Products & Services

Products & Services

Chlorine Engineering N-BiTAC

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

Chlorine Engineering N-BiTAC

Chlorine Engineering N-BiTAC

Beihua Machinery Natural Circulation NBZ-2.7

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

Beihua Machinery Natural Circulation NBZ-2.7

Beihua Machinery Natural Circulation NBZ-2.7

Asahi Kasei Natural Circulation NCH-2.7

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

Asahi Kasei Natural Circulation NCH-2.7

Asahi Kasei Natural Circulation NCH-2.7

Wood BM-2.7

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

Wood BM-2.7

Wood BM-2.7

SZMZ-1.25

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

SZMZ-1.25

SZMZ-1.25

DD350 electrolytic cell

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

DD350 electrolytic cell

DD350 electrolytic cell

AZEC-B1 Electrolytic Cell

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

AZEC-B1 Electrolytic Cell

AZEC-B1 Electrolytic Cell

AZEC-F2 Electrolytic Cell

The cathode is retrofitted using a structure comprising a cathode bottom mesh, an elastic mesh, and an active cathode mesh. During the retrofit, the electrode spacing must be strictly controlled. Optimization of the cathode installation method: the conventional nickel-strip welding approach for installing the cathode-side electrodes has been upgraded to a new cathode encapsulation design. The nickel strip has been eliminated, and the active surface mesh of the cathode is now subjected to a edge-sealing process.

AZEC-F2 Electrolytic Cell

AZEC-F2 Electrolytic Cell

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