Feed-water analysis
Use a current laboratory report for hardness, conductivity, turbidity, chlorine, iron, manganese and microbiological risk.
RO water systems provide treated water for suitable process, formulation or cleaning requirements depending on plant design.

RO water system for process water support in fruit processing plants.
For RO Water System RFQ, provide feed-water analysis, required water, recovery and reject and operating schedule. These data are used to confirm the configuration, interfaces and quotation scope.
The position may vary according to finished product route, plant layout and sanitary design.
Control feed rate, inlet height and raw material condition before RO Water System so the machine receives a stable load without bridging or unnecessary product damage.
Check utility capacity, pressure, automation signals and installation interfaces because this module supports the stability of the complete line.
Confirm outlet height, pump or conveyor interface, buffer need and next-machine inlet so the section connects cleanly to the production line.
Provide access for inspection, drain-down and cleaning so product-contact parts can be maintained without excessive downtime.
Check utility capacity, pressure, automation signals and installation interfaces because this module supports the stability of the complete line.
RO Water System is commonly discussed for beverage formulation, cip preparation, utility water support, process water treatment. The goal is to make this module work as part of a complete fruit and vegetable processing line, not as an isolated catalogue item.
Utility and control equipment decides whether the processing line can run continuously after the main machines are installed. CIP, water treatment, chilled water, cooling tower, compressed air and PLC control should be sized from the full process route, not from one machine. Steam peaks, cooling load, valve air demand, wash water quality and recipe control can limit production even when the visible equipment looks complete.
For quotation, provide the plant voltage, available water, steam pressure, air compressor status, drainage plan, automation expectation and cleaning philosophy. A semi-automatic line and a recipe-controlled aseptic line need different valve groups, instruments, alarms and operator interfaces. Utility data is also needed for installation drawings, pipe routing and long-term operating cost estimates. The RFQ checklist below should be used to confirm the sizing data before quotation.
Related planning pages: CIP system for product-contact cleaning, PLC control system, and full process flow planning. These internal links help compare equipment, plant route and RFQ scope before final quotation.
The questions below reflect the actual engineering inputs for this equipment category. Reference values are useful for early discussion, but final sizing is confirmed from project data and samples or drawings where needed.
Use a current laboratory report for hardness, conductivity, turbidity, chlorine, iron, manganese and microbiological risk.
Define flow, conductivity, recovery and whether water is for ingredient, final rinse, boiler make-up or general process use.
Plan filtration, softening, dosing, membrane stages, cleaning and reject-water handling with the site utilities.
Use this checklist when requesting a quote for RO Water System. If values are preliminary, mark them as reference only so the engineering team can show adjustable options.
| RFQ Field | What to Provide | Why It Matters |
|---|---|---|
| Feed-water analysis | Source and laboratory values for TDS, conductivity, hardness, turbidity, chlorine, iron, manganese, pH and microbiology. | Feed quality determines pretreatment and membrane selection. |
| Required water | Required flow per hour, daily demand, conductivity or quality target and end use. | Demand and end use determine RO stages, storage and distribution. |
| Recovery and reject | Desired recovery, reject-water discharge or reuse plan and local drain limits. | Recovery affects membrane loading and water balance. |
| Operating schedule | Hours per day, peak demand, storage volume and redundancy requirement. | Schedule determines membrane capacity and buffer-tank size. |
| Site utilities | Feed pressure, temperature, voltage, chemical availability, floor space and drainage. | Site conditions affect pumps, dosing, cleaning and installation. |
RO design depends on dissolved salts, hardness, turbidity, chlorine, metals and microbiological condition. Designing from city-water assumptions can cause scaling, membrane damage or poor product-water quality.
Recovery is balanced against feed quality, scaling risk, pretreatment and reject-water handling. A higher number is not automatically better if it shortens membrane life.
Product-water and feed-water tanks, recirculation and distribution can be included. State peak demand and the processes served so tank volume and hygienic return can be planned.
Yes. Capacity, product-contact or container-contact parts, motor and drive selection, controls, guarding, inlet and outlet arrangement, platform and line interfaces can be configured from the project data listed on this page. Final scope is confirmed before manufacturing.
The same equipment name can cover different capacity, construction, controls, guarding, accessories and upstream or downstream interfaces. A fixed public price would hide those differences. The RFQ process confirms the required scope before a project quotation is prepared.
For a useful quotation, provide feed-water analysis, required water, recovery and reject and operating schedule. Mark preliminary values as reference only.