WATER MONITORING DEVICE WITH REPLACEABLE REAGENT CARTRIDGE
A water monitoring device monitors and maintains swimming pool chemistry. The device mixes reagents with water in flowcells. The water chemistry is detected by measuring the light transmitted through the flowcells. The water monitoring device can communicate with computers, servers and mobile computing devices which can store and display the water chemistry information. The reagents can be stored in a replaceable reagent cartridge which can provide reagents for water testing and can be replaced when the reagents need to be replenished.
1 . A water monitoring system comprising:
a first reagent in a first reagent container;
a second reagent in a second reagent container;
a first flowcell coupled to the first reagent container wherein the first reagent and water are mixed in the first flowcell for a first water test;
a second flowcell coupled to the second reagent container, wherein the second reagent and the water are mixed in the second flowcell for a second water test; and
a water monitoring unit, a light source and a light sensor at the bottom of a slot in the water monitoring unit;
wherein the first reagent container, the second reagent container, the first flowcell, and the second flowcell are part of a replaceable reagent cartridge that is inserted into the slot in the water monitoring unit.
2 . The water monitoring system of claim 1 wherein the light source and the light sensor are inserted into a first recess in the replaceable reagent cartridge.
3 . The water monitoring system of claim 1 wherein the first flowcell and the second flowcell are adjacent to each other and the first flowcell and the second flowcell are on an end portion of the replaceable reagent cartridge.
4 . The water monitoring system of claim 1 further comprising:
a temperature sensor for detecting a temperature of the water.
5 . The water monitoring system of claim 1 further comprising:
a processor in communication with the light source and the light sensor, wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor.
6 . The water monitoring system of claim 1 further comprising:
a processor in communication with the light source and the light sensor, wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor; and
a memory coupled to the processor for storing a baseline light measurements for the water monitoring system.
7 . The water monitoring system of claim 1 further comprising:
a temperature sensor for detecting a temperature of the water; and
a processor in communication with the light source, the light sensor, and the temperature sensor,
wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor and a water temperature measurement from the temperature sensor.
8 . A water monitoring system comprising:
a first reagent in a first reagent container;
a second reagent in a second reagent container; and
a flowcell coupled to the first reagent container and the second reagent container, wherein the first reagent, the second reagent, and water are mixed in the flowcell for water testing, wherein the flowcell is on one end of the replaceable reagent cartridge;
wherein the replaceable reagent cartridge is inserted into the water monitoring unit, a light source, a red light sensor, a green light sensor, and a blue light sensor at the bottom of a slot of the water monitoring unit are inserted into a first recess in the replaceable reagent cartridge.
9 . The water monitoring system of claim 8 wherein the light source and the light sensor are inserted into a first recess in the replaceable reagent cartridge.
10 . The water monitoring system of claim 8 wherein the first flowcell and the second flowcell are adjacent to each other and the first flowcell and the second flowcell are on an end portion of the replaceable reagent cartridge.
11 . The water monitoring system of claim 8 further comprising:
a temperature sensor for detecting a temperature of the water.
12 . The water monitoring system of claim 8 further comprising:
a processor in communication with the light source and the light sensor, wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor.
13 . The water monitoring system of claim 8 further comprising:
a processor in communication with the light source and the light sensor, wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor; and
a memory coupled to the processor for storing a baseline red light measurement, a baseline green light measurement, and a baseline blue light measurement for the water monitoring system.
14 . The water monitoring system of claim 8 further comprising:
a temperature sensor for detecting a temperature of the water; and
a processor in communication with the light source, the light sensor, and the temperature sensor,
wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor and a water temperature measurement from the temperature sensor.
15 . The water monitoring system of claim 8 further comprising:
a pH sensor for detecting a pH level of the water; and
a processor in communication with the light source, the light sensor, and the pH sensor,
wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor and a pH measurement from the pH sensor.
16 . The water monitoring system of claim 8 further comprising:
an oxidation reduction potential sensor for detecting a pH level of the water; and
a processor in communication with the light source, the light sensor, and the oxidation reduction potential sensor,
wherein the processor determines a chemical concentration in the water based on light measurements from the light sensor and a pH measurement from the oxidation reduction potential sensor.