Offer
Model RRS-K
Water impoundment range: from 0,5 to 3,0 mH2O
Regulator capacity: from 3 to 50 dm3/s
Type: conical vortex
Material: stainless steel 1.4301 or 1.4404
Installation: the regulator nozzle is inserted into the outlet pipe from the well/tank, then sealed with sealing compound (e.g., polyurethane) and concreted in
Application
Regulators are used in:
- overflows and stormwater chambers
- rainwater retention tanks
- water impoundment structures
- stormwater sewer systems
Model RRS-B
Range of impoundment: from 0,5 to 3,0 mH2O
Regulator capacity: from 3 to 50 dm3/s
Type: conical vortex
Material: stainless steel 1.4301 or 1.4404
Installation: mounted to the tank wall using a mounting plate with mounting anchors; the connections between the mounting plate and the tank wall should be sealed with sealing compound and then the device should be concreted
Application
Regulators are used, among others, in:
- overflow structures and stormwater chambers
- rainwater retention tanks
- dam structures
- stormwater drainage systems
Model RRK-B
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 30 to 1000 dm3/s
Type: orifice
Material: stainless steel 1.4301 or 1.4404
Installation: mounted on a mounting plate attached to the tank wall (using mounting anchors); the shape of the plate is adapted to a specific well diameter; it is recommended to concrete the regulator and form the inlet channel to the regulator
Application
Regulators are used, among others, in:
- outlets from flood control polders
- overflow structures
- stormwater drainage systems in larger cities
- wastewater treatment plants
Model RRP-H
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 0,2 to 30 dm3/s
Type: vertical vortex
Material: stainless steel 1.4301 or 1.4404
Installation: the regulator is made with a hook connection allowing it to be hung on a mounting plate attached to the tank wall (using mounting anchors); the shape of the plate is adapted to a specific well diameter
Application
Regulators are used, among others, in:
- overflow structures and stormwater chambers
- rainwater retention tanks
- dam structures
- stormwater drainage systems
Model RRP-B
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 8 to 30 dm3/s
Type: vertical vortex
Material: stainless steel 1.4301 or 1.4404
Installation: mounted on a mounting plate attached to the tank wall (using mounting anchors); the shape of the plate is adapted to a specific well diameter
Application
Regulators are used, among others, in:
- overflow structures and stormwater chambers
- rainwater retention tanks
- dam structures
- stormwater drainage systems
Model RRO-B
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 30 to 1000 dm3/s
Type: vertical orifice
Material: stainless steel 1.4301 or 1.4404
Installation: bolted to the tank wall using a mounting plate with mounting anchors; the connections between the mounting plate and the tank wall should be sealed with sealing compound and then the device should be concreted
Application
Regulators are used, among others, in:
- outlets from flood control polders
- overflow structures
- stormwater drainage systems in larger cities
- wastewater treatment plants
Model RRD-H
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 0,2 to 30 dm3/s
Type: vertical orifice
Material: stainless steel 1.4301 or 1.4404
Installation: the regulator is made with a hook connection allowing it to be hung on a mounting plate attached to the tank wall (using mounting anchors); the shape of the plate is adapted to a specific well diameter
Application
Regulators are used, among others, in:
- overflow structures and stormwater chambers
- rainwater retention tanks
- dam structures
- stormwater drainage systems
Model RRD-B
Pressure range: from 0,5 to 3,0 mH2O
Regulator capacity: from 30 to 100 dm3/s
Type: vertical orifice
Material: stainless steel 1.4301 or 1.4404
Installation: bolted to the tank wall using a mounting plate with mounting anchors; the connections between the mounting plate and the tank wall should be sealed with sealing compound and then the device should be concreted
Application
Regulators are used, among others, in:
- overflow structures and stormwater chambers
- rainwater retention tanks
- dam structures
- stormwater drainage systems
FAQ – flow regulator
What is a flow regulator?
These are devices of various constructions, designed to ensure a constant flow rate of liquid depending on the current height of the liquid column in front of the device, as well as to stabilize flows before and after devices whose effectiveness depends on the flow rate.
How to select a flow regulator?
To make the appropriate selection, the following data is needed:
- expected discharge rate from the regulator Q [l/s]
- allowable wastewater head height above the regulator H [m]
- diameter of the discharge pipe [mm]
- installation method:at the bottom in a chamber without a sedimentation part
- to the wall in a chamber with a sedimentation part (min. 35 cm)
This information can be sent to us, or you can use the calculator available at waterfolder.com
Flow regulator selection calculator
Why regulate the flow of water?
The use of flow regulators allows for minimizing risks such as floods or sewer overflows. Additionally, it enables the use of pumps with smaller operating parameters and protects pre-treatment devices from hydraulic overload, which would result in the deterioration of wastewater quality at the outlet.
What is the purpose of each type of regulator?
Flow regulators differ in terms of their specific installation methods, operating principles, performance characteristics, and capacity range. The key aspect that most often determines the choice of a particular regulator model is its capacity. Generally, it can be assumed that conical-vortex regulators are preferred in situations requiring the management of smaller liquid flows, while orifice models are more suitable for larger flows.
What are the key parameters of flow regulators?
- discharge flow rate Q [l/s],
- head height before the regulator H [m],
- diameter of the outlet pipe DN [mm],
- installation location (at the bottom / to the wall of the well (min. 35 [cm] of the settling part)).
How does a conical regulator work?
The operating principle is based on inducing a swirling flow inside the device. The energy losses resulting from the liquid being set into a swirling motion translate into a natural throttling effect, the intensity of which depends on the pressure of the incoming stormwater.
How does an orifice regulator work?
It operates on the principle of utilizing a specially designed constriction, which is a key element in shaping the liquid flow characteristics. The constriction is responsible for creating hydraulic resistance that controls the flow of the liquid.