Patent classifications
C11C1/02
HYDROPHOBING EMULSION COMPRISING TRIGLYCERIDE WAX
Hydrophobing emulsion for use in the manufacture of composite wood panels and methods of formulating same. The hydrophobing emulsion comprising triglyceride wax in alkaline aqueous phase, having a free fatty acid content of at least 0.3 w/w % relative to total amount of triglyceride wax, wherein the triglyceride wax has a high drop melt point (DMP) and a low iodine value (IV), and wherein the emulsion is formed at a temperature above the DMP of the triglyceride wax and maintained at a temperature above the DMP of the triglyceride wax until use.
PROCESSING LIPID-CONTAINING COMPOUNDS FOR FUEL FEEDSTOCK THROUGH CHELATE DEGUMMING AND ADSORPTIVE BLEACHING/DRYING
In general, one aspect disclosed features a process for treating a lipid containing compound (LCC), the process comprising: producing a first mixture by mixing an aqueous chelate with the LCC, wherein the aqueous chelate comprises Ethylenediaminetetraacetic acid (EDTA), and wherein the LCC is a rendered fat; and separating an aqueous gum containing phase of the first mixture from a lipid containing phase of the first mixture.
PROCESSING LIPID-CONTAINING COMPOUNDS FOR FUEL FEEDSTOCK THROUGH MULTISTAGE DEGUMMING AND ADSORPTIVE BLEACHING/DRYING
In general, one aspect disclosed features a process for degumming of lipid-containing compounds for fuel feedstock, the process comprising; receiving a lipid-containing compound (LCC); degumming the LCC using at least one acid in an acid degumming stage to produce a partially-degummed LCC; and degumming the partially-degummed LCC using at least one chelate in a chelate degumming stage to produce a degummed LCC.
FUEL FEEDSTOCK PRODUCED THROUGH ACID DEGUMMING AND ADSORPTIVE BLEACHING/DRYING OF LIPID-CONTAINING COMPOUNDS
In general, one aspect disclosed features a product produced by a process for treating a lipid containing compound (LCC), the process comprising: producing a first mixture having a pH lower than 2 by vigorously mixing an acid with the LCC; and producing a second mixture having a pH between 2.5 and 7 by adding a base to the first mixture, wherein a majority of free fatty acid in the second mixture is not converted into soapstock.
FUEL FEEDSTOCK PRODUCED THROUGH MULTISTAGE DEGUMMING AND ADSORPTIVE BLEACHING/DRYING OF LIPID-CONTAINING COMPOUNDS
In general, one aspect disclosed features a product produced by a process for degumming a lipid-containing compound (LCC) for fuel feedstock, the process comprising; receiving a LCC; degumming the LCC using at least one acid in an acid degumming stage to produce a partially-degummed LCC; and degumming the partially-degummed LCC using at least one chelate in a chelate degumming stage to produce a degummed LCC.
FUEL FEEDSTOCK PRODUCED THROUGH MULTISTAGE DEGUMMING AND ADSORPTIVE BLEACHING/DRYING OF LIPID-CONTAINING COMPOUNDS
In general, one aspect disclosed features a product produced by a process for degumming a lipid-containing compound (LCC) for fuel feedstock, the process comprising; receiving a LCC; degumming the LCC using at least one acid in an acid degumming stage to produce a partially-degummed LCC; and degumming the partially-degummed LCC using at least one chelate in a chelate degumming stage to produce a degummed LCC.
PROCESSING LIPID-CONTAINING COMPOUNDS FOR FUEL FEEDSTOCK THROUGH ACID DEGUMMING AND ADSORPTIVE BLEACHING/DRYING
In general, one aspect disclosed features a process for treating a lipid containing compound (LCC), the process comprising: producing a first mixture having a pH lower than 2 by vigorously mixing an acid with the LCC; and producing a second mixture having a pH between 2.5 and 7 by adding a base to the first mixture, wherein a majority of free fatty acid in the second mixture is not converted into soapstock.
FUEL FEEDSTOCK PRODUCED THROUGH CHELATE DEGUMMING AND ADSORPTIVE BLEACHING/DRYING OF LIPID-CONTAINING COMPOUNDS
In general, one aspect disclosed features a product produced by a process for treating a lipid containing compound (LCC), the process comprising: producing a first mixture by mixing an aqueous chelate with the LCC, wherein the aqueous chelate comprises Ethylenediaminetetraacetic acid (EDTA), and wherein the LCC is a rendered fat; and separating an aqueous gum containing phase of the first mixture from a lipid containing phase of the first mixture.
DEVICE AND METHOD FOR PREPARING FATTY ACID DERIVATIVES
Disclosed are a device and method for preparing fatty acid derivatives and more specifically, a device for preparing fatty acid derivatives including three reactors and a method for effectively preparing fatty acid derivatives. The device for preparing fatty acid derivatives including three reactors enables a stable supply of reactants even if a problem occurs in one reactor, and enables continuous and stable operation because delays in the treatment and purification process do not occur. As a result, the device has effects of increasing productivity and reducing production costs. In other words, by operating three reactors instead of two reactors, it is possible to build a production facility that can be operated continuously without stopping, resulting in increased production and reduced production costs. The reactors are operated at a time interval so that only one ammonia feeder and one ammonia collector may be used for all three reactors. As a result, there is no need to prepare additional ammonia feeders and collectors, and there are advantages such as reducing utility costs for preparation.
DEVICE AND METHOD FOR PREPARING FATTY ACID DERIVATIVES
Disclosed are a device and method for preparing fatty acid derivatives and more specifically, a device for preparing fatty acid derivatives including three reactors and a method for effectively preparing fatty acid derivatives. The device for preparing fatty acid derivatives including three reactors enables a stable supply of reactants even if a problem occurs in one reactor, and enables continuous and stable operation because delays in the treatment and purification process do not occur. As a result, the device has effects of increasing productivity and reducing production costs. In other words, by operating three reactors instead of two reactors, it is possible to build a production facility that can be operated continuously without stopping, resulting in increased production and reduced production costs. The reactors are operated at a time interval so that only one ammonia feeder and one ammonia collector may be used for all three reactors. As a result, there is no need to prepare additional ammonia feeders and collectors, and there are advantages such as reducing utility costs for preparation.