Continuous monitoring system for fixed pollution source flue gas

NegotiableUpdate on 02/28

Model

Nature of the Manufacturer: Producers

Product Category

Place of Origin

Online Consult

Overview

The GR-CEMS fixed pollution source flue gas continuous monitoring system is an online automatic monitoring system based on infrared spectroscopy analysis technology, light scattering technology, data acquisition and communication technology. The system can monitor the emission concentrations and total emissions of factors such as SO2, NOX, CO, CO2, O2, and smoke in flue gas, and can achieve remote monitoring and diagnosis, online automatic and manual calibration. It has the advantages of high measurement accuracy, high data reliability, and simple equipment maintenance. This system is suitable for continuous emission monitoring of large-scale industrial pollution sources in industries such as electricity, coal, oil, natural gas, steel, non-ferrous metals, building materials, chemical, petrochemical, textile, and waste incineration.

Product Details

The GR-CEMS fixed pollution source flue gas continuous monitoring system consists of a sampling system, a monitoring system, a calibration system, and a data acquisition and transmission system. The sampling system includes a flue gas sampling unit, a blowback unit, a drying and filtering unit, and a flow monitoring unit. The monitoring system includes an infrared spectrometer, an electrochemical oxygen analyzer, a light scattering smoke analyzer, and a temperature, pressure, and flow rate monitor. The calibration system includes an automatic calibration control unit, a manual calibration unit, and a standard gas; The data acquisition and transmission system includes a data acquisition instrument, an industrial computer, a data transmission module, and terminal control software.

Standard modular design, easy to upgrade and expand;

Real time transmission of on-site data, remote monitoring and fault diagnosis;

Multiple technical patents, high system stability, and low operating costs;

Adopting three-level water removal, the gas composition remains unchanged, improving detection accuracy;

Adopting a single beam method without the need to adjust optical balance, easy to maintain;

Adapt to various transmission methods, compatible with various transmission protocols, and can achieve multi-level networking;

Both gas sampling and gas transportation adopt controllable heat tracing methods to avoid pipeline pollution and blockage;

The unique probe blowing method that combines internal and external reverse blowing reduces the risk of blockage in the sampling circuit under high dust conditions.

project		Technical Requirements
methodological basis		HJ/T76-2007
particulate matter CEMS	measurement method	Backscattering method
	zero drift	≤±2%F.S
	Span Drift	≤±2%F.S
	correlation coefficient	≥0.85
	Half width of confidence interval	≤±10%
	Allow interval half width	≤25%
	accuracy	When ≤ 50mg/m3, the absolute error is ≤± 15mg/m3
Sulfur dioxide CEMS	measurement method	Non dispersive infrared method
	zero drift	≤±2.5%F.S
	Span Drift	≤±2.5%F.S
	linear error	≤±5%
	Relative accuracy	When ≥ 715mg/m3, ≤ 15%
	response time	≤200s
Nitrogen oxide CEMS	measurement method	Non dispersive infrared method
	zero drift	≤±2.5%F.S
	Span Drift	≤±2.5%F.S
	linear error	≤±5%
	Relative accuracy	When ≥ 513mg/m3, ≤ 15%
	response time	≤200s
Oxygen CEMS	measurement method	Zirconia method
	zero drift	≤±2.5%F.S
	Span Drift	≤±2.5%F.S
	linear error	≤±5%
	Relative accuracy	≤15%
	response time	≤200s
Continuous flow velocity measurement system	measurement method	S-shaped Pitot Tube Method
	precision	≤5%
	relative error	When ≥ 10m/s, ≤ 10%
Continuous temperature measurement system	measurement method	Platinum resistance method
	precision	0~300℃
	relative error	≤±3℃