Conocophillips Company

Phillips 66 Company

Phillips Petroleum Company

China Petroleum Chemical Corporation

Edward L Sughrue

Jianhua Yao

Joseph B Cross

Marvin M Johnson

Glenn W Dodwell

Robert William Morton

Dhananjay B Ghonasgi

Kristi A Fjare

TiePan Shi

Yun Bao

Roland Schmidt

Xiaochun Xu

Paul F Meier

Bruce B Randolph

James B Kimble

Ronald E Brown

Tushar V Choudhary

Robert J Hogan

Max W Thompson

Madhu Anand

Charles A Drake

Simon G Kukes

Brent J Bertus

Gyanesh P Khare

Larry E Reed

John W Myers

Jason J Gislason

Joseph E Bares

Brian C Dunn

Jan W Wells

Edgar Lotero

James L Malandra

Walter E Alvarez

Douglas W Hausler

Marvin J Johnson

Lisa L Myers

Lloyd E Gardner

Fan-Nan Lin

Stephen L Parrott

Dennis R Kidd

Scott D Love

Albert C Tsang

Donald Ray Engelbert

Jerald A Howell

Patricia A Tooley

Gil J Greenwood

Bryan W Cass

Kelly G Knopp

Tie-Pan Shi

Jaehoon Bae

Devadas Panjala

Paul A Aegerter, Jr

Raul Adarme

Amos A Avidan

Hsu-Hui Hsing

Glen W Dodwell

Dhananjay R Ghonasgi

Bruce Welch

Bille S Grayson

Eric W Vetters

Tiepan Shi

Cellulose and hemicellulose from biomass can be broken down to C6 and C5 sugars and further converted to corresponding sugar alcohols. It is now found that a new catalyst, MoS2, is active for the hydrogenation of sugar alcohols to hydrocarbons. Combining the technologies listed above allows us to convert the cellulose/hemicellulose to liquid hydrocarbons.

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Furfural is produced through hydrolysis of the hemi-cellulose in corn stover. Furfural may also be produced from other biomass. The direct conversion of furfural to mono-alcohols which can be blended with gasoline is an attractive chemical process for providing biomass into the liquid fuel supply. Examples of such alcohols include 1-butanol, 1-pentanol, 2-pentanol and tetrahydrofurfuryl alcohol. Preferred alcohols include C-4 and C-5 mono-alcohols that have suitable blending properties.

Furfural to fuel

A heated petroleum-derived hydrocarbon is contacted with a triglyceride feed in a thermal cracking zone to decompose and remove impurities prior to hydrotreating the mixture to fuel range hydrocarbon. This process allows the use of a variety of low cost triglyceride feeds while reducing fouling of process equipment and catalyst. The process also reduces the use of chemicals required for conventional degumming of triglyceride feeds.

Thermal cracking of impurities in triglyceride mixtures

A method of hydrotreating liquefied biomass feedstock with diesel feedstock to produce alkanes is demonstrated that prevents damage to the reactor catalyst, reduces coke production, and converts nearly all of the polyols to alkanes. In order to mitigate the potential coking issue and to moderate the temperature of the catalyst bed while maintaining high conversion for sugar alcohol to hydrocarbon via a hydrotreating process, a diesel feedstock is fed over the reactor catalyst with multiple injections of polyol feedstock along the reactor.

Sugar alcohol split injection conversion

The conversion of diols to mono-alcohols as fuel blendstocks. In one embodiment hydrotreating processes are described that selectively convert glycols to mono-alcohols that can be blended as biofuels. Both NiMo and CoMo catalysts are active for the reaction and reaction conditions can also impact the selectivity of mono-alcohols.

Converting glycols to alcohols

MOS2 catalyst process for the conversion of sugar alcohol to hydrocarbons

Technologies to convert biomass to liquid hydrocarbon fuels are currently being developed to decrease our carbon footprint and increase use of renewable fuels. Since sugars/sugar derivatives from biomass have high oxygen content and low hydrogen content, coke becomes an issue during zeolite upgrading to liquid hydrocarbon fuels. A self-sustainable process was designed to reduce the coke by co-feeding sugars/sugar derivatives with the paraffin products from hydrogenation of sugars/sugar derivatives. Paraffins without complete conversion result in products with less aromatics and relatively low density compared with the products directly from zeolite upgrading. Thus, the process is more economically favorable.

Combination of zeolite upgrading with hydrogenation upgrading to produce renewable gasoline from biomass

This invention relates to a process for production of transportation fuels from biomass. More particularly, this invention relates to a process for using solvent to remove metal impurities and high molecular weight components from biomass derived biocrude to prevent potential catalyst poisoning and catalyst bed plugging in biocrude-to-transportation fuel upgrading process.

Metal impurity and high molecular weight components removal of biomass derived biocrude

Described is a method for converting biomass derived pyrolysis oil (bio-oil) into materials that will be more useful for transportation fuels including the following two steps: 1) solubilizing and extracting bio-oil oxygenates, and 2) zeolite catalyzed hydrogenation of the oxygenates into renewable fuel range materials.

Pyrolysis oil upgrading to gasoline range liquids

Technologies to convert biomass to liquid hydrocarbon fuels are currently being developed to decrease our carbon footprint and increase use of renewable fuels. Since sugars/sugar derivatives from biomass have high oxygen content and low hydrogen content, coke becomes an issue during zeolite upgrading to liquid hydrocarbon fuels. A process was designed to reduce the coke by co-feeding sugars/sugar derivatives with a saturated recycle stream containing hydrogenated products.

Carbohydrates upgrading and hydrotreating to hydrocarbons

A process for co-production of renewable diesel fuel range hydrocarbons and gasoline fuel range hydrocarbons from biomass-derived oils and fatty materials (e.g. triglycerides, diglycerides, monoglycerides, and free fatty acids) and biomass-derived polyol (e.g. sorbitol, xylitol, trehalose, sucrose, and sugar alcohol), respectively, in a same refinery hydrotreater with or without co-feeding of diesel fuel range hydrocarbons.

Co-production of renewable diesel and renewable gasoline

A process for upgrading hydrocarbons comprising removal of C5 hydrocarbons from a feedstock, metathesizing said C5 hydrocarbons to C6+ and C4&#x2212; hydrocarbons, and upgrading said C4&#x2212; hydrocarbons is disclosed absent any dehydrogenation.

Process for upgrading hydrocarbons

It has been discovered that the residence time of oils/fats in metal apparatus, particularly in the upstream of a hydrotreating unit, for example, a heat exchanger and/or a storage/feed tank, can impact significantly on corrosiveness of oils/fats in combination with and without conventional hydrocarbons. In addition, it is also found that the presence of hydrogen in the metal apparatus can also inhibit the corrosion rate of oils/fats.

Process to mitigate the corrosion of oils/fats

Conversion of renewable hydrocarbons to transportation fuels is required to reduce carbon emission, limit the use of fossil fuels, and develop renewable energy sources. Sorbitol, xylitol and trehelose are polyalcohols generated from the liquefaction of various sugars and carbohydrates in biomass from algae, corn, sugarcane, switchgrasses, and biological wastes. Mixtures of aqueous polyols and fuel feedstocks are catalyzed over metal catalysts to produce hexanes, pentanes, and lighter hydrocarbons. By managing the catalyst, reaction conditions and sulfur content, the octane value of the product fuel is dramatically increased.

Hydrotreating carbohydrates

Growing community of inventors

Bartlesville, OK, United States of America

Edward L Sughrue