China Professional Accumulator Ceramic for Thermal Oxidizer

Informações básicas.

Modelo NO.

Amazing catalysis

Tipo

Incinerador

Economia de energia

100

Excellent Material

100

Alta eficiência

100

Marca registrada

Fantástico

Pacote de transporte

Overseas Package

Especificação

111

Origem

China

Código HS

111111

Descrição do produto

Accumulator Ceramic

RTO adopt ceramic accumulator, which has excellent heat storage performance, less heat loss and high efficiency in heat exchanging .

Ceramic accumulating body adopts LANTEC MLM series product, which embodies the merits of large specific surface area, small resistance, large heat volume, heat resistance can up to 1200ºC, high anti-acid fastness, small water absorption, small thermal expansion coefficient, better anti-cracking ability, long lifet Specification

High Temperature Air Combustion Technology(HTAC) have dual effects on energy saving and environment protection. Comparing with the conventional combustion technology, CHINAMFG will save approximately 20-50% fuels, decrease  the oxidation and lgnition loss by 20%,reduce NOx emissions by 40% and bring up the production output > 20%.

ceramic accumulator, ceramic accumulator, ceramic accumulator, honeycomb 

Endereço: 8 floor, E1, Pinwei building, Dishengxi road, Yizhuang, ZheJiang, China

Tipo de negócio: Fabricante/fábrica, empresa comercial

Gama de negócios: Eletroeletrônicos, equipamentos e componentes industriais, máquinas de fabricação e processamento, metalurgia, minerais e energia

Certificação do sistema de gerenciamento: ISO 9001, ISO 14001

Principais produtos: Rto, linha de revestimento colorido, linha de galvanização, faca de ar, peças sobressalentes para linha de processamento, revestidor, equipamentos independentes, rolo de pia, projeto de renovação, soprador

Apresentação da empresa: A ZheJiang Amazing Science & Technology Co., Ltd é uma próspera empresa de alta tecnologia, localizada na Área de Desenvolvimento Econômico e Tecnológico de ZheJiang (BDA). Seguindo o conceito de realista, inovadora, focada e eficiente, nossa empresa atende principalmente ao setor de tratamento de gases residuais (VOCs) e a equipamentos metalúrgicos da China e até mesmo do mundo todo. Possuímos tecnologia avançada e vasta experiência em projetos de tratamento de gases residuais de VOCs, cuja referência foi aplicada com sucesso no setor de revestimento, borracha, eletrônicos, impressão, etc. Também temos anos de acúmulo de tecnologia na pesquisa e fabricação de linhas de processamento de aço plano e temos quase 100 exemplos de aplicação.

Nossa empresa tem como foco a pesquisa, o projeto, a fabricação, a instalação e o comissionamento do sistema de tratamento de gás residual orgânico de VOCs e o projeto de renovação e atualização para economia de energia e proteção ambiental da linha de processamento de aço plano. Podemos oferecer aos clientes soluções completas para proteção ambiental, economia de energia, melhoria da qualidade do produto e outros aspectos.

Também estamos envolvidos em várias peças sobressalentes e equipamentos independentes para a linha de revestimento colorido, linha de galvanização, linha de decapagem, como rolo, acoplador, trocador de calor, recuperador, faca de ar, soprador, soldador, nivelador de tensão, passe de pele, junta de expansão, tesoura, juntadeira, costurador, queimador, tubo radiante, motor de engrenagem, redutor, etc.

Are regenerative thermal oxidizers suitable for small-scale applications?

Regenerative thermal oxidizers (RTOs) are primarily designed for medium to large-scale industrial applications due to their specific characteristics and operational requirements. However, their suitability for small-scale applications depends on various factors:

• Process Exhaust Volume: The exhaust volume generated by the small-scale application plays a crucial role in determining the feasibility of using an RTO. RTOs are typically designed to handle high exhaust volumes, and if the exhaust volume from the small-scale application is too low, it may not be cost-effective or efficient to use an RTO.
• Capital and Operating Costs: RTOs can be expensive to purchase, install, and operate. The capital investment required for a small-scale application may not be justifiable when considering the relatively lower exhaust volumes and pollutant concentrations. Additionally, the operating costs, including energy consumption and maintenance, may outweigh the benefits for small-scale operations.
• Disponibilidade de espaço: RTOs require a significant amount of physical space for installation. Small-scale applications may have space limitations, making it challenging to accommodate the size and layout requirements of an RTO system.
• Regulatory Requirements: Small-scale applications may be subject to different regulatory requirements compared to larger industrial operations. The specific emission limits and air quality standards applicable to the small-scale application should be considered to ensure compliance. Alternative emission control technologies that are more suitable for small-scale applications, such as catalytic oxidizers or biofilters, may be available.
• Process Characteristics: The nature of the small-scale application’s exhaust stream, including the type and concentration of pollutants, can influence the choice of emission control technology. RTOs are most effective for applications with high concentrations of volatile organic compounds (VOCs) and hazardous air pollutants (HAPs). If the pollutant profile of the small-scale application is different, alternative technologies may be more appropriate.

While RTOs are generally more suitable for medium to large-scale applications, it’s important to assess the specific requirements, constraints, and cost-benefit analysis for each individual small-scale application before considering the use of an RTO. Alternative emission control technologies that are better suited for small-scale operations should also be evaluated.

Can regenerative thermal oxidizers handle corrosive exhaust gases?

Regenerative thermal oxidizers (RTOs) can be designed to handle corrosive exhaust gases effectively. However, the ability of an RTO to handle corrosive gases depends on several factors, including the choice of construction materials, operating conditions, and the specific corrosive nature of the exhaust gases. Here are some key points regarding the handling of corrosive exhaust gases in RTOs:

• Material Selection: The selection of appropriate construction materials is crucial when dealing with corrosive gases. RTOs can be constructed using materials that offer high resistance to corrosion, such as stainless steel, corrosion-resistant alloys (e.g., Hastelloy, Inconel), or coated materials. The choice of materials depends on the specific corrosive compounds present in the exhaust gases and their concentrations.
• Corrosion-Resistant Coatings: In addition to selecting corrosion-resistant materials, applying protective coatings can enhance the resistance of the RTO components to corrosive gases. Coatings such as ceramic coatings, epoxy coatings, or acid-resistant paints can provide an extra layer of protection against corrosion.
• Temperature Control: Maintaining appropriate operating temperatures in the RTO can help mitigate the corrosive effects of the exhaust gases. Higher temperatures can promote the decomposition of corrosive compounds, reducing their corrosive potential. Additionally, operating at higher temperatures can enhance the self-cleaning effect and prevent the accumulation of corrosive deposits on the surfaces.
• Gas Conditioning: Prior to entering the RTO, the exhaust gases can undergo gas conditioning processes to reduce their corrosive nature. This may involve pre-treatment methods such as scrubbing or neutralization to remove or neutralize corrosive compounds and reduce their concentration.
• Monitoring and Maintenance: Regular monitoring of the RTO performance and periodic maintenance are essential to ensure the effective handling of corrosive exhaust gases. Monitoring systems can track variables such as temperature, pressure, and gas composition to detect any deviations that may indicate corrosion-related issues. Proper maintenance, including cleaning and inspection of the components, helps identify and address any corrosion concerns in a timely manner.

It is important to note that the corrosiveness of exhaust gases can vary significantly depending on the specific industrial process and the pollutants involved. Therefore, when designing an RTO for handling corrosive gases, it is advisable to consult with experienced engineers or RTO manufacturers who can provide guidance on the appropriate design considerations and material selection.

By employing suitable materials, coatings, temperature control, gas conditioning, and maintenance practices, RTOs can effectively handle corrosive exhaust gases while ensuring their long-term performance and durability.

How does a regenerative thermal oxidizer work?

A regenerative thermal oxidizer (RTO) is an advanced air pollution control device that operates through a cyclical process to remove volatile organic compounds (VOCs), hazardous air pollutants (HAPs), and other airborne contaminants from exhaust gases. Here’s a detailed explanation of how an RTO works:

1. Inlet Plenum: The exhaust gases containing pollutants enter the RTO through the inlet plenum.

2. Heat Exchanger Beds: The RTO contains multiple heat exchanger beds filled with heat storage media, typically ceramic materials or structured packing. The heat exchanger beds are arranged in pairs.

3. Flow Control Valves: Flow control valves direct the airflow and control the direction of the exhaust gases through the RTO.

4. Combustion Chamber: The exhaust gases, now directed into the combustion chamber, are heated to a high temperature, typically between 1400°F (760°C) and 1600°F (870°C). This temperature range ensures effective thermal oxidation of the pollutants.

5. VOC Destruction: The high temperature in the combustion chamber causes the VOCs and other contaminants to react with oxygen, resulting in their thermal decomposition or oxidation. This process breaks down the pollutants into water vapor, carbon dioxide, and other harmless gases.

6. Heat Recovery: The hot, purified gases leaving the combustion chamber pass through the outlet plenum and flow through the heat exchanger beds that are in the opposite phase of operation. The heat storage media in the beds absorb heat from the outgoing gases, which preheats the incoming exhaust gases.

7. Cycle Switching: After a specific time interval, the flow control valves switch the airflow direction, allowing the heat exchanger beds that were preheating the incoming gases to now receive the hot gases from the combustion chamber. The cycle then repeats, ensuring continuous and efficient operation.

Advantages of a regenerative thermal oxidizer:

RTOs offer several advantages in industrial air pollution control:

1. High Efficiency: RTOs can achieve high destruction efficiencies, typically above 95%, effectively removing a wide range of pollutants.

2. Energy Recovery: The heat recovery mechanism in RTOs allows for significant energy savings. The preheating of incoming gases reduces the fuel consumption required for combustion, making RTOs energy-efficient.

3. Cost-effectiveness: Although the initial capital investment for an RTO can be significant, the long-term operational cost savings through energy recovery and high destruction efficiencies make it a cost-effective solution over the lifespan of the system.

4. Environmental Compliance: RTOs are designed to meet stringent emissions regulations and help industries comply with air quality standards and permits.

5. Versatility: RTOs can handle a wide range of process exhaust volumes and pollutant concentrations, making them suitable for various industrial applications.

Overall, a regenerative thermal oxidizer operates by utilizing heat recovery, high-temperature combustion, and cyclical flow control to effectively oxidize pollutants and achieve high destruction efficiencies while minimizing energy consumption.

editor by CX 2023-10-21