3A Molecular Sieve Heat Recovery Wheel

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.

The 3A molecular sieve heat rotor is obtained by impregnating the molecular sieve onto an aluminum alloy substrate with a thickness of 0.06 to 0.07mm, then subjecting it to high-pressure rolling, and finally transferring it to a high-temperature box for baking and cooling.