三協インタナショナル Product Lineup

Gas is drawn using a storage pump, and the concentrations of CO2, CH4, and O2 are measured. H2S, H2, and CO are optional, and for H2S, you can choose from a range between 50 to 10,000 ppm, allowing you to monitor the process before and after desulfurization. Up to four sampling points can be selected at the time of order.

This is a handheld gas monitor that uses a built-in pump to draw in gas and measures the concentrations of five types of gases: CO2, CH4, O2, CO, and H2S. The concentrations of CO and H2S can be selected (at the time of order). Options for adding CO concentration H2 compensation, NH3 sensor, temperature probe, and flow sensor are available. It comes with a three-year warranty. For more details, please contact us or download the catalog.

This is a biogas monitor from QED (Geotech). It is a handheld gas monitor that measures the concentration of biogas produced through anaerobic digestion (methane fermentation). It uses a built-in pump to draw in gas and measures the concentrations of four types of gases: CO2, CH4, O2, and H2S. H2S can be selected from 500 ppm, 5000 ppm, or 10000 ppm. It is used in farm digesters, wastewater treatment plants, and food processing factories. 【Features】 - No self-certification required for the anemometer - Easy to use and calibrate - User-configurable operation - Helps check that the digestion process is operating effectively For more details, please contact us or download the catalog.

This is the Incubator Analyzer from QED (Geotech). It is a handheld analyzer that measures CO2 concentration in incubators (constant temperature chambers). The usage is simple, and it is widely used in research fields such as medical and pharmaceutical companies. It is specially designed to monitor CO2 for verifying constant temperature chambers in the research and pharmaceutical markets. This device has been developed by incorporating the latest technology and specifications, providing users with a fast and easy-to-use precision laboratory set. Optionally, it can also measure O2 (0 - 2%), temperature, and humidity. 【Features】 - CO2 0 - 20% - Options: → O2 0-100% → Dual temperature probe 0 - 50°C → Data storage and download → Humidity sensor 0-100% For more details, please contact us or download the catalog.

It is possible to analyze the biogas production rate (BPM) at low flow rates for batch tests of all organic materials. The effects of temperature and pressure are corrected, and measurements are calculated at 0°C and 1 atmosphere. Gas volume measurement resolution: 9 ml or 2 ml.

The system configuration is the same as AMPTS, but the capacity and number of reactors will change. Gas capacity measurement resolution: 9 ml (standard), 2 ml (optional).

This is a biogas flow meter from BPC Instruments. It is a flow meter that measures low gas flow with high resolution and high accuracy. Despite its compact size, it comes with an LCD display that shows flow rate and cumulative volume, and it has built-in software for automatic data collection and analysis. It is the successor to the renowned micro gas flow meter μFlow, now digitized with entirely new features.

This is an experimental device designed to measure the biodegradability of a wide range of materials, including bioplastics and slurry-like substances.

It is a highly efficient experimental device for conducting biodegradability measurement experiments, with functions such as sampling, analysis, recording, and report generation systematized/automated. It complies with ISO, OECD, and U.S. standards related to biodegradability assessment.

In the dairy farming industry, efficient operation of biogas plants is required. In particular, accurately understanding the amount of gas generated in the methane fermentation process is essential for plant optimization, cost reduction, and minimizing environmental impact. If gas flow measurement is inaccurate, it becomes difficult to evaluate the plant's performance and potential issues may be overlooked. Our biogas flow meter, 【BPC Go】, measures low gas flow with high resolution and high precision, supporting efficient biogas management. 【Usage Scenarios】 - Monitoring gas generation in biogas plants - Optimizing the methane fermentation process - Evaluating plant performance 【Benefits of Implementation】 - Plant optimization through accurate gas flow measurement - Cost reduction and improved energy efficiency - Reduced environmental impact

In the pig farming industry, efficient management of biogas generated from livestock waste is crucial for cost reduction and minimizing environmental impact. In particular, accurately understanding the amount of biogas produced is essential for optimizing the methane fermentation process, which ultimately leads to reduced energy costs. Inaccurate measurements can lead to inefficiencies in the process and potential waste of resources. The biogas flow meter from BPC Instruments, the BPC Go, measures low gas flow with high resolution and precision, enabling accurate assessment of biogas production. **Application Scenarios** * Measurement of gas flow in biogas plants at pig farms * Optimization of the methane fermentation process * Cost reduction and improvement of energy efficiency **Benefits of Implementation** * Optimization of the methane fermentation process through accurate assessment of biogas production * Reduction of energy costs * Decrease in environmental impact

In the food processing industry, efficient management of biogas generated from food waste is crucial for cost reduction and minimizing environmental impact. In particular, accurately understanding the amount of biogas produced is essential for optimizing plant operations. Inaccurate measurements can lead to decreased energy efficiency and issues related to gas surplus or shortage. BPC Instruments' biogas flow meter measures low gas flow with high resolution and precision, enabling accurate monitoring of biogas production. 【Use Cases】 - Biogas plants utilizing food waste - Energy management in food factories 【Benefits of Implementation】 - Optimization of plant operations through accurate monitoring of biogas production - Reduction of energy costs - Decrease in environmental impact

In the wastewater treatment industry, accurate measurement and efficient management of biogas production are essential. In particular, precisely measuring the gas generation in the methane fermentation process is crucial for optimizing the plant, ensuring efficient operation, and reducing costs. Inaccurate measurements can complicate performance evaluation of the plant and lead to resource waste. The biogas flow meter from BPC Instruments, the 【BPC Go】, measures low gas flow with high resolution and precision, supporting the efficient operation of the plant. 【Use Cases】 - Measurement of biogas production in wastewater treatment plants - Optimization of the methane fermentation process - Improvement of gas utilization efficiency 【Benefits of Implementation】 - Optimization of plant operation through accurate understanding of biogas production - Increased gas utilization efficiency and cost reduction - Development of precise plant improvement strategies based on data

In the agricultural sector, particularly in biomass power generation and methane fermentation, accurate measurement of the generated biogas flow rate is crucial. Precise understanding of gas flow rates is essential for the efficient operation of plants, optimization of fuel consumption, and improvement of profitability. Inaccurate measurements can lead to incorrect performance evaluations of the plant, waste of resources, and hinder optimal operations. The biogas flow meter from BPC Instruments, the 【BPC Go】, measures low gas flow rates with high resolution and precision, supporting the efficient operation of plants. 【Usage Scenarios】 - Measurement of gas generation in biogas plants - Optimization of the methane fermentation process - Management of fuel consumption in biomass power generation 【Benefits of Implementation】 - Optimization of plants through accurate gas flow measurement - Efficiency in fuel consumption and cost reduction - Accurate plant operation based on data

In university research fields, it is important to accurately measure gas flow and collect data in studies on biogas production. In particular, to evaluate microbial activity and reaction efficiency, it is necessary to capture small changes in gas flow with high precision. Inaccurate measurements can undermine the reliability of research results. The biogas flow meter 【BPC Go】 measures low gas flow with high resolution and high accuracy, improving the reliability of research data. 【Application Scenarios】 - Research on biogas production - Research on microbial fuel cells - Research on anaerobic digestion processes 【Effects of Implementation】 - Improved research quality through high-precision data collection - Increased research efficiency through accurate measurement of small flow rates - Reduced research time through automatic data collection and analysis

In the biomass power generation industry, optimizing power generation efficiency is always required. In particular, accurately understanding the supply of biogas is essential for stabilizing power generation. If the measurement accuracy of gas flow is low, it becomes difficult to predict power generation, which may hinder efficient operation. BPC Instruments' biogas flow meter BPC Go measures low gas flow with high resolution and high accuracy, contributing to improved power generation efficiency. 【Use Cases】 - Gas flow measurement in biogas plants - Monitoring of the methane fermentation process - Optimization of power generation efficiency 【Benefits of Implementation】 - Optimization of power generation through accurate gas flow measurement - Increased efficiency of plant operations - Implementation of data-driven improvement measures

In the dairy industry, there is a demand to maximize feed efficiency for livestock and reduce methane emissions. Since the amount of methane generated varies depending on the type of feed, it is important to select the appropriate feed. Gas Endeavour3 accurately analyzes low-flow biogas production (BPM) in feed batch tests, supporting feed evaluation. 【Use Cases】 - Comparison of methane production by type of feed - Measurement of the effects of feed additives - Optimization of fermentation conditions 【Benefits of Implementation】 - Improved feed efficiency - Reduction of methane emissions - Data-driven feed selection

In the wastewater treatment industry, there is a demand for accurately understanding the methane production from sludge and improving energy recovery efficiency. It is particularly important to monitor the fluctuations in methane production in real-time and to conduct optimal operational management. Inaccurate data and manual measurements can hinder efficient energy recovery. Gas Endeavour3 supports efficient methane fermentation experiments by automatically acquiring and analyzing gas production data, accommodating both batch and continuous processes. 【Use Cases】 - Measurement of methane production from sludge in wastewater treatment facilities - Evaluation of raw materials in biogas plants - Research on methane fermentation processes in research institutions 【Benefits of Implementation】 - Efficient operational management through real-time data acquisition of methane production - Labor savings and improved data accuracy through automation of experiments - Accurate calculation of methane production corrected for the effects of temperature and pressure

In the resource recovery of food waste, accurately understanding the amount of biogas generated through methane fermentation is essential for efficient resource utilization. Particularly, since the gas generation varies depending on the type of waste and treatment methods, appropriate analysis is required. Gas Endeavour3 accommodates both batch and continuous processes, automating the data collection of gas generation to streamline methane fermentation experiments. 【Application Scenarios】 - Methane fermentation experiments of food waste - Measurement of biogas generation - Optimization of the resource recovery process 【Benefits of Implementation】 - Accurate data acquisition of biogas generation - Increased efficiency of experiments - Improvement of the resource recovery process

In the biogas industry, quality control requires accurate analysis of the gas produced to evaluate the efficiency and stability of the methane fermentation process. Particularly in both batch and continuous processes, precise measurement of gas generation is essential for optimizing the process and improving product quality. Gas Endeavour3 accurately analyzes the low flow biogas production (BMP) and provides precise data by correcting for the effects of temperature and pressure. 【Usage Scenarios】 - Monitoring the methane fermentation process in biogas plants - Research on biogas production at research institutions - Evaluating the efficiency of biogas production from organic waste 【Benefits of Implementation】 - Rapid optimization of processes through real-time BMP analysis - Improved product quality through accurate data acquisition - Reduced analysis time through data automation

In basic research at research institutions, accurate measurement of gas production in the methane fermentation process is essential. It must accommodate both batch and continuous systems, requiring real-time data acquisition and analysis. Inaccurate measurements can undermine the reliability of the research. Gas Endeavour3 enables precise measurement of gas generation through an automated system, contributing to the efficiency of research. 【Application Scenarios】 - Research on methane production from biomass - Evaluation of gas production in anaerobic digestion processes - Studies on methane generation by microorganisms 【Effects of Implementation】 - Improved reliability of research through accurate gas generation data acquisition - Enhanced research efficiency through automation of experiments - Calculation of accurate measurements corrected for the effects of temperature and pressure

In the environmental consulting industry, accurate data acquisition and efficient analysis are required for research and analysis related to methane fermentation. In particular, accurately understanding the amount of biogas generated is a crucial factor for effective resource utilization and reducing environmental impact. Gas Endeavour3 supports both batch and continuous processes, contributing to the efficiency of analysis operations by automatically acquiring data on gas generation. 【Usage Scenarios】 - Optimization of the methane fermentation process - Performance evaluation of biogas plants - Assessment of energy recovery efficiency from waste 【Benefits of Implementation】 - Consulting based on accurate data - Reduction in analysis time - Increased reliability for clients

In the energy industry, it is essential to accurately grasp the amount of methane generated from biomass and manage emissions. Particularly in the expansion of renewable energy use, obtaining precise data on methane generation is crucial for efficient energy utilization and reducing environmental impact. Inaccurate data can lead to resource wastage and negative effects on the environment. Gas Endeavour3 supports both batch and continuous processes, automatically collecting gas generation data and facilitating analysis. 【Usage Scenarios】 - Measurement of methane generation in biogas plants - Monitoring of methane generation in waste treatment facilities - Research on methane fermentation processes in research institutions 【Benefits of Implementation】 - Efficient energy use through accurate data acquisition of methane generation - Implementation of data-driven improvements aimed at reducing emissions - Streamlining data collection in research and development

In the drug discovery industry, strict management of the cell culture environment is required for drug screening. In particular, the CO2 concentration within the incubator has a significant impact on cell growth and drug efficacy, making accurate monitoring essential. Even slight fluctuations in CO2 concentration can compromise the reliability of experimental results. This product accurately measures the CO2 concentration in the incubator and supports the maintenance of a stable cell culture environment. [Use Cases] - Cell culture in drug screening - Evaluation of cell growth and drug effects - Management of CO2 concentration within the incubator [Benefits of Implementation] - Optimization of the cell culture environment - Improved reliability of experimental data - Enhanced research efficiency

In the food industry, managing CO2 concentration in microbial culture environments is crucial. The appropriate CO2 concentration is essential for optimizing microbial growth and ensuring product quality and safety. Inadequate CO2 levels can adversely affect microbial proliferation, potentially leading to product quality degradation and the occurrence of off-odors. The CO2 incubator [G100] is a tool that accurately measures CO2 concentration within the incubator to maintain an optimal environment for microbial culture. [Usage Scenarios] - Microbial culture in food manufacturing - Monitoring culture environments in quality control departments - Microbial culture experiments in research and development [Benefits of Implementation] - Efficient microbial growth through optimization of culture environments - Improvement in product quality and safety - Enhanced reliability of research data

In the field of plant cell culture, accurately managing the CO2 concentration in the culture environment is essential for the healthy growth and proliferation of cells. Even slight fluctuations in CO2 concentration can significantly impact culture results. The CO2 incubator [G100] supports the optimization of the culture environment by quickly and accurately measuring the CO2 concentration within the incubator. This allows researchers to achieve more stable culture results and is expected to enhance the reproducibility of experiments. [Usage Scenarios] - Monitoring CO2 concentration in plant cell culture - Verification of CO2 concentration within the incubator - Optimization of the culture environment [Effects of Implementation] - Stabilization of the culture environment - Improvement of experimental reproducibility - Increased efficiency of cell culture

In the livestock industry, managing the CO2 concentration in the culture environment during embryo culture significantly affects the development of eggs and hatching rates. Maintaining an appropriate CO2 concentration is essential for high-quality livestock production. Inadequate management of CO2 concentration can lead to poor development of fertilized eggs and decreased hatching rates. The CO2 incubator [G100] accurately measures the CO2 concentration within the incubator, providing an optimal environment for embryo culture. [Usage Scenarios] - Measurement of CO2 concentration in embryo culture - Monitoring CO2 concentration within the incubator - Quality control of the culture environment [Effects of Implementation] - Accurate understanding of CO2 concentration and optimization of the culture environment - Contribution to improved hatching rates - Support for high-quality livestock production

In the field of university research, accurately managing the CO2 concentration within incubators for cell culture and microbial culture is crucial for enhancing the reproducibility and reliability of experiments. Even slight fluctuations in CO2 concentration can significantly impact experimental results. The CO2 incubator 【G100】 from QED (Geotech) measures the CO2 concentration within the incubator in a handy format, supporting the validation of temperature-controlled devices in research. With the latest technology, it enables fast and accurate measurements, contributing to improved research efficiency. 【Usage Scenarios】 - Cell culture experiments - Microbial culture experiments - Incubator management in laboratories 【Benefits of Implementation】 - Improved accuracy of CO2 concentration measurements - Enhanced reliability of experimental data - Increased research efficiency

In hospitals that perform stem cell therapy, strict management of the cell culture environment is required. In particular, the CO2 concentration within the incubator has a significant impact on cell survival and proliferation, making accurate monitoring essential. Even slight fluctuations in CO2 concentration can influence the success of the treatment. The CO2 incubator [G100] accurately measures the CO2 concentration within the incubator, supporting the optimization of the cell culture environment in stem cell therapy. [Usage Scenarios] - Research laboratories in hospitals conducting stem cell culture - Medical institutions performing cell therapy - Situations requiring management of CO2 concentration within the incubator [Benefits of Implementation] - Accurate understanding of CO2 concentration and optimization of the cell culture environment - Improved cell survival and proliferation - Contribution to increased success rates of stem cell therapy

In the biotechnology industry, particularly in genetic modification research, strict management of the cell culture environment is essential. The CO2 concentration in a CO2 incubator directly affects cell growth and gene expression, necessitating accurate monitoring. Even slight fluctuations in CO2 concentration can significantly impact experimental results, making stable environment maintenance crucial. The CO2 incubator 【G100】 from QED (Geotech) accurately measures the CO2 concentration within the incubator, enhancing the reliability of research. 【Usage Scenarios】 - Cultivation of genetically modified cells - Maintenance of cell lines - Monitoring of cell culture environments 【Benefits of Implementation】 - Accurate understanding of CO2 concentration to optimize the culture environment - Improved reproducibility of experiments - Enhanced reliability of research data

In the field of environmental studies, particularly in research on microbial degradation, accurate measurement of CO2 concentration is crucial for understanding microbial activity and optimizing the degradation process. By accurately monitoring the CO2 concentration within an incubator, it is possible to properly manage the growth environment of microorganisms and contribute to the improvement of experimental reproducibility. The CO2 incubator [G100] addresses the challenges of measuring CO2 concentration in microbial degradation research. [Application Scenarios] - Microbial culture experiments - Measurement of CO2 concentration in bioreactors - Research on environmental purification technologies [Effects of Implementation] - Optimization of the microbial growth environment - Increased reliability of experimental data - Improved research efficiency

In university biogas research and environmental education, it is important to understand the methane fermentation process and accurately analyze its data. Accurate measurement of gas concentrations is essential for the reproducibility of experiments and for deepening students' understanding. The BIOGAS5000 measures the concentrations of CO2, CH4, O2, and H2S, supporting data collection in research and education. 【Usage Scenarios】 - Simulated experiments of biogas plants - Understanding anaerobic digestion processes - Gas analysis in environmental science and chemical engineering fields 【Benefits of Implementation】 - Improved reliability of experimental data through accurate gas concentration measurements - Contributes to enhancing students' understanding - Increased efficiency of research activities

In experiments conducted at research institutions, safety is the top priority. In particular, the leakage of flammable and toxic gases can lead to serious accidents. To ensure the safety of the experimental environment, accurate measurement of gas concentrations and prompt response are essential. The BIOGAS5000 measures the concentrations of four types of gases: CO2, CH4, O2, and H2S, supporting the safety management of the experimental environment. 【Usage Scenarios】 - Gas leak detection in laboratories - Measurement of gas concentrations in biogas generation experiments - Research and development requiring safety management 【Benefits of Implementation】 - Improved safety of the experimental environment - Reduced risk of accidents - Enhanced reliability of research data

In the waste management industry, reducing methane gas emissions from landfills and treatment facilities is an important issue. Methane gas has a high greenhouse effect and significantly impacts the environment, so it is necessary to accurately understand its concentration and take measures accordingly. BIOGAS5000 supports measures to reduce methane emissions by accurately measuring methane concentration and enabling continuous data collection. 【Usage Scenarios】 * Measuring methane gas concentration at landfills * Monitoring gas concentration at biogas plants * Measuring gas concentration at wastewater treatment facilities * Measuring gas concentration at food processing plants 【Benefits of Implementation】 * Planning measures based on the visualization of methane emissions * Accident prevention through gas leak detection * Efficient operation of plants * Compliance with environmental regulations

In the chemical plant industry, responding to environmental regulations and ensuring a safe working environment are essential. Accurately measuring the concentration of potentially harmful gases that may occur within the plant and detecting leaks early contributes to both employee safety and environmental protection. The BIOGAS5000 accurately measures gas concentrations such as CO2, CH4, O2, and H2S, supporting the plant's environmental conservation activities. 【Usage Scenarios】 - Chemical storage facilities - Wastewater treatment facilities - Gas monitoring in reaction processes 【Benefits of Implementation】 - Reduced risk of gas leaks - Ensured safety for workers - Improved compliance with environmental regulations

In the agricultural sector, particularly in fermentation management, accurate measurement of biogas concentration from methane fermentation is essential for efficient operation and quality control. By properly understanding the gas concentration in the fermentation tank, optimization of the fermentation process, maximization of gas production, and ensuring safety can be achieved. The BIOGAS5000 contributes to these challenges through accurate gas concentration measurement and data collection. 【Usage Scenarios】 - Measurement of biogas concentration in farm digesters - Monitoring of the fermentation process - Gas leak detection 【Benefits of Implementation】 - Improved fermentation efficiency - Maximization of gas production - Enhanced safety

In the wastewater treatment industry, it is important to reduce the risk of explosion accidents caused by the leakage of flammable gases such as methane. Particularly in enclosed spaces or areas where gas tends to accumulate, accurate measurement and proper management of gas concentration are required. The BIOGAS5000 helps accurately measure these gas concentrations and prevent the risk of explosions. 【Usage Scenarios】 - Wastewater treatment facilities - Sludge treatment facilities - Inside manholes - Gas leak detection 【Benefits of Implementation】 - Reduced risk of explosion accidents - Ensured safety of workers - Safe operation of facilities - Compliance with regulations

In the oil and gas industry, it is essential to minimize the risks of explosions and environmental pollution caused by gas leaks. Particularly in extensive facilities such as plants and pipelines, rapid and accurate gas detection is required. Inadequate gas detection can lead to serious accidents. The BIOGAS5000 accurately measures gas concentrations, such as methane (CH4), enabling early detection of leaks. 【Usage Scenarios】 - Gas leak monitoring in plants - Inspection of pipelines - Safety management of storage tanks - Ensuring the safety of workers 【Benefits of Implementation】 - Reduction of gas leak risks - Minimization of damage in the event of an accident - Ensuring the safety of workers - Compliance with regulations

In the food manufacturing industry, proper waste management is crucial for balancing environmental impact reduction and cost savings. In particular, methane gas generated from food waste has a high greenhouse effect, and accurately measuring its emissions is essential. The AMPTS Light 3 methane production analysis device measures the amount of methane produced during the anaerobic digestion of food waste online, contributing to the efficiency of waste management. 【Usage Scenarios】 - Optimization of waste processing processes in food manufacturing plants - Monitoring methane production in biogas plants - Evaluating the relationship between types of food waste and methane production 【Benefits of Implementation】 - Reduction of waste processing costs - Decrease in environmental impact - Improvement in biogas production efficiency

In the dairy industry, it is essential to accurately understand the digestibility of feed to manage livestock health and improve productivity. By measuring the amount of methane produced during the digestion of feed, it can aid in the evaluation of feed nutritional value and the improvement of digestibility. Inadequate feed formulation can lead to health issues in livestock and decreased productivity. The AMPTS Light 3 methane production analysis device measures the amount of methane generated from the anaerobic digestion of feed online, providing data for improving feed efficiency. 【Use Cases】 - Evaluation of feed nutritional value - Review of feed formulation - Improvement of digestibility 【Benefits of Implementation】 - Reduction in feed costs - Improvement in livestock health - Increase in productivity

In the pig farming industry, understanding the amount of methane generated from manure management is crucial for reducing environmental impact and utilizing resources. Methane is a greenhouse gas, and accurately measuring and managing its emissions is essential for sustainable livestock management. The AMPTS Light 3 measures the amount of methane produced from the anaerobic digestion process online, supporting efficient manure management. 【Usage Scenarios】 * Manure treatment facilities at pig farms * Biogas plants * Research on methane generation at research institutions 【Benefits of Implementation】 * Visualization of methane emissions * Optimization of manure treatment processes * Contribution to reducing environmental impact

In the wastewater treatment industry, accurate measurement of methane production in the anaerobic digestion process of sludge is essential. To understand the characteristics of sludge and carry out efficient treatment, precise data on methane production is indispensable. Inaccurate measurements can lead to reduced treatment efficiency and increased costs. The AMPTS Light 3 methane production analysis device enables online measurement of ultra-low flow biogas, supporting the acquisition of accurate data in sludge analysis. 【Usage Scenarios】 - Monitoring the anaerobic digestion process of sludge - Optimizing biogas production - Improving the efficiency of the sludge treatment process 【Benefits of Implementation】 - Improved treatment efficiency through accurate measurement of methane production - Maximization of biogas production - Cost reduction through optimization of the sludge treatment process

In the agricultural sector, there is a demand for the efficient use of fertilizers and the reduction of environmental impact. In particular, accurately understanding the amount of methane gas generated from livestock manure and organic waste is crucial for optimizing biogas plants and evaluating the effectiveness of their use as fertilizers. Inaccurate measurements can lead to waste of resources and negative impacts on the environment. The AMPTS Light 3 methane production analysis device enables online measurement of ultra-low flow biomethane and supports the evaluation of fertilizer effectiveness. 【Use Cases】 - Measurement of methane production from livestock manure - Evaluation of methane production efficiency in biogas plants - Assessment of the effectiveness of organic waste as fertilizer 【Benefits of Implementation】 - Optimization of fertilizer utilization efficiency - Efficient operation of biogas plants - Reduction of environmental impact

In the energy industry, particularly in biomass power generation, accurately understanding methane production is essential for optimizing power generation efficiency. Variations in methane production during the anaerobic digestion process can lead to instability in power generation and reduced efficiency. The AMPTS Light 3 methane production analysis device measures ultra-low flow biogas online, contributing to improvements in power generation efficiency. 【Use Cases】 - Monitoring methane production in biogas plants - Optimizing the anaerobic digestion process - Enhancing power generation efficiency 【Benefits of Implementation】 - Improved process management through real-time measurement of methane production - Contribution to increased power generation efficiency - Stable operation of the plant

In basic research at research institutions, it is important to accurately measure the anaerobic digestion process of organic matter. In particular, the precise understanding of biogas production is crucial for the quality of the research. The AMPTS Light 3 methane production analysis device is designed to measure ultra-low flow biogas online, contributing to the efficiency of research. 【Application Scenarios】 - Biomass research - Research on anaerobic digestion processes - Basic research on methane production 【Effects of Introduction】 - High-precision measurement of methane production - Improved reliability of research data - Reduction of research time