Patent classifications
C25C3/10
ELECTROLYTIC CELL LID HANDLING SYSTEM AND METHOD OF USE
The invention provides a system for handling pot lids in an aluminium production plant. The system comprises a robot assembly and a sensor system. The robot assembly comprises at least one manipulator arm and a lid gripper apparatus configured to grip at least one protruding or upstanding formation on a pot lid. The lid gripper apparatus is mounted at one end of the at least one manipulator arm. The sensor system is operable to generate position information to control the position of the at least one manipulator arm and/or lid gripper apparatus.
ANODE HANDLING SYSTEM AND METHOD OF USE
The invention provides an anode replacement system for electrolytic cells of an aluminum production plant, the system comprises a support frame and at least one movable member mounted on the support frame wherein the at least one movable member supports at least one anode gripping apparatus. Each of the at least one anode gripping apparatus is configured to grip a shaft of at least one anode assembly at any position along the shaft of the at least one anode assembly. The system comprises a sensor system configured to generate or collect position information to control the position of the at least one anode gripping apparatus.
ANODE HANDLING SYSTEM AND METHOD OF USE
The invention provides an anode replacement system for electrolytic cells of an aluminum production plant, the system comprises a support frame and at least one movable member mounted on the support frame wherein the at least one movable member supports at least one anode gripping apparatus. Each of the at least one anode gripping apparatus is configured to grip a shaft of at least one anode assembly at any position along the shaft of the at least one anode assembly. The system comprises a sensor system configured to generate or collect position information to control the position of the at least one anode gripping apparatus.
POSITIONING SYSTEM FOR A LIFTING APPARATUS AND METHOD OF USE
The invention provides a positioning system for a lifting apparatus. The positioning system comprises a movable support having a longitudinal axis. The system comprises a first positioning member movably mounted to the support, wherein the first positioning member comprises a first axis and a second axis and is configured to move along the longitudinal axis of the support with the first axis parallel to the longitudinal axis of the support. The system also comprises a second positioning member mounted to the first positioning member and configured to move transversely to the first axis of the first positioning member.
POSITIONING SYSTEM FOR A LIFTING APPARATUS AND METHOD OF USE
The invention provides a positioning system for a lifting apparatus. The positioning system comprises a movable support having a longitudinal axis. The system comprises a first positioning member movably mounted to the support, wherein the first positioning member comprises a first axis and a second axis and is configured to move along the longitudinal axis of the support with the first axis parallel to the longitudinal axis of the support. The system also comprises a second positioning member mounted to the first positioning member and configured to move transversely to the first axis of the first positioning member.
ALUMINUM ELECTROLYTIC BATH HAVING CONTINUOUS ALUMINUM-FRAME ANODE WITH BUILT-IN CONDUCTORS
An aluminum electrolytic bath having continuous aluminum-frame anode with built-in conductors, solving the problems of the existing aluminum electrolytic baths, such as poor electrical and thermal conductivity and exhausting capability, high energy consumption, complex operation, poor electrolytic bath stability, large amount of asphalt fumes and the difficulties in collecting the same and in electrolytic fume purification, few variety and poor quality of produced products, and influence on integrity of the anode, includes an aluminum-frame anode and a cathode. The disclosure greatly reduces power consumption and improves current efficiency, the stability and yield of the electrolytic bath.
Handling device to be used to convey an intervention tool on an electrolytic cell
This handling device comprises a chassis carrying the intervention tool, and a means of displacement allowing movement of the chassis, in particular along the superstructure of the electrolytic cell. The means of displacement is adapted to rest against the superstructure.
Handling device to be used to convey an intervention tool on an electrolytic cell
This handling device comprises a chassis carrying the intervention tool, and a means of displacement allowing movement of the chassis, in particular along the superstructure of the electrolytic cell. The means of displacement is adapted to rest against the superstructure.
Intervention tool for the operation of an electrolytic cell
This intervention tool is movable and designed to reposition an anode assembly of an electrolytic cell. The intervention tool comprises a mount provided with one or more bearing surfaces allowing the intervention tool to bear and be stably supported directly on at least one element of the electrolytic cell, and an intervention unit designed to reposition the anode assembly.
Intervention tool for the operation of an electrolytic cell
This intervention tool is movable and designed to reposition an anode assembly of an electrolytic cell. The intervention tool comprises a mount provided with one or more bearing surfaces allowing the intervention tool to bear and be stably supported directly on at least one element of the electrolytic cell, and an intervention unit designed to reposition the anode assembly.