A method for producing a glass ceramic article, wherein at least one precursor article is at least partially transformed into a glass ceramic article, wherein either a first precursor article made of glass is ceramized into the glass ceramic article; or at least a first crystalline phase of a second precursor article is further ceramized into a second crystalline phase of the glass ceramic article; and wherein the precursor article is heated up to a maximum temperature, wherein a temperature distribution between upper surface and lower surface of the precursor article deviates by not more than ± 1 K from an average temperature in the transforming precursor article, at least during an exothermic period of the phase transition; wherein a heating rate for reaching the maximum temperature is controlled to be greater than 10 K/min; and the maximum temperature is maintained for not more than two minutes or, preferably, cooling is performed immediately after reaching the maximum temperature without maintaining a holding time at this maximum temperature; wherein the precursor article comprises a lithium aluminium silicate composition. either a first precursor article made of glass is ceramized into the glass ceramic article; or at least a first crystalline phase of a second precursor article is further ceramized into a second crystalline phase of the glass ceramic article; and wherein the precursor article is heated up to a maximum temperature, wherein a temperature distribution between upper surface and lower surface of the precursor article deviates by not more than ± 1 K from an average temperature in the transforming precursor article, at least during an exothermic period of the phase transition; wherein a heating rate for reaching the maximum temperature is controlled to be greater than 10 K/min; and the maximum temperature is maintained for not more than two minutes or, preferably, cooling is performed immediately after reaching the maximum temperature without maintaining a holding time at this maximum temperature; wherein the precursor article comprises a lithium aluminium silicate composition.
A refrigeration cycle apparatus comprising: a housing including a bottom member ; a second elastic member disposed on the bottom member; a base disposed on the bottom member via the second elastic member; a first elastic member disposed on the base; a compressor disposed on the base via the first elastic member and configured to compress a refrigerant; an electric component fixed to the housing and configured to drive a motor for the compressor; a heat transfer plate fixed to the electric component; a refrigerant cooling pipe fixed to the heat transfer plate and causing the refrigerant to circulate therein; a refrigeration-cycle constituent component fixed to the base and causing the refrigerant to circulate; and a connecting pipe (71 to 77) connecting the refrigeration-cycle constituent component or the compressor and the refrigerant cooling pipe to each other and causing the refrigerant to circulate, wherein the connecting pipe includes a vibration transmission suppressing portion that suppresses vibration of the refrigeration-cycle constituent component or the compressor fixed to the base from being transmitted to the refrigerant cooling pipe. a housing including a bottom member ; a second elastic member disposed on the bottom member; a base disposed on the bottom member via the second elastic member; a first elastic member disposed on the base; a compressor disposed on the base via the first elastic member and configured to compress a refrigerant; an electric component fixed to the housing and configured to drive a motor for the compressor; a heat transfer plate fixed to the electric component; a refrigerant cooling pipe fixed to the heat transfer plate and causing the refrigerant to circulate therein; a refrigeration-cycle constituent component fixed to the base and causing the refrigerant to circulate; and a connecting pipe (71 to 77) connecting the refrigeration-cycle constituent component or the compressor and the refrigerant cooling pipe to each other and causing the refrigerant to circulate, wherein the connecting pipe includes a vibration transmission suppressing portion that suppresses vibration of the refrigeration-cycle constituent component or the compressor fixed to the base from being transmitted to the refrigerant cooling pipe.
A cooling device for reducing the temperature of a cooked, warm item of food held in a container in a liquid or paste-like state, comprising a plate-like covering body , which covers an opening cross-section of the container , wherein the covering body , on its underside, comprises vertically arranged cooling elements , which in a positioned, retracted state of the cooling device are immersed in a volume mass of the food item, wherein a cooling medium can be circulated through the cooling elements , by means of which warmth stored in the food item can be extracted therefrom, characterised in that a stripper plate configured as a perforated sheet or perforated plate is provided on the underside of the covering body , which stripper plate comprises a plurality of holes , wherein the individual cooling elements can be extended into the container or retracted out of the container through the holes , so that when the cooling device is withdrawn from the food item, food residues can be removed from the cooling elements by means of the stripper plate , wherein the individual holes are dimensioned such that they are in close contact with a surface of the cooling elements , thereby producing a strip-off effect of the food residues on the stripper plate , wherein the stripper plate is pervaded by channels ending in a perforated edge region for supplying cleaning steam at a perforated periphery of the holes .
A window for a display device comprising: a base layer ; and a first coating layer disposed on a first surface of the base layer , wherein: the first coating layer is a single layer; the first coating layer comprises a siloxane-based compound and silica; and the siloxane-based compound comprises fluorine, wherein the first coating layer further comprises fumed silica and porous silica characterized in that the siloxane-based compound includes heptadecafluorodecyltrimethoxysilane, wherein the porous silica and the siloxane-based compound comprising fluorine are each included in an amount ranging from about 4 weight percent, wt%, to about 7 wt%, and wherein the fumed silica is included in an amount ranging from about 0.1 wt% to about 0.5 wt%. a base layer ; and a first coating layer disposed on a first surface of the base layer , wherein: the first coating layer is a single layer; the first coating layer comprises a siloxane-based compound and silica; and the siloxane-based compound comprises fluorine, wherein the first coating layer further comprises fumed silica and porous silica characterized in that the siloxane-based compound includes heptadecafluorodecyltrimethoxysilane, wherein the porous silica and the siloxane-based compound comprising fluorine are each included in an amount ranging from about 4 weight percent, wt%, to about 7 wt%, and wherein the fumed silica is included in an amount ranging from about 0.1 wt% to about 0.5 wt%. the first coating layer is a single layer; the first coating layer comprises a siloxane-based compound and silica; and the siloxane-based compound comprises fluorine, wherein the first coating layer further comprises fumed silica and porous silica characterized in that the siloxane-based compound includes heptadecafluorodecyltrimethoxysilane, wherein the porous silica and the siloxane-based compound comprising fluorine are each included in an amount ranging from about 4 weight percent, wt%, to about 7 wt%, and wherein the fumed silica is included in an amount ranging from about 0.1 wt% to about 0.5 wt%.
An epoxy resin composition comprising: the following component (A), component (B), component (C) and component (D); wherein a content of said component (A) is 60 parts by mass or more and 90 parts by mass or less with respect to a total content of 100 parts by mass of epoxy resins contained in said epoxy resin composition; a content of said component (B) is 10 parts by mass or more and 40 parts by mass or less with respect to a total content of 100 parts by mass of the epoxy resins contained in said epoxy resin composition; said epoxy resin composition has a characteristic that, when cured and formed into a cured product, said cured product has a glass transition temperature of 200°C or higher; and a viscosity at 100°C of the resin composition comprising said component (A), said component (B), said component (C) and said component (D) is 5 Pa·s or more and 35 Pa·s or less, Component (A): an aromatic epoxy resin having at least 3 glycidyl groups in one molecule; Component (B): an aromatic epoxy resin having two glycidyl groups in one molecule; Component (C): an aromatic polysulfone resin having a reduced viscosity of 0.18 dl/g or more and 0.30 dl/g or less; and Component (D): an aromatic amine compound, wherein the glass transition temperature, the viscosity at 100°C and the reduced viscosity are measured as set out in the description. the following component (A), component (B), component (C) and component (D); wherein a content of said component (A) is 60 parts by mass or more and 90 parts by mass or less with respect to a total content of 100 parts by mass of epoxy resins contained in said epoxy resin composition; a content of said component (B) is 10 parts by mass or more and 40 parts by mass or less with respect to a total content of 100 parts by mass of the epoxy resins contained in said epoxy resin composition; said epoxy resin composition has a characteristic that, when cured and formed into a cured product, said cured product has a glass transition temperature of 200°C or higher; and a viscosity at 100°C of the resin composition comprising said component (A), said component (B), said component (C) and said component (D) is 5 Pa·s or more and 35 Pa·s or less, Component (A): an aromatic epoxy resin having at least 3 glycidyl groups in one molecule; Component (B): an aromatic epoxy resin having two glycidyl groups in one molecule; Component (C): an aromatic polysulfone resin having a reduced viscosity of 0.18 dl/g or more and 0.30 dl/g or less; and Component (D): an aromatic amine compound, wherein the glass transition temperature, the viscosity at 100°C and the reduced viscosity are measured as set out in the description.
A dual pneumo-hydraulic pump unit comprising: two hydraulic piston pumps comprising liners , wherein the liners are configured to move to perform oil suction and pumping; a central pneumatic cylinder comprising a plunger ; a set of hydraulic rods ; a hydraulic pressure accumulator ; hydraulic plungers ; bearings ; an oil reservoir , configured to allow oil being drawn from it and pumped into the hydraulic pressure accumulator ; pneumatic directional valves , configured to act in the reversal of the central pneumatic cylinder ; upper hydraulic holes and upper hydraulic check valves , configured to allow the storage of oil in the hydraulic pressure accumulator through the opening of the upper hydraulic check valves that are configured to receive the oil from the upper hydraulic holes ; wherein the central pneumatic cylinder works in the center of the two hydraulic piston pumps ; wherein the two hydraulic piston pumps are mounted parallel to the plunger of the central pneumatic cylinder , positioned one on each side; and wherein compressed air or other pressurized gases are used to move the central pneumatic cylinder , as a source of motor energy to pump oil under pressure to the hydraulic pressure accumulator for later activation of hydraulic actuators, wherein the pistons of the two hydraulic pumps work inverted, where the set of hydraulic rods and the hydraulic plungers are static and fixed on bearings . two hydraulic piston pumps comprising liners , wherein the liners are configured to move to perform oil suction and pumping; a central pneumatic cylinder comprising a plunger ; a set of hydraulic rods ; a hydraulic pressure accumulator ; hydraulic plungers ; bearings ; an oil reservoir , configured to allow oil being drawn from it and pumped into the hydraulic pressure accumulator ; pneumatic directional valves , configured to act in the reversal of the central pneumatic cylinder ; upper hydraulic holes and upper hydraulic check valves , configured to allow the storage of oil in the hydraulic pressure accumulator through the opening of the upper hydraulic check valves that are configured to receive the oil from the upper hydraulic holes ; wherein the central pneumatic cylinder works in the center of the two hydraulic piston pumps ; wherein the two hydraulic piston pumps are mounted parallel to the plunger of the central pneumatic cylinder , positioned one on each side; and wherein compressed air or other pressurized gases are used to move the central pneumatic cylinder , as a source of motor energy to pump oil under pressure to the hydraulic pressure accumulator for later activation of hydraulic actuators, wherein the pistons of the two hydraulic pumps work inverted, where the set of hydraulic rods and the hydraulic plungers are static and fixed on bearings .
A heater comprising: a tower ; a head at the top of the tower , wherein the head comprises a heating element and a heat shield ; a head cover coupled to the head , wherein the head cover has a top and a bottom with the heating element positioned therebetween, and wherein the top and bottom of the head cover are open; wherein the head cover at least partially surround the heat shield , and wherein the head cover completely overlaps the heat shield and the heating element in a longitudinal direction of the heater, a base ; and a frame that connects the head cover to the heat shield ; characterized in that the heater further comprises a tower cover removably attached to the tower and a base cover moveable from a first position substantially encircling the base to a second position vertically overlapping the tower cover , and that the head cover is cylindrical or partially conical thereby comprising a cone shape, wherein an angle of the cone shape with respect to the longitudinal axis of the heater is 0 to 25 degrees. a tower ; a head at the top of the tower , wherein the head comprises a heating element and a heat shield ; a head cover coupled to the head , wherein the head cover has a top and a bottom with the heating element positioned therebetween, and wherein the top and bottom of the head cover are open; wherein the head cover at least partially surround the heat shield , and wherein the head cover completely overlaps the heat shield and the heating element in a longitudinal direction of the heater, a base ; and a frame that connects the head cover to the heat shield ; characterized in that the heater further comprises a tower cover removably attached to the tower and a base cover moveable from a first position substantially encircling the base to a second position vertically overlapping the tower cover , and that the head cover is cylindrical or partially conical thereby comprising a cone shape, wherein an angle of the cone shape with respect to the longitudinal axis of the heater is 0 to 25 degrees.