Abstract A reactor of the shell and tube type wherein the head on the first end of the reactor is divided by a partition. A reactant, e.g. oxygen, is passed into one side of the divided head, passed through the tubes containing catalyst on one side of the reactor which are available to that portion of the head. Upon exiting into the head at the opposite end of the reactor the reactant oxygen is mixed with another reactant, e.g. a chlorinated hydrocarbon, and fed into tubes on the other side of the reactor, which also contains catalyst, and wherein the oxidation of the chlorinated hydrocarbon occurs. The product gases exit on the side of the divided head opposite the oxygen inlet at the first end of the reactor. A heat exchange medium surrounds the tubes and circulates within the shell to either heat or cool the said tubes as necessary. When the catalyst employed in the reaction becomes coated with carbonaceous material the flow is reversed and the oxygen fed into that side of the reactor to regenerate the catalyst.
A reactor of the shell and tube type comprising a plurality of tubes disposed within a shell, and fixed within said shell by attachment to a tube sheet at each of their ends, each of said tube sheets being joined continuously at its respective periphery to said shell, thereby defining a heat exchange chamber outside of said tubes and inside said shell, said shell having inlet and outlet ports positioned between said tube sheets so that a fluid exchange medium may circulate therein, said shell being closed at both ends to form chambers between said closed ends and said tube sheets, said chambers being in communication with said tubes, one of said chambers being divided by a partition into first and second compartments, the other chamber remaining undivided, each of said compartments and the undivided chamber having a port therein through the closed end of said shell, so that a first fluid reactant introduced through said port of said first compartment of said divided chamber may pass through the tubes which connect said first compartment with said undivided chamber into said undivided chamber, wherein said first fluid reactant may mix with a second fluid reactant introduced through said port of said undivided chamber, said first and second reactants thereafter may pass through the tubes which connect said undivided chamber with said second compartment into said second compartment and then may exit said port of said second compartment.
Claim 2
Dependent Claim
237 words
A reactor of the shell and tube type comprising a plurality of tubes disposed within a shell, and fixed within said shell by attachment to a tube sheet at each of their ends, each of said tube sheets being joined continuously at its respective periphery to said shell, thereby defining a heat exchange chamber outside of said tubes and inside said shell, said shell having inlet and outlet ports positioned between said tube sheets so that a fluid exchange medium may circulate therein, said shell being closed at both ends to form chambers between said closed ends and said tube sheets, said chambers being in communication with said tubes, one of said chambers being divided by a partition into first and second compartments, the other chamber remaining undivided, each of said compartments and the undivided chamber having a port therein through the closed end of said shell, so that a first fluid reactant introduced through said port of said first compartment of said divided chamber may pass through the tubes which connect said first compartment with said undivided chamber into said undivided chamber, wherein said first fluid reactant may mix with a second fluid reactant introduced through said port of said undivided chamber, said first and second reactants thereafter may pass through the tubes which connect said undivided chamber with said second compartment into said second compartment and then may exit said port of said second compartment.
Claim 3
Dependent Claim
11 words
The reactor of claim 1 wherein said tubes contain a catalyst.