Fill Speed
Fill Speeds depend
on several factors as follows:
Generally the thicker the product the faster it can fill ….up to a
point…cosmetic creams fill faster than water. Water can foam
up as it goes into a bottle reducing possible speed per nozzle
whereas creams do not. However thick paste, or Honey or
Epoxy resins are so sticky that they could potentially overload a
machine without additional options such as a heating jacket.
The diameter of
the neck of the container dictates the diameter of the nozzle that
can be fitted to the machine. A larger nozzle creates less foam or
splash enabling faster fill speeds. For example the tiny top on a
perfume bottle requires the use of a very small nozzle which will
make the product foam unless the fill speed is lowered. The large
neck of a cream jar enables the use of a large diameter nozzle
reducing splash or foam increasing fill speeds.
Number of
nozzles on the filling machine
The more nozzles
the greater the speed. With the AESFill each unit or drive has one
pump and one nozzle to give accuracy and versatility. The more
drives/pumps the more nozzles.
However a 12 head
filler will not necessarily fill at twice the speed of a 6 head
filler since one has to calculate the time it takes to exchange
filled for fresh empty bottles. You can double the speeds if you
divide the bottles into two lanes of 6 bottles each, 12 in total
since the indexing time will be the same but you have twice as many
nozzles.
Note: There are rare instances when an extra nozzle can be fitted to a
single pump to give 2 nozzles but this severely compromises the
ease
of setting up and adjustment since one can never guarantee the same
amount will flow repeatedly down each of two (or more)
nozzles. This is the problem with inexpensive gravity
time pressure fillers.
Container
stability, (for automatic machines)
The container
stability predicates how quickly you can exchange empty for full
bottles. If your bottle is unstable then special systems such as in
feed screws may have to be fitted to your machine beyond the
standard neck clamp, or the conveyor will have to be slowed which
increases the index time.
Fill Speed Chart
The above speeds are based on a
single row of containers, speeds can be increased by having two rows
of containers at the fill area. This
reduces the "index time" or container change over time.
Speeds may vary depending on the type of product (viscosity,
likeliness to foam), and the container size (shape, neck opening,
stability).
|
Twin Row Machines |
|
|
|
|
4 plus 4 Pump Machine
(8 pumps in total) |
6 plus 6 Pump Machine
(12 pumps in total) |
|
Nozzle Diameter * |
1/4" |
1/2" |
3/4" |
1/4" |
1/2" |
3/4" |
|
6mm |
13mm |
19mm |
6mm |
13mm |
19mm |
|
Fill Volumes |
1oz. |
30ml |
190 |
|
|
250 |
|
|
|
2oz. |
60ml |
150 |
170 |
|
200 |
220 |
|
|
4oz. |
120ml |
120 |
144 |
154 |
154 |
184 |
200 |
|
8oz. |
250ml |
86 |
110 |
120 |
106 |
140 |
160 |
|
12oz. |
375ml |
70 |
90 |
100 |
90 |
120 |
140 |
|
16oz. |
500ml |
|
74 |
84 |
|
100 |
120 |
|
32oz. |
1000ml |
|
|
66 |
|
|
90 |
*Other nozzle
diameters are available. Nozzles should be sized as large as
possible to fit the neck of the contain to achieve the best speeds.
**Standard pumps - 12 Liter/Minute maximum output per pump.
Larger pumps are available for special applications.
Note: Spaces are left blank on the chart where it would not
be practical to fill, for example, a 1oz. container with a 3/4"
nozzle or a 1 liter container with a 1/4" nozzle.