Horiba Hydrocarbon Monitor / THC Analyser APHA-370

Horiba Hydrocarbon Monitor / Total Hydrocarbon (THC) Analyzer APHA-370

Product Description

The Horiba APHA-370 is a high-precision ambient total hydrocarbon (THC) analyzer designed for continuous and real-time monitoring of hydrocarbons in ambient air. Utilizing a flame ionization detector (FID) method, this advanced instrument provides stable, accurate, and reliable measurements of total hydrocarbons (THC), non-methane hydrocarbons (NMHC), and methane (CH₄). The APHA-370 is widely used in environmental monitoring stations, industrial emission control, and scientific research applications that require precise hydrocarbon analysis. With a user-friendly interface, low maintenance requirements, and a robust design, this monitor is ideal for ensuring compliance with environmental regulations and conducting detailed air quality assessments.

Key Features

1. high-precision hydrocarbon measurement

   • uses a flame ionization detector (FID) method for accurate and stable measurement of total hydrocarbons (THC), non-methane hydrocarbons (NMHC), and methane (CH₄).

2. real-time continuous monitoring

   • provides stable and consistent THC data for air quality assessments and regulatory compliance.

3. advanced gas handling system

   • equipped with a high-efficiency sample gas handling system to minimize contamination and improve measurement stability.

4. user-friendly operation and maintenance

   • features an intuitive LCD display, automatic calibration, and easy-access components for simplified operation and servicing.

5. durable and reliable design

   • designed for long-term operation in environmental monitoring stations, industrial sites, and research laboratories.

6. data logging and remote connectivity

   • supports data storage, USB data transfer, and remote monitoring capabilities for efficient data analysis and reporting.

Applications

1. environmental air quality monitoring

   • measures hydrocarbon levels in urban and industrial areas to assess pollution and ensure compliance with air quality standards.

2. industrial emissions control

   • used in refineries, petrochemical plants, and manufacturing facilities to monitor hydrocarbon emissions and meet environmental regulations.

3. transportation and vehicular emissions analysis

   • evaluates THC levels in high-traffic areas to assess the impact of vehicle emissions on air quality.

4. research and academic studies

   • supports scientific research and environmental studies related to atmospheric chemistry and air pollution.

5. regulatory compliance monitoring

   • used by environmental agencies and government institutions to enforce air quality regulations and policies.

6. workplace and industrial air quality assessment

   • monitors THC levels in enclosed environments and industrial workspaces to ensure worker safety and maintain air quality standards.

Technical Specifications

• model: Horiba APHA-370
• measurement principle: flame ionization detector (FID) method
• parameters measured: total hydrocarbons (THC), non-methane hydrocarbons (NMHC), methane (CH₄) concentration in ambient air
• measurement range: wide THC concentration range suitable for various environmental conditions
• accuracy: high precision with minimal deviation
• response time: fast and reliable real-time monitoring capability
• data logging: supports USB data transfer and remote monitoring
• calibration: automatic and manual calibration options for enhanced accuracy
• power supply: designed for continuous operation in monitoring stations
• housing: durable and robust construction for long-term reliability
• operating conditions: suitable for outdoor and industrial environments

The Horiba APHA-370 is a highly reliable and efficient hydrocarbon monitor, designed for professionals who require fast, precise, and continuous THC measurement. With its advanced detection technology, durable build, and user-friendly interface, this instrument is essential for environmental monitoring, industrial emissions control, and scientific research.