C10G5/00

NATURAL GAS LIQUID UPGRADING BY IONIC LIQUID CATALYZED ALKYLATION

An integrated process unit for making one or more alkylate products is provided. The integrated process unit includes (a) a dehydrogenation reactor; (b) a single alkylation reactor; (c) a separator, following the alkylation reactor, that separates effluent from the alkylation reactor into a catalyst phase and a hydrocarbon phase; (d) a distillation unit, following the separator, that receives the hydrocarbon phase and separates it into alkylate products, an unreacted paraffin phase, and an isoparaffin phase; (e) a first recycle line that feeds unreacted paraffin phase to the dehydrogenation reactor; and (f) a second recycle line that feeds isoparaffin phase to the alkylation reactor.

Synthetic fuels, and methods and apparatus for production thereof

Provided herein are systems and methods for converting CO.sub.2 and a reduction gas such as H.sub.2 or a hydrocarbon to mixtures of paraffins and aromatics suitable for use as aviation fuel.

Synthetic fuels, and methods and apparatus for production thereof

Provided herein are systems and methods for converting CO.sub.2 and a reduction gas such as H.sub.2 or a hydrocarbon to mixtures of paraffins and aromatics suitable for use as aviation fuel.

Organic solid biomass conversion for liquid fuels/chemicals production in the presence of methane containing gas environment and catalyst structure
12006475 · 2024-06-11 · ·

A method provides for valorization of naturally abundant organic solid biomass under a specified gas atmosphere with the existence of a catalyst structure. The method effectively converts the organic solid feedstock while producing valuable liquid hydrocarbon products, as well as utilizing methane rich resources, providing an economical and environmental benefit in the oil & gas industry.

Organic solid biomass conversion for liquid fuels/chemicals production in the presence of methane containing gas environment and catalyst structure
12006475 · 2024-06-11 · ·

A method provides for valorization of naturally abundant organic solid biomass under a specified gas atmosphere with the existence of a catalyst structure. The method effectively converts the organic solid feedstock while producing valuable liquid hydrocarbon products, as well as utilizing methane rich resources, providing an economical and environmental benefit in the oil & gas industry.

Natural gas liquid upgrading by ionic liquid catalyzed alkylation

We provide a process, comprising: a. dehydrogenating natural gas liquid to produce a mixture comprising olefins and unconverted paraffins; b. without further purification or modification other than mixing with an isoparaffin, sending the mixture to a single alkylation reactor; c. alkylating the olefins with the isoparaffin, using an ionic liquid catalyst, to produce one or more alkylate products; and d. distilling the one or more alkylate products and collecting a bottoms distillation fraction that is a middle distillate blending component having a sulfur level of 50 wppm or less and a Bromine number less than 1.

Natural gas liquid upgrading by ionic liquid catalyzed alkylation

We provide a process, comprising: a. dehydrogenating natural gas liquid to produce a mixture comprising olefins and unconverted paraffins; b. without further purification or modification other than mixing with an isoparaffin, sending the mixture to a single alkylation reactor; c. alkylating the olefins with the isoparaffin, using an ionic liquid catalyst, to produce one or more alkylate products; and d. distilling the one or more alkylate products and collecting a bottoms distillation fraction that is a middle distillate blending component having a sulfur level of 50 wppm or less and a Bromine number less than 1.

MULTIPLE PASS OR MULTIPLE FLUID HEAT EXCHANGE APPARATUS AND METHOD FOR USING SAME
20190154343 · 2019-05-23 ·

A heat exchanger with a uniquely designed header system which allows tubes carrying independent products to exchange heat with a product in one common shell. Multiple tube sheets provide for tubes carrying different independent products to exchange heat with the product passing through the shell side of the exchanger. The design advantages to this heat exchanger system are threefold, this exchanger design eliminates the need for multiple heat exchangers that perform the same task, it greatly reduces the size and footprint of a traditionally designed multiple heat exchanger systems, which rely on multiple independent heat exchangers to perform the same task, and lastly this new designed heat exchanger reduces the high cost of having to use multiple exchangers to obtain the same results.

NATURAL GAS LIQUID UPGRADING BY IONIC LIQUID CATALYZED ALKYLATION

We provide a process, comprising:

a. dehydrogenating natural gas liquid to produce a mixture comprising olefins and unconverted paraffins;

b. without further purification or modification other than mixing with an isoparaffin, sending the mixture to a single alkylation reactor;

c. alkylating the olefins with the isoparaffin, using an ionic liquid catalyst, to produce one or more alkylate products; and

d. distilling the one or more alkylate products and collecting a bottoms distillation fraction that is a middle distillate blending component having a sulfur level of 50 wppm or less and a Bromine number less than 1.

Fractionation System using Bundled Compact Co-Current Contacting Systems

A fractionation system for removing heavy hydrocarbons in a gas stream. A stripping section receives a predominantly liquid phase of the feed gas stream. A co-current contacting system receives a predominantly vapor phase of the feed gas stream. The co-current contacting system includes a compact contacting bundle disposed within a vessel and including a plurality of substantially parallel contacting units, each of the plurality of contacting units having a droplet generator, a mass transfer section, and a separation system. Each droplet generator generates droplets from a liquid disperses the droplets into a gas stream. Each mass transfer section provides a mixed, two-phase flow having a vapor phase and a liquid phase. Each separation system separates the vapor phase from the liquid phase such that the concentration of heavy hydrocarbons in the vapor phase is lower than in the liquid phase.