Manifold inputs and outputs for furnace regenerators

Claim 2

A regenerator system for a furnace having a pair of elongated regenerators through which intake air and exhaust gases alternately pass, and each said generator having a longitudinal duct along its top connected to a plurality of side ports said system comprising: (A) an input manifold for said intake air to each regenerator, said manifold having branch ducts spaced along and connected to its said regenerators, (B) an output manifold for exhaust gases from each regenerator, said manifold having branch ducts spaced along and connected to its said regenerator, (C) separately operative gates in each of said branch ducts, and (D) separate reversing valve means between said input manifolds and between said output manifolds.

Claim 3

A regenerator system according to claim 1 wherein said manifold ducts are tapered from one end to the other along the connections to their branch ducts.

Claim 4

A regenerator system according to claim 1 wherein said regenerators are of the checker brick type having tunnels under each of their brickworks, and said manifolds are connected along the sides of said tunnels.

Claim 5

A regenerator system according to claim 1 wherein each of said gates is separately adjusted without change when said reversing valve means are operated.

Claim 6

A regenerator system according to claim 1 including means for operating all of said gates from a remote location.

Claim 7

A regenerator system according to claim 1 wherein some of said branch ducts of said intake manifold are connected to branch ducts of said exhaust manifold.

Claim 8

A regenerator system according to claim 3 wherein each said tunnel is provided with multiple sideports for connection to said branch ducts of said manifolds.

Claim 9

A regenerator system for a furnace having a pair of elongated regenerators through which intake air and exhaust gases pass as these gases are alternately passed, each regenerator having: (a) an elongated duct along its top connected to a plurality of sideports connected to said furnace, and (b) a tunnel along its bottom having multiple sideports, said system comprising: (A) an input manifold for said intake air to each regenerator, said input manifold having branch ducts spaced along and connected to said tunnel via said sideports, (B) an output manifold for exhaust gases from each regenerator, said output manifold having branch ducts spaced along and connected to said tunnel via said sideports, (C) separately operative gates in each of said branch ducts of both said manifolds, and (D) separate reversing valve means between said input manifolds and between said output manifolds.

Claim 10

A regenerator system for a furnace having a pair of elongated regenerators through which intake air and exhaust gases pass as these gases are alternately passed, each regenerator having: (a) an elongated duct along its top connected to a plurality of sideports connected to said furnace, and (b) a tunnel along its bottom having multiple sideports, said system comprising: (A) an input manifold for said intake air to each regenerator, said input manifold having branch ducts spaced along and connected to said tunnel via said sideports, (B) an output manifold for exhaust gases from each regenerator, said output manifold having branch ducts spaced along and connected to said tunnel via said sideports, (C) separately operative gates in each of said branch ducts of both said manifolds, and (D) separate reversing valve means between said input manifolds and between said output manifolds.

Claim 11

A system according to claim 8 wherein said gates are separately adjusted without change when said reversing valve means are operated.

Claim 12

A regenerator system according to claim 8 including means for operating all said gates from a remote location.

Claim 13

A regenerator according to claim 8 wherein some of said branch ducts of said intake manifold are connected to the branch ducts of said exhaust manifold.