Gas-gas phase contactor

Claim 2

A process for intimately contacting and reacting at least two disparate gaseous phases, comprising the steps of: A. separately establishing at least two disparate gaseous feedstreams of said at least two gaseous phases, respectively, B. separating each of said feedstreams into a plurality of substreams such that all of one of said gaseous phases is divided into a plurality of first substreams and all of another of said gaseous phases is divided into a plurality of second substreams, the number of said first substreams equaling the number of said second substreams, C. directing each of said first substreams toward a respective one of said second substreams within a chamber to combine each of said first substreams with a respective one of the second substreams at a respective separate mixing zone before said second substreams are combined with one another and before said first substreams are combined with one another, in order to establish a plurality of homogeneous blended mixtures of said first and second gaseous phases, D. thereafter combining together said blended mixtures to form a final mixture, and E. thereafter reacting said first and second gaseous phases of said final mixture.

Claim 3

The process as defined by claim 1, wherein the speed of flow of at least one of said plurality of first and second substreams being at least 3 times as great as that of its original feedstream.

Claim 4

The process according to claim 1, wherein said blended mixtures are combined by causing at least one of said substreams to travel helically.

Claim 5

The process according to claim 3, wherein said helically traveling subsream is introduced into said chamber in a generally tangential direction.

Claim 6

The process according to claim 3, wherein said final mixture passes through a restriction of said chamber.

Claim 7

The process according to claim 1, wherein walls of said chamber are maintained at a temperature such as to avoid local decomposition of any products of reaction between said gaseous phases.

Claim 8

The process according to claim 1, wherein at least one of said feedstreams comprises a hydrocarbon.

Claim 9

The process according to claim 1, wheren at least one of said feedstreams comprises chlorine gas and at least one other feedstream comprises hydrogen or a hydrocarbon.

Claim 10

The process according to claim 1, wherein at least one of said feedstreams comprises oxygen gas and at least one other of said feedstreams comprises hydrogen or a hydrocarbon.

Claim 11

Apparatus for intimately contacting and reacting at least two disparate gaseous phases, comprising: means for separately establishing at least two disparate gaseous feedstreams of said at least two gaseous phases, respectively, a chamber, feedstream separating means for separating each of said feedstreams into a plurality of substreams such that all of one of said gaseous phases is divided into a plurality of first substreams and all of another of said gaseous phases is divided into a plurality of second substreams, the number of said first substreams equaling the number of said second substreams, said feedstream separating means directing each of said first substreams toward a respective one of said second substreams within said chamber to combine each of said first substreams with a respective one of said second substreams at a respective separate mixing zone before said first substreams are combined with one another and before said second substreams are combined with one another, to establish a plurality of homogeneous blended mixtures of said first and second gaseous phases, combining means for combining said blended mixtures so as to form a final mixture, and means causing said first and second gaseous phases of said final mixture to react.

Claim 12

Apparatus for intimately contacting and reacting at least two disparate gaseous phases, comprising: means for separately establishing at least two disparate gaseous feedstreams of said at least two gaseous phases, respectively, a chamber, feedstream separating means for separating each of said feedstreams into a plurality of substreams such that all of one of said gaseous phases is divided into a plurality of first substreams and all of another of said gaseous phases is divided into a plurality of second substreams, the number of said first substreams equaling the number of said second substreams, said feedstream separating means directing each of said first substreams toward a respective one of said second substreams within said chamber to combine each of said first substreams with a respective one of said second substreams at a respective separate mixing zone before said first substreams are combined with one another and before said second substreams are combined with one another, to establish a plurality of homogeneous blended mixtures of said first and second gaseous phases, combining means for combining said blended mixtures so as to form a final mixture, and means causing said first and second gaseous phases of said final mixture to react.

Claim 13

Apparatus according to claim 10 wherein said combining means includes means for establishing a helical flow of at least one of said substreams.

Claim 14

Apparatus according to claim 10 including means for regulating the temperature of said blended mixtures.

Claim 15

Apparatus according to claim 10 including means for separately establishing a rectilinear flow of fluid to a zone of restricted flow passage of said blended mixtures.