How to calculate bottle per minute of filling machine?
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One recurring question that always seems to arise when discussing
liquid filling equipment is how many bottles per minute will the filling
machine handle. At first glance, one may be tempted to simply multiple
the fill time by the number of fill heads on the machine. Figuring out
the production capacity of a liquid filler will entail a little more
than just fill time however. Below we look at other factors that can
have an effect on the bottles per minute produced by the equipment.
First a few caveats to keep in mind regarding the bottles per
minute capabilities of the machine. It is important to realize that the
number of bottles filled each minute by the filler may or may not be
equal to number of bottles produced by the complete packaging system
per minute. The filling machine can only work as fast as the slowest
machine on the complete line. So, for instance, if the a packaging line
fills 80 bottles per minute, but only labels 40 bottles per minute, the
efficiency of the filling machine will be reduced to the same speed as
the labeler. Second, one must realize that the bottle size will,
obviously, affect the amount of time required for a fill. So when
speaking of bottles per minute, a packager must remember that the number
will change based on the bottle being used. Finally, the same is true
of the product being run. Some products are thin and free-flowing,
while others are of a thicker quality and may also increase fill times.
So the packager must also realize that different products may result in
different fill times and, therefore, a different number of bottles per
minute.
With the caveats out of the way, we must then look to the fill
cycle to determine how many bottles per minute a filling machine can
produce. The actual fill time will be only one component of the fill
cycle. Imagine a ten head filling machine, whether using an overflow,
gravity, pump or other filling principle. With bottles under the fill
heads, it may take six (6) seconds to fill the containers. However, the
bottles also take time to move into and out of the fill area. This is
known as bottle indexing. If our filler is using pin indexing, the exit
pin, or exit gate, will open after the fill is complete to allow the
bottles to exit the fill area. Once bottles are moving out of the fill
area, the entrance gate will open to allow new, empty bottles to slide
in to place under the nozzles. The indexing time will also be a part of
the fill cycle. For our example, we will assume that indexing of
bottles takes four (4) seconds total. Our fill cycle is not at a total
of ten (10) seconds.
Different filling machines will also take advantage of different
delay and duration times. The two described above, the indexing and
fill times, are examples of duration times. Delay times may include
things such as a slight pause before diving fill heads begin to ascend
again to protect against drips and spills or a slight pause before the
pump begins to ensure bottles are precisely in place. If we assume that
our filling machine used these two delay times as well, at one (1)
second each, we have a total fill cycle time of twelve (12) seconds.
This is now the entire time it takes for one set of bottles to index
into the fill area, receive product and move out of the fill area.
Doing the math shows us that we will be able to complete five cycles in
a minute, at ten bottles in each cycle, meaning that the filling
machine will produce fifty bottles per minute!
Again, a larger or smaller bottle, or a different product,
introduced to our fictional filling machine above can change the
equation, increasing or decreasing the bottles per minute. If you have
additional questions or concerns regarding fill times, bottles per
minute or filling machinery in general, feel free to call an LPS
Packaging Specialist for more information.
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