Chip handling is the aspect of controlling and salvaging chips during the metal removal procedure. Hundreds of chips are produced per month by individual plants, if not thousands. With the uncleanliness of and incredible amount of these chips, they must be handled properly and stored effectively so as to limit the residue created by them. All of these problems, including environmental issues in plants, are something that must be dealt with in a consistent and careful manner.

Chips can be handled in one of two ways. First is the process of manually handling chips. The second method is the use of automated systems. Unlike most other aspects of the semiconductor industry, for the most part, all chips are handled manually. Though carts are used to collect and move the chips, they are ultimately sorted, grouped, and segregated in a manual way.

For most plants, manual chip handling is the preferred method for a number of reasons. Perhaps the most important reason of all for the wide use of manual chip handling is the extensively low cost that comes with it. This method also uses much more simplified equipment, which in turn drastically lowers equipment maintenance time. Unfortunately, this method also requires a careful eye and attentive management to make sure that chips end up in the right locations. If a careful watch is not upheld, the carts can overflow or breakdown, causing problems in the plant like fire hazards, excessive oil, and chip leakage. The two requirements that must be met to make sure manual handling is a success is the maintaining of leak-proof chip carts and keeping a smooth schedule for when to replace full chip carts at their discharge points. With careful watch, manual chip handling can greatly aid a plant.

Some plants do decide to use automated chip handling instead of the excessively used manual chip handling. These automated systems will process the chips from their starting point all the way up to when they are removed from the plant. These systems eliminate the need for workers to shuttle carts, as well as rid the need for stress over carefully monitoring carts. They also can return the MRF that comes off of chips and reuse it in the system. At the same time, not only do automated systems cost an exorbitant amount more but they also expend a greater amount of energy. The MRF can also develop bacteria, making it unusable. The system can also require a high potential amount of maintenance, taking the cost of employing this method even higher. Still, automated chip handling has its place in plants due to its salvage value, as well as eliminating the need for the intense management that comes with manual chip handling.

Chip handling rids plants of excessive chips, as well as remove the oils and other unclean residues they can leave. Manual handling and automated handling are the two methods which can be used for handling these chips and removing them from the plant. While one is much cheaper, the other method tends to be more foolproof in ridding the plant of these environmental hazards. In the long run, each plant must choose which method is more beneficial, and which one is more cost effective in the end.

Chip handling is the aspect of controlling and salvaging chips during the metal removal procedure. Hundreds of chips are produced per month by individual plants, if not thousands. With the uncleanliness of and incredible amount of these chips, they must be handled properly and stored effectively so as to limit the residue created by them. All of these problems, including environmental issues in plants, are something that must be dealt with in a consistent and careful manner.

Chips can be handled in one of two ways. First is the process of manually handling chips. The second method is the use of automated systems. Unlike most other aspects of the semiconductor industry, for the most part, all chips are handled manually. Though carts are used to collect and move the chips, they are ultimately sorted, grouped, and segregated in a manual way.

For most plants, manual chip handling is the preferred method for a number of reasons. Perhaps the most important reason of all for the wide use of manual chip handling is the extensively low cost that comes with it. This method also uses much more simplified equipment, which in turn drastically lowers equipment maintenance time. Unfortunately, this method also requires a careful eye and attentive management to make sure that chips end up in the right locations. If a careful watch is not upheld, the carts can overflow or breakdown, causing problems in the plant like fire hazards, excessive oil, and chip leakage. The two requirements that must be met to make sure manual handling is a success is the maintaining of leak-proof chip carts and keeping a smooth schedule for when to replace full chip carts at their discharge points. With careful watch, manual chip handling can greatly aid a plant.

Some plants do decide to use automated chip handling instead of the excessively used manual chip handling. These automated systems will process the chips from their starting point all the way up to when they are removed from the plant. These systems eliminate the need for workers to shuttle carts, as well as rid the need for stress over carefully monitoring carts. They also can return the MRF that comes off of chips and reuse it in the system. At the same time, not only do automated systems cost an exorbitant amount more but they also expend a greater amount of energy. The MRF can also develop bacteria, making it unusable. The system can also require a high potential amount of maintenance, taking the cost of employing this method even higher. Still, automated chip handling has its place in plants due to its salvage value, as well as eliminating the need for the intense management that comes with manual chip handling.

Chip handling rids plants of excessive chips, as well as remove the oils and other unclean residues they can leave. Manual handling and automated handling are the two methods which can be used for handling these chips and removing them from the plant. While one is much cheaper, the other method tends to be more foolproof in ridding the plant of these environmental hazards. In the long run, each plant must choose which method is more beneficial, and which one is more cost effective in the end.