Patent classifications
B01J2208/00796
FLAMELESS THERMAL OXIDIZER AND RELATED METHOD OF SHAPING REACTION ZONE
A flameless thermal oxidizer (FTO) includes at least one baffle constructed and arranged in a reaction chamber of the FTO to coact with a diptube of the FTO to radially expand a resulting “bubble” or reaction envelope from the diptube outward into a porous matrix of the FTO. A related method is also provided.
APPARATUS AND PROCESS FOR THERMAL TREATMENT OF RAW MATERIAL CONTAINING LITHIUM COMPOUNDS AND PHOSPHORUS COMPOUNDS, METHOD OF RECOVERING LITHIUM AND/OR PHOSPHORUS FROM RESIDUE MATERIAL OF LITHIUM-ION BATTERIES
The present invention relates to an apparatus for thermal treatment of a raw material containing lithium compounds and phosphorus compounds, a process for thermal treatment of a raw material containing lithium compounds and phosphorus compounds and a method of recovering lithium and/or phosphorus from residue material of lithium-ion batteries. The apparatus for thermal treatment of a raw material containing lithium compounds and phosphorus compounds comprises an inductively heated, packed bed reactor comprising a reactor body at least partially made of refractory material, the reactor body being surrounded by at least one induction coil, the reactor body being at least partially filled/packed with a susceptor material, the inductively heated packed bed reactor being configured for transferring at least part of the raw material including lithium compounds and/or phosphorus compounds into a gaseous phase and configured for forming a molten phase from another part of the raw material, the inductively heated packed bed reactor comprising one or more gas outlets and a molten phase outlet, and a condenser in fluidic connection with the one or more gas outlets and configured for depositing lithium species from a gaseous phase discharged from the packed bed reactor via the one or more gas outlets and configured for separating the deposited lithium species from an exhaust gas substantially free from lithium species.
REACTOR SYSTEMS AND METHODS FOR THERMALLY DECOMPOSING AMMONIA
This disclosure relates to reactor systems and methods of decomposing ammonia. In some aspects, a catalyst reactor includes an elongated conduit extending along a longitudinal axis. The elongated conduit can include a wall defining an interior cavity, an inlet configured for receiving a first fluid, and an outlet to flow the first fluid out of the elongated conduit, the wall having an interior cross-section defined by a major axis, W, and a minor axis, H, the major axis and the minor axis defining an aspect ratio, α=W/H, wherein the aspect ratio is greater than 2.0; and a catalytic structure disposed within the interior cavity of the elongated conduit.
AN APPARATUS USED IN A FLUIDIZED REACTION PROCESS
An apparatus used in a fluidized reaction process comprising a vessel; a riser housed within the vessel; and a plurality of angled guide supports, wherein each guide support comprises an tubular section having a first end and a second end; a first hinge wherein a first end of the first hinge is connected to the first end of the tubular section, a second hinge wherein a first end of the second hinge is connected to the second end of the tubular section, wherein a second end of the first hinge is connected to an inside surface of the vessel and a second end of the second hinge is connected to the riser guide is provided.
Reactor and production method of trichlorosilane
An object of the present invention is to prevent stress-corrosion cracking of a header (40) of a reactor. A reactor for producing trichlorosilane by causing metal silicon powder and a hydrogen chloride gas to react with each other includes a cooler (70), the cooler including a plurality of heat transfer medium pipes (30) and a header (40), the plurality of heat transfer medium pipes being provided in a fluid bed (60) inside the reactor, the header being provided in a freeboard section (50) inside the reactor, the header being comprised of a corrosion-resistant material.
Methods and systems for increasing production of middle distillate hydrocarbons from heavy hydrocarbon feed during fluid catalytic cracking
A method is provided for increasing production of middle distillate hydrocarbons from conversion of a heavy hydrocarbon feed in a fluid catalytic cracking system having a primary riser and a secondary riser, wherein the method comprises providing regenerated catalyst to the primary riser and operating the primary riser under severe conditions and providing spent catalyst to the secondary riser and operating the secondary riser under moderate conditions.
Bayonet catalytic reactor
A bayonet reactor including a catalytic reactor in the form of an annular structured packing is provided with increased surface area for the transfer of heat between annulus gas and return gas, an increased coefficient of heat transfer between the annulus and return gases, and a reduced overall pressure drop relative to conventional reactors. The reactors of the present technology can enable intensified catalytic processing.
Apparatus and method for the production of solid dosage forms
An apparatus for the production of solid dosage forms is presented, wherein the apparatus comprises a material processing chamber which is operable for manufacturing a product according to a pre-set product formation process path. The apparatus has at least one sensor for continuously monitoring formation of the product in the material processing chamber during the product formation process non-invasively in real time by sensing at least one product functional attribute value and a means for comparing each sensed product functional attribute value with a desirable product functional attribute value for that point on the product formation process path. A controller controls operation of the material processing chamber in response to the sensed product functional attribute value for maintaining the product on the product formation process path.
Catalyst loading method and method for preparation of butadiene by using same
The present specification relates to a method comprising: (A) mixing a ferrite-based catalyst molded article with diluent material particles; and (B) adding the mixture to a catalyst reactor, and a method for preparing butadiene using the same.
CATALYST LOADING METHOD AND METHOD FOR PREPARATION OF BUTADIENE BY USING SAME
The present specification relates to a method comprising: (A) mixing a ferrite-based catalyst molded article with diluent material particles; and (B) adding the mixture to a catalyst reactor, and a method for preparing butadiene using the same.