CONCLUSION
We designed an Arduino-based system to measure
milk quality and
provide a faster and more
reliable result than the previously developed milk
quality analyzer system. This machine can be used
as a primary milk quality analyzer for all milk
depositors in a dairy booth. Alternatively, customers
may use Bluetooth to verify quality analyzer data
on their mobile devices. The Arduino Controller is
attached to the Bluetooth module.
The dairy vendor
will keep track of the milk analysis data for the
entire month. Real-time data of milk parameters
calculated by various
sensors were also stored
using the real-time clock unit. Customers can also
verify the milk parameters of the dairy where the
system is mounted. This system is simple to use and
provides reliable information. This is a cost-effective
and dependable method.
We will use the Data Base
Management System to expand this system in the
future. All information about milk depositors and
customers is stored in SQL. This information is then
used for billing every month.
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Table 1: Observation table
of the Milk Analyzer system
Samples
Fat
pH
Temperature
Odor
Quality
Pure milk
3.2-3.5%
6.8 (Normal)
30.31
5%
High
Water + milk
0.5-2%
6.4 (Normal)
31.56
5%
Normal
Milk + salt
4-5%
4.5 (Acidic)
31.38
10%
Low
Milk + soap
4-5%
8.8 (Alkaline)
32.43
11%
Low