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Reduction of running costs! Introducing the image flow of Air + CO2 + mist.
This document is about the image flow of Air + CO2 + mist. Local application of Air and CO2, utilizing Air as a two-phase mist. It achieves improvements in running costs and productivity. Please feel free to contact us regarding the installation and management of supply equipment. *For more details, please refer to the PDF document or feel free to contact us.
For environmental integrated control in facility horticulture and plant factories! Achieve efficiency and low costs with CO2 and air application.
The "Conductor," a device that promotes photosynthesis efficiency, can connect to many sensors, allowing control of various equipment (skylights, side windows, curtains, heating devices, circulation fans, mist systems, liquid fertilizer pumps, etc.) through individual sensors. Furthermore, sensors assigned to four areas can be recorded by area, enabling control of various equipment by area based on the sensor data. Additionally, while controlling CO2 and air application, LEDs can be used as needed to supplement light intensity, and by setting wavelengths, it promotes nutrient growth and reproductive growth, thereby enhancing photosynthesis efficiency. The LEDs can be independently controlled in each area with two systems, allowing for three patterns per day based on illuminance sensors and time control. 【Features】 - Sensors can measure up to 80 types in standard configuration - Control functions for LED, CO2, air, and pH are built-in for each area - External devices can be controlled for up to three systems per area - Remote monitoring function can display all sensor measurement values and carbon dioxide flow in real-time every minute - Graphing for each sensor is available, with display switching according to the period - The alert function is robust, allowing registration of up to four email addresses *For more details, please refer to the catalog or feel free to contact us.
You can check the values of each sensor on the sensor box! Remote environmental integrated control is possible even for houses located hundreds of meters away.
The "CC-5000" is a wireless-controlled CO2 localized application controller. The sensor box allows for the monitoring of each sensor's values, and it can be manually calibrated to 400 ppm. The waterproofing has been enhanced, and the entire box is designed to prevent the intrusion of chemicals and moisture. The CO2 and air valve units, as well as the external control unit, have also been made wireless, allowing for remote environmental integrated control even in greenhouses located hundreds of meters away. 【Features】 ■ Each sensor's values can be monitored from the sensor box ■ Manual calibration to 400 ppm is possible ■ Enhanced waterproofing ■ The combination of wireless technology and solar panels reduces the burden of cable installation ■ CO2 and air valve units, as well as the external control unit, are also wireless *For more details, please refer to the PDF document or feel free to contact us.
More than 400 sensors can be connected! Leave the environmental control of facilities separated by roads and irrigation channels to us!
The "Concerto OCES-1000" is an environmental integration control device that can independently control up to 20 houses via wired and wireless connections. Even for houses that are far apart across a road and cannot be connected by wire, it is possible to acquire sensor data and control units by utilizing a combination of wireless communication and solar panels. You can rely on us for remote locations separated by roads or irrigation channels, as well as for facility horticulture and plant factories. 【Features】 ■ Connects to over 400 sensors ■ Controls more than 500 control points ■ Standard equipped with reliable CO2 & Air control ■ Overwhelming number of remote monitoring and remote operation functions ■ Customizable settings that can accommodate research cultivation *For more details, please refer to the PDF materials or feel free to contact us.
![[Market Report] Global Market for Industrial Gases](https://image.mono.ipros.com/public/product/image/1c5/2000974156/IPROS70838528452953122389.jpeg?w=280&h=280)
The global market for industrial gases is expected to surge, reaching 154.4 billion USD by 2031.
The global industrial gas market is experiencing unprecedented growth, with sales reaching approximately $93.8 billion in 2022. It is projected to reach $154.4 billion by 2031. This remarkable growth is driven by a steady compound annual growth rate (CAGR) of 5.7% during the forecast period from 2023 to 2031. Industrial gases play a crucial role across a wide range of industries, from manufacturing and healthcare to electronics and energy. Gases such as oxygen, nitrogen, hydrogen, and carbon dioxide are essential for various industrial processes and have become indispensable for the growth and development of the global economy. For application methods, please check the [PDF download] button or apply directly through the related links.
![[Market Report] Global Market for Argon Gas](https://image.mono.ipros.com/public/product/image/b3e/2001038525/IPROS63671909550907343248.jpeg?w=280&h=280)
World Market for Argon Gas: Steady Growth Reaching 353.1 Million USD by 2031
The global argon gas market is experiencing steady growth, with sales reaching approximately $220 million in 2022. Supported by a forecasted compound annual growth rate (CAGR) of 5.4%, this market is expected to reach $353.1 million by 2031. Argon is a versatile and essential industrial gas that plays a crucial role in various fields, driving its demand and market expansion. Argon gas, with its non-reactive and non-flammable properties, has become an indispensable element in various industries, providing a stable environment for numerous industrial processes. As the manufacturing and technology sectors continue to evolve, the demand for argon gas is expected to increase, making the future of the global argon gas market promising. For application methods, please check the [PDF download] button or apply directly through the related links.
![[Case Study] Improvement of yield and quality in cucumber cultivation in Gunma Prefecture through the application of carbon dioxide.](https://image.mono.ipros.com/public/product/image/fde/2000544600/IPROS77484330040582278319.jpeg?w=280&h=280)
We introduce a case where the introduction of the "carbon dioxide local application system" improved the yield and quality of cucumber cultivation in facilities in Gunma Prefecture! Customer feedback is also included.
The carbon dioxide local application system "Breath" continuously monitors CO2 concentration using a sensor box installed in the greenhouse and efficiently applies the appropriate amount of CO2 locally as needed. By applying only the necessary amount to the required areas, it achieves low costs and promotes photosynthesis. Furthermore, by combining it with air, it is possible to further reduce running costs, and improvements in yield and quality can also be expected. Here is an example of its introduction for cucumber cultivation in Gunma Prefecture. [Customer Feedback] Previously, we selected sizes and shipped after harvest in-house, but the harvest cycle has accelerated to the point where we can't keep up without sending it to the sorting facility. The consumption of carbon dioxide is about 4 to 6 bottles per month, but I believe the cost-effectiveness is evident. *For more details, please refer to the PDF document or feel free to contact us.
![[Case Study] Improvement of yield and quality in strawberry cultivation in Tochigi Prefecture through the application of carbon dioxide.](https://image.mono.ipros.com/public/product/image/bf8/2000544289/IPROS79683358782059657100.jpeg?w=280&h=280)
Introducing a case where the introduction of the "carbon dioxide local application system" improved the yield and quality of strawberry cultivation in Tochigi Prefecture! Customer feedback is also included.
The carbon dioxide local application system "Breath" continuously monitors CO2 concentration using a sensor box installed in the greenhouse and efficiently applies the appropriate amount of CO2 locally as needed. By applying only the necessary amount to the required areas, it achieves low costs and promotes photosynthesis. Furthermore, by combining it with air, it is also possible to further reduce running costs, which can lead to improvements in yield and quality. Here is an example of its introduction for winter strawberries (Tochigi Prefecture). [Customer Feedback] The installation work was easier than I imagined, and I can do the maintenance of the piping myself if I want to. The functionality is sufficient for carbon dioxide application. The running costs were also lower than I expected. I believe they are probably comparable to combustion systems. Regarding the effects, I think the harvest cycle has become faster, and the weight of each fruit has increased. I will continue to use it. *For more details, please refer to the PDF materials or feel free to contact us.
![[Case Study] Example of improved yield and quality of "tomato" cultivation in Yamanashi Prefecture through the application of carbon dioxide.](https://image.mono.ipros.com/public/product/image/03a/2000613324/IPROS49534670793041128551.jpeg?w=280&h=280)
Introducing a case where the introduction of the "carbon dioxide local application system" improved the yield and quality of tomato cultivation in Yamanashi Prefecture! Customer feedback is also included.
The carbon dioxide local application system "Breathe" continuously monitors CO2 concentration using a sensor box installed in the greenhouse and efficiently applies the appropriate amount of CO2 locally as needed. By applying only the necessary amount to the required areas, it achieves low costs and promotes photosynthesis. Furthermore, by combining it with air, it is possible to further reduce running costs, and improvements in yield and quality can also be expected. Here is an example of its introduction for tomato cultivation in Yamanashi Prefecture. [Customer Feedback] For long-term tomato harvesting from September to the following July, the so-called "fruit fatigue" during the mid-growth stage was a challenge. We believe that CO2 application is necessary to maintain the momentum of harvesting until the end. The local application device Breathe is less affected by ventilation compared to conventional combustion types, and there is no concern about unnecessary increases in greenhouse temperature. We introduced the local application device Breathe in the third year of our business, and due to the increase in yield, our profits increased by about 1.5 million yen compared to the previous year. While the improvement in cultivation skills of myself and the staff is one factor, I believe it was a good decision to introduce the equipment as the yield has remained stable throughout the season. *For more details, please contact us.
Supports independent control for each section. Contributes to increased yield and profit in facility horticulture and greenhouse cultivation through localized application of carbon dioxide.
Breath" is a system that continuously monitors CO2 concentration using a sensor box installed in the house and efficiently applies the appropriate amount of CO2 locally as needed. It allows for application of only the necessary amount, achieving low-cost promotion of photosynthesis. Furthermore, by using compressed air, it is also possible to further reduce running costs. Currently, we are providing materials that include verification data of the application effects. You can view detailed information immediately by clicking on "PDF Download." 【Features】 ■ Capable of multi-point measurement, independent control of multiple areas, and data collection of gas concentrations, etc. ■ Can apply the necessary amount only to the required areas ■ Standard memory function for data recording (CO2 concentration, temperature, humidity, various set values) is also possible ★ Testing with a complete demo unit (including supply equipment) is available for loan! (The testing period can be several seasons.) If you are interested, please contact us via the "Contact Form.
