Last Updated： Aggregation Period:Jun 17, 2026～Jul 14, 2026
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Jun 17, 2026～Jul 14, 2026
This ranking is based on the number of page views on our site.
Last Updated： Aggregation Period:Jun 17, 2026～Jul 14, 2026
This ranking is based on the number of page views on our site.
571～600 item / All 672 items
We will measure the concentration of carbon dioxide gas, temperature, and humidity during the measurement.
The carbon dioxide CO2 sensor uses an NDIR sensor (non-dispersive infrared absorption type), allowing for quick and highly accurate measurement of carbon dioxide gas concentration. The IQA-55 can be calibrated with carbon dioxide gas (400 ppm) present in the air.
The MI1LZ-3111-O2 is an oxygen concentration meter that measures oxygen gas concentrations up to 30#VOL.
Due to the built-in suction pump, it can accommodate oxygen concentration measurements in narrow spaces by connecting a hose to the nozzle. Additionally, it features an alarm function that emits an electronic sound at two specified levels of oxygen gas concentration, a zero calibration function, and a backlight display function that allows measurement values to be seen in dark places.
Monitoring and removal of low-concentration hydrogen sulfide gas in the manufacturing process of sulfide-based all-solid-state batteries.
In the production line of automobile manufacturers, the manufacturing process of sulfide-based all-solid-state batteries may generate hydrogen sulfide gas due to materials, reactions, high-temperature treatments, and incomplete reactions. Hydrogen sulfide gas is toxic, making its monitoring and removal crucial for ensuring the safety of workers and the stable operation of the production line. 【Usage Scenarios】 - Manufacturing line for sulfide-based all-solid-state batteries - Heating and chemical processing of materials - Reaction processes - Research and development facilities 【Benefits of Implementation】 - Ensuring a safe working environment - Stable operation of the production line - Support for compliance with regulations
Monitoring the concentration of fine dust in the air in workplaces and factories!
The indoor working environment measuring device AirSafe2 measures dust particles in the atmosphere captured by an induced fan and outputs an alarm contact when the set concentration is exceeded. It is capable of continuously monitoring the invisible fine dust generated within the factory. <Features> - Compact design allows for flexible placement! - Ready to use immediately after installation! - Easy to change settings! - Simple maintenance! - Explosion-proof type is also available! *For more details, please refer to the attached PDF or feel free to contact us.
In the new historical stage of the 21st century, PAL now reveals itself.
A digital sugar meter that goes one step further.
MK IAQ-55 Carbon Dioxide Gas Concentration Meter
MK [IAQ-55] Carbon Dioxide Gas Concentration Meter IAQ55
![Logger-equipped indicator DL1000 [*Free demo unit available!]](https://image.mono.ipros.com/public/product/image/ba4/2000801068/IPROS97513506737064485991.jpeg?w=280&h=280)
Measure analog signals up to three channels! A user-friendly indicator with a 3.5-inch LCD panel, equipped with features suitable for experimental equipment!
The "DL1000 Indicator with Logger Function" can measure and record up to three analog signals such as pressure, flow rate, and water level. It is used for flow management and pressure management in production and experimental equipment, as well as for managing flow rate, pressure, temperature, water quality, and water level in boilers. We respond to requests such as wanting to record with an indicator or wanting to simplify the configuration of devices. *Limited to Ipros users! Free demo units available for loan! 【Features】 ■ Easy-to-understand interface with a touch panel! ■ Measurement data is recorded on the included memory card (CSV file). It can be read on a computer or similar device! *For more details, please contact us or download the catalog to view it.
Measuring gases: Ozone, maximum range: 0–2000 ppb / 0–5 ppm / 0–200 ppm / 0–1000 ppm, etc.
The "F12 model" is an ozone gas concentration meter. The gas detectors from ATI that we handle can measure over 30 types of toxic gases and oxygen. They are used in various locations such as plants and laboratories. Additionally, we also offer "EOG gas concentration meters," "chlorine dioxide gas concentration meters," and "formaldehyde gas concentration meters." 【Sensor Selection Table】 ■ Measured Gas: Ozone ■ Sensor Model: 00-1163 / 00-1008 / 00-1009 / 00-1358 ■ Minimum Range: 0–500 ppb / 0–1 ppm / 0–5 ppm / 0–200 ppm ■ Maximum Range: 0–2000 ppb / 0–5 ppm / 0–200 ppm / 0–1000 ppm ■ Standard: 0–1000 ppb / 2 ppm / 20 ppm / 1000 ppm ■ Auto Test Generator: 00-1538 * For more details, please refer to the PDF document or feel free to contact us.
Delivered immediately when needed! A lightweight and compact oxygen concentrator.
Shipping within 3 days. Price under 30,000 yen. Lower price and shorter delivery time compared to other companies! The lightweight and compact portable gas detector can be purchased from the <Oxygen Concentration Meter Purchase Page>.
It is a small and lightweight gas detector capable of measuring carbon monoxide concentration in the air. The sensor and battery life are very long-lasting, approximately 2 years.
The PDM+ carbon monoxide concentration meter is a gas detector capable of detecting carbon monoxide in the environment. When powered on, it continuously measures carbon monoxide and alerts you with an LED, vibration, and sound alarm when a dangerous condition arises. It is easy to operate, and there is a metal clip on the back of the unit, allowing it to be secured to a shirt, belt, helmet, or other items.
It is possible to measure chlorine ion concentration with a wide range and high precision from a minimum of 0 to 5 ppm to a maximum of 0 to 500 ppm!
The SKA method is employed to calculate concentration based on the difference in concentrations between a standard solution of known concentration and the sample. By comparing the potential differences, the influence of the measurement environment on the results can be minimized. There are several interfering substances in the measurement of chloride ions, but this method allows for their easy removal.
Continuous measurement of aluminum concentration in water is possible!
Method – Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (such as pH and valence elements). Next, a blank is created to correct for disturbances in temperature and turbidity. Then, the final reagent is added, which reacts with the solution to produce color, and measurements are taken using the correct wavelength. Since a photometer is used, the results are very accurate.
Continuous measurement of manganese concentration in water is possible!
Method – Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (such as pH and valence elements). Next, a blank is created to correct for disturbances in temperature and turbidity. Then, the final reagent is added, which reacts with the solution to produce color, and measurements are taken using the correct wavelength. Since a photometer is used, the results are very accurate.
Continuous measurement of hydrazine concentration in water is possible!
Method – Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (such as pH and valence elements). Next, a blank is created to correct for disturbances in temperature and turbidity. Then, the final reagent is added, which reacts with the solution to develop color and is measured using the correct wavelength. Since a photometer is used, the results are very accurate.
Continuous measurement of phosphate (PO4 3-) concentration in water is possible!
Method – Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (such as pH and valence elements). Next, a blank is created to correct for disturbances in temperature and turbidity. Then, the final reagent is added, which reacts with the solution to produce color, and measurements are taken using the correct wavelength. Since a photometer is used, the results are very accurate. This method is specialized for phosphates and is particularly useful for measuring high concentrations of phosphates. Even if the color of the measurement sample is yellow, performing an auto-blanking before adding the reagent can correct for the background yellow present in the measurement sample. Additionally, only one type of reagent is used, so the amount of reagent added is very small (1 ml).
Continuous measurement of phosphate (PO4 3-) concentration in water is possible!
Method – Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (such as pH and valence elements). Next, a blank is created to correct for disturbances in temperature and turbidity. Then, the final reagent is added, which reacts with the solution to produce a color change, and measurements are taken using the correct wavelength. Since a photometer is used, the results are very accurate. The developed blue color is very intense, allowing for high precision and reproducibility, making it possible to measure truly low concentration values (below 50 ppb) with this method.
Continuous measurement of potassium concentration in water is possible!
Method - Ion Selective Electrode The analysis uses the known addition method (SKA). In this technique, two measurements are taken, and the difference between them, along with the slope obtained during calibration, is used to calculate the concentration. By performing both measurements, changes in the sample matrix are corrected, and the calculation uses the relative difference in mV rather than absolute values, allowing for the avoidance of external interference. An ion strength adjuster (ISA solution) is added to the sample to activate the electrode while simultaneously suppressing the effects of interfering components. Subsequently, the fluoride concentration is measured using the "Standard Known Addition Method (SKA)." This method is very simple and easy to implement. Additionally, because the SKA method corrects for electrode drift and variations in the sample matrix, stable results are obtained.
Continuous measurement of iron ion concentration in water is possible!
Method - Colorimetric Analysis After introducing the sample into the measurement cell, several reagents are added to adjust the conditions of the solution (such as pH and the valence of elements). Subsequently, a blank measurement is performed to correct for the effects of temperature and turbidity. Then, the final reagent is added, which reacts with the solution to produce a color that is measured at the appropriate wavelength. Depending on the photometer used, the results are obtained with very high precision. Trivalent iron ions (Fe³⁺) are reduced to divalent iron (Fe²⁺) by hydroxylamine hydrochloride. Divalent iron ions react with 1:10-phenanthroline in a solution adjusted to a pH range of 5 to 7 to form a pink complex. This method allows for the measurement of relatively high concentrations of iron without excessive absorbance. The reagents used are stable. If it is necessary to measure total iron, the stirring time can be extended to ensure that the iron completely dissolves in the acidic solution.
Continuous measurement of nickel concentration in water is possible!
Method - Colorimetric Analysis After the sample is introduced into the measurement cell, several reagents are added to adjust the solution conditions (such as pH and the valence of elements). Subsequently, a blank measurement is performed to correct for the effects of temperature and turbidity. Next, the final reagent is added, which reacts with the solution to produce a color that is measured at the appropriate wavelength. Depending on the photometer used, the results are obtained with very high precision. The optimal pH conditions are established using an acetate buffer, and Br-PADAP reacts with nickel to form a strong pink color that is proportional to the nickel concentration. The pink color formed can stain the measurement cell and interfere with subsequent measurements; however, this interference is removed by a cleaning solution from Instran. *Substances that may interfere: Cobalt*
Continuous measurement of nickel concentration in water is possible!
Method - Colorimetric Analysis After adding the sample to the measurement cell, several reagents are added to adjust the solution to the desired conditions (pH, valence elements, etc.). Next, a blank measurement is performed to correct for the effects of temperature and turbidity. After that, the final reagent is added, which reacts with the solution to produce a color, and this color is measured at the appropriate wavelength. Depending on the photometer used, results can be obtained with high accuracy. Measurement Principle All metal components form cyanide complexes, and by adding cyclohexanone, the zinc complex dissociates, allowing zinc to react with the zincon dye.
Continuous measurement and monitoring of hydrogen peroxide concentration in drainage. Reducing running costs.
In the semiconductor manufacturing industry, managing the cleanliness of the manufacturing process is a crucial factor that affects product quality. In particular, the concentration management of hydrogen peroxide (H2O2) used in the cleaning process is essential for preventing contamination on the wafer surface and improving yield. Improper concentration management can lead to product defects and performance degradation. The Q46/84 hydrogen peroxide meter allows for continuous measurement of hydrogen peroxide concentration, enabling efficient cleanliness management. 【Usage Scenarios】 - Wastewater treatment processes in semiconductor manufacturing plants - Wafer cleaning processes - Chemical management 【Benefits of Implementation】 - Improved yield through optimization of hydrogen peroxide concentration - Reduced running costs due to reagent-free operation - Early detection of anomalies through real-time concentration monitoring
We continuously measure the ammonia concentration in the drainage to contribute to environmental conservation.
In the wastewater treatment industry, there is a demand for compliance with environmental regulations and optimization of treatment processes. In particular, ammonia concentration is an important indicator of water quality pollution, and accurate measurement is essential. Inadequate ammonia management increases the burden on the environment and carries the risk of regulatory violations. The Instran online ammonia meter measures ammonia concentration in wastewater in real-time, addressing these challenges. 【Use Cases】 - Monitoring effluent water quality at wastewater treatment facilities - Managing ammonia concentration in industrial wastewater - Managing ammonia concentration in aquaculture wastewater 【Benefits of Implementation】 - Rapid anomaly detection through real-time ammonia concentration monitoring - Reduction of running costs through optimization of the wastewater treatment process - Reliable compliance with environmental regulations
It can correct for the effects of variations in the sample matrix.
First, add the ISA solution (ionic strength adjuster) to prepare the sample and activate the electrode sensor. Then, conduct the first measurement. Next, add a small amount of high-concentration nitrate ion standard solution and perform the second mV measurement. The concentration of the target component in the sample is calculated from the results of these two measurements. Additionally, when using an extraction solution, cleaning with ammonia cleaning solution is required for each analysis. This prevents cross-contamination between samples.
It has high selectivity for the measurement of thiocyanate.
After introducing the sample into the measurement cell, several reagents are added to adjust the solution to the specified conditions (such as pH and oxidation state). Next, a blank measurement is performed to correct for the effects of temperature and turbidity. After that, the final reagent is added, causing a reaction in the solution that results in a color change. This color change is measured at the appropriate wavelength. By using a photometer, high measurement accuracy is achieved.
It has high selectivity for the quantification of cyanides.
After adding a buffer and adjusting the pH conditions suitable for the reaction, the reaction proceeds. Chloramine T reagent reacts with cyanide ions to produce cyanide chloride. Subsequently, this compound reacts with a color reagent to form a blue complex. The intensity of the generated blue color is proportional to the concentration of cyanide in the sample.
