Wet Electrostatic
Precipitator –
WESP
P&P advantages
At P&P Industries AG, we craft tailor-made WESPs
for your application, guaranteeing minimal emissions.
Our advanced modular design reduces installation time,
while the vertical design ensures a compact footprint.
Utilizing polymers, stainless steel electrodes and a
high-speed automatic voltage control system,
our WESPs promise reliability, extended lifetime,
and energy efficiency, making your investment
remarkably cost-effective.
P&P advantages
At P&P Industries AG, we craft tailor-made WESPs for your application, guaranteeing minimal emissions.
Our advanced modular design reduces installation time,
while the vertical design ensures a compact footprint.
Utilizing polymers, stainless steel electrodes and a high-speed automatic voltage control system,
our WESPs promise reliability, extended lifetime,
and energy efficiency, making your investment
remarkably cost-effective.
How it works
- An electrostatic precipitator consists of two parallel electrodes, which are charged with a very high electric potential. The process gas is flowing in the gap between those electrodes.
- The discharge electrode acts as a spray electrode: It creates ionized gas molecules and further charged droplets. The counterpart of the discharge electrode is the collecting electrode.
- Since there is a strong electromagnetic field between discharge electrode and the collecting electrode, the charged droplets are moving towards the collecting electrode. The movement of the ionized gas and charged particles create an electric current.
- The droplets are collected at the collecting electrode and form a liquid film. The collected liquid flows down the collecting electrode and precipitation is complete.
- The clean process gas is leaving the gap between the electrodes.
- No gas flow restrictions lead to minimal pressure drop.
Gas cleaning for following Applications and Industries
- Sulfuric acid plants
- Sulfuric acid regeneration plant
- Tail gas treatment of hazardous waste, sewage slugde inceneration
- Oil field sour waste gas incineration
- Waste to energy plants
- Multiple hearth furnaces
- Downstream emission control system for scrubbers
- Biomass production
- Fertiliser industry
- Wood fibre, cellulose & pulp
- Production plants for cement and lime
- Gypsum (ovens, mills, dryers and coolers)
- Petrochemical industry
- Heavy metal fumes removal
- Particulate collection ahead RTOs
- Industrial boilers
- Food production
- General particulate removal
How it works
- An electrostatic precipitator consists of two parallel electrodes, which are charged with a very high electric potential. The process gas is flowing in the gap between those electrodes.
- The discharge electrode acts as a spray electrode: It creates ionized gas molecules and further charged droplets. The counterpart of the discharge electrode is the collecting electrode.
- Since there is a strong electromagnetic field between discharge electrode and the collecting electrode, the charged droplets are moving towards the collecting electrode. The movement of the ionized gas and charged particles create an electric current.
- The droplets are collected at the collecting electrode and form a liquid film. The collected liquid flows down the collecting electrode and precipitation is complete.
- The clean process gas is leaving the gap between the electrodes.
- No gas flow restrictions lead to minimal pressure drop.
Gas cleaning for following Applications and Industries
- Sulfuric acid plants
- Sulfuric acid regeneration plant
- Tail gas treatment of hazardous waste, sewage slugde inceneration
- Oil field sour waste gas incineration
- Waste to energy plants
- Multiple hearth furnaces
- Downstream emission control system for scrubbers
- Biomass production
- Fertiliser industry
- Wood fibre, cellulose & pulp
- Production plants for cement and lime
- Gypsum (ovens, mills, dryers and coolers)
- Petrochemical industry
- Heavy metal fumes removal
- Particulate collection ahead RTOs
- Industrial boilers
- Food production
- General particulate removal
References
Reference, China
| Volume: | 120.000 Nm3/h |
| Industry: | Chemicals and allied products, nec |
| Application: | Acid gas (H2S, SO2, CS2) |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2023 |
Reference, China
| Volume: | 104.000 Nm3/h |
| Industry: | Fiber Industry |
| Application: | Acid gas (H 2 S, CS 2 ), liquid S |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2012 |
Reference, Austria
| Volume: | 280.000 Nm3/h |
| Industry: | Fertilizer Industry |
| Application: | Dust, NH3, NOx, HF |
| Key fact: | ≤ 10 – 30 mg/Nm³at stack conditions |
| Installed: | 2019 |
Reference, Austria
| Volume: | 25.000 Nm3/h |
| Industry: | Ceramics |
| Application: | NH3, SO2 |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2016 |
Reference, China
| Volume: | 13.000 Nm3/h |
| Industry: | Petrochemie |
| Application: | H2S, Spent H2SO4 |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2014 |
Reference, China
| Volume: | 50.000 Nm3/h |
| Industry: | Petrochemie |
| Application: | Acid gas (H2S, CS 2 ) |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2010 |
References
Reference, China
| Volume: | 120.000 Nm3/h |
| Industry: | Chemicals and allied products, nec |
| Application: | Acid gas (H2S, SO2, CS2) |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2023 |
Reference, China
| Volume: | 104.000 Nm3/h |
| Industry: | Fiber Industry |
| Application: | Acid gas (H 2 S, CS 2 ), liquid S |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2012 |
Reference, Austria
| Volume: | 280.000 Nm3/h |
| Industry: | Fertilizer Industry |
| Application: | Dust, NH3, NOx, HF |
| Key fact: | ≤ 10 – 30 mg/Nm³at stack conditions |
| Installed: | 2019 |
Reference, Austria
| Volume: | 25.000 Nm3/h |
| Industry: | Ceramics |
| Application: | NH3, SO2 |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2016 |
Reference, China
| Volume: | 13.000 Nm3/h |
| Industry: | Petrochemie |
| Application: | H2S, Spent H2SO4 |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2014 |
Reference, China
| Volume: | 50.000 Nm3/h |
| Industry: | Petrochemie |
| Application: | Acid gas (H2S, CS 2 ) |
| Key fact: | ≤ 5 mg/Nm³at stack conditions |
| Installed: | 2010 |
Benefits
State-of-the-Art Particle
Removal:
Our P&P-WESP excels at filtering submicron particles (< 0.1 μm),
surpassing other systems.
High Collection Efficiency:
Up to 99.5 % particulate collection results in exceptionally
low emissions.
Minimal Pressure Loss:
No additional fans are needed. No significant increase
in fan power consumption and operation cost.
Low Energy Consumption:
P&P’s design facilitates lower energy usage compared to
traditional wet precipitator systems.
Fast Installation:
Our advanced modular design reduces erection time.
Outstanding Availability and
Reliability:
We employ exceptionally durable high-speed automatic
voltage control systems.
Minimum Maintenance:
Specially designed electrodes minimize operational maintenance,
requiring only an annual inspection,
translating to low operational costs.
WESP Brochure
Ask us how we can support your project, contact us today on:
Benefits
State-of-the-Art Particle
Removal:
Our P&P-WESP excels at filtering submicron particles (< 0.1 μm),
surpassing other systems.
High Collection Efficiency:
Up to 99.5 % particulate collection results in exceptionally
low emissions.
Minimal Pressure Loss:
No additional fans are needed. No significant increase
in fan power consumption and operation cost.
Low Energy Consumption:
P&P’s design facilitates lower energy usage compared to
traditional wet precipitator systems.
Fast Installation:
Our advanced modular design reduces erection time.
Outstanding Availability and
Reliability:
We employ exceptionally durable high-speed automatic
voltage control systems.
Minimum Maintenance:
Specially designed electrodes minimize operational maintenance,
requiring only an annual inspection,
translating to low operational costs.
WESP Brochure
Ask us how we can support your project, contact us today on: