C01G1/06

METHODS OF PREPARATION OF ORGANOMETALLIC HALIDE STRUCTURES

Embodiments of the present disclosure provide methods of growing organometallic halide structures such as single crystal organometallic halide perovskites, methods of use, devices incorporating organometallic halide structures, and the like.

Methods of preparation of organometallic halide structures

Methods of growing organometallic halide structures such as AMX3 single crystal organometallic halide perovskites, using the inverse temperature solubility.

Methods of preparation of organometallic halide structures

Methods of growing organometallic halide structures such as AMX3 single crystal organometallic halide perovskites, using the inverse temperature solubility.

SYSTEMS AND METHODS FOR SOLID-PHASE REACTIONS

The present disclosure is related to systems and methods for solid-phase reactions.

SYSTEMS AND METHODS FOR SOLID-PHASE REACTIONS

The present disclosure is related to systems and methods for solid-phase reactions.

METHOD FOR RECOVERING TRANSITION METAL TETRAHALIDE AND HYDROCARBONS FROM A WASTE STREAM

The present invention provides a process for recovering transition metal tetrahalides from a waste stream coming from a catalyst manufacturing process by (a) establishing a mixed stream comprising transition metal tetrahalide and transition metal alkoxyhalides; (b) forming a falling liquid film from the mixed stream of step (a) at a temperature of from 25 to 85 C. and an absolute pressure of from 0.05 to 0.6 bar; and (c) establishing from the film of step (b) a first vapour stream containing from 90 to 100% of recoverable components and a second liquid stream containing about 10 to 80% of titanium haloalkoxides.

METHOD FOR RECOVERING TRANSITION METAL TETRAHALIDE AND HYDROCARBONS FROM A WASTE STREAM

The present invention provides a process for recovering transition metal tetrahalides from a waste stream coming from a catalyst manufacturing process by (a) establishing a mixed stream comprising transition metal tetrahalide and transition metal alkoxyhalides; (b) forming a falling liquid film from the mixed stream of step (a) at a temperature of from 25 to 85 C. and an absolute pressure of from 0.05 to 0.6 bar; and (c) establishing from the film of step (b) a first vapour stream containing from 90 to 100% of recoverable components and a second liquid stream containing about 10 to 80% of titanium haloalkoxides.

METAL CHLORIDES AND METALS OBTAINED FROM METAL OXIDE CONTAINING MATERIALS

Method and apparatus for preparing at least one metal chloride from metal oxide containing material comprising calcining the metal oxide containing material under temperature conditions sufficient to obtain a calcined product comprising at least one metal oxide; and selectively chlorinating the calcined product to form at least one metal chloride.

METAL CHLORIDES AND METALS OBTAINED FROM METAL OXIDE CONTAINING MATERIALS

Method and apparatus for preparing at least one metal chloride from metal oxide containing material comprising calcining the metal oxide containing material under temperature conditions sufficient to obtain a calcined product comprising at least one metal oxide; and selectively chlorinating the calcined product to form at least one metal chloride.

Metal chlorides and metals obtained from metal oxide containing materials

Method and apparatus for preparing at least one metal chloride from metal oxide containing material comprising calcining the metal oxide containing material under temperature conditions sufficient to obtain a calcined product comprising at least one metal oxide; and selectively chlorinating the calcined product to form at least one metal chloride.