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"Chitanistar®" is a material that has been given "photocatalytic" properties through a unique oxidation technology applied to titanium metal. The "photocatalytic" layer is continuously formed from the surface to the interior of the titanium metal, resulting in superior adhesion compared to coatings applied to various materials. Additionally, the material can be processed into various shapes of titanium metal, including sheets, meshes, and beads, and can also be regenerated, making it suitable for a wide range of applications. 【Features】 ■ Excellent deodorizing, antibacterial, and anti-soiling effects ■ High hydrophilicity of the surface makes it suitable for long-term outdoor use ■ Lightweight, strong, highly corrosion-resistant, and non-magnetic ■ Excellent design properties, allowing for wide application in various locations ■ Can be processed into various shapes of titanium metal *For more details, please download the PDF or feel free to contact us.

Titanistar undergoes surface oxidation treatment on pure titanium, which is the metal titanium. A photocatalytic film free of impurities grows from the surface of pure titanium without any interface. In other words, the pure titanium substrate becomes TiO2 through surface oxidation treatment. Observations were conducted using optical instruments on the Titanistar photocatalytic film. - Surface observation using an electron microscope: The surface of Titanistar is porous and cluster-like, and it was found that the film grows from pure titanium without any interface. - Control of crystal structure: Titanistar can control its crystal structure. It can be adjusted to exhibit higher photocatalytic performance with structures such as anatase, rutile, or mixed types. - Observation of surface composition: The surface composition of Titanistar was observed, revealing that it is primarily composed of titanium and oxygen. From the above, it can be concluded that the photocatalyst Titanistar is free of impurities and that the photocatalytic film grows from the surface of the pure titanium substrate without any interface. *For more details, please refer to the PDF document or feel free to contact us.

In general, photocatalysts have the ability to oxidatively decompose organic substances and harmful materials, rendering them harmless. It is said that hydrophilicity occurs on the surface of the photocatalyst in an excited state. We conducted verification tests on these photocatalytic capabilities. - Oxidative Decomposition Ability We treated a non-woven fabric made of pure titanium, cut into 100mm squares, with gas-type Titanister. After sealing it in a Tedlar bag with approximately 250ppm of acetaldehyde gas and reaching adsorption equilibrium, we irradiated it with a 1mW/cm² BLB lamp from above, measuring the concentration of acetaldehyde gas and the concentration of the reaction product, carbon dioxide, at regular intervals. As the concentration of acetaldehyde gas decreased due to Titanister, the concentration of the reaction product, carbon dioxide, increased. Ultimately, it was found that approximately 230ppm of acetaldehyde gas was almost completely decomposed, and a reaction product amounting to twice the concentration of acetaldehyde gas was generated. *For more details, please refer to the PDF document or feel free to contact us.

We report the antibacterial test results against Escherichia coli (E. coli) using the photocatalytic material "Titanistar®." In the photocatalyst industry, tests often last around 3 to 5 hours, so we confirmed the superiority of the antibacterial response through a test set with a short ultraviolet lamp irradiation time of 1 hour. 【Results of the antibacterial test with 1 hour of ultraviolet irradiation】 This time, we conducted an antibacterial test with an irradiation time of 1 hour. Using a strain of E. coli and a film adhesion method with a concentration of 2.5×10^S, we irradiated with 1 mW/cm² BLB. The test area consisted of titanium plates treated with Titanistar, while the control area consisted of untreated pure titanium plates. After 1 hour, no bacterial count could be detected on the Titanistar-treated plates. In contrast, the bacterial count on the untreated titanium plates showed almost no change. This indicates that Titanistar has a high photocatalytic ability. *For more details, please refer to the PDF document or feel free to contact us.

The photocatalytic material "Titanistar(R)" is a photocatalyst produced by applying a unique surface oxidation treatment to pure titanium metal, generating titanium components within pure titanium as photocatalytic titanium dioxide. The substrate is pure titanium metal, not a titanium alloy. Therefore, it is not a coating type and does not use any of these raw materials. - Pure titanium substrate types include plates, meshes, lath meshes, and non-woven fabrics. All of these are flat, but three-dimensional molding processing in specified shapes, such as cylindrical forms, is possible. - Selection and shapes of pure titanium types: From performance and cost perspectives, "lath mesh material" treated with Titanistar is widely used, regardless of liquid phase or gas phase systems. - Titanistar series: - Titanistar MI=O: Dedicated for interference color effects. It has lower performance within the series. - Titanistar MI-W: Gas phase reaction type. Focused on performance. - Titanistar MI-C: Liquid phase reaction type. Thickness of the film. Highest performance class in the series. *For more details, please refer to the PDF document or feel free to contact us.

The photocatalytic material "Titanistar(R)" has been adopted by the National Space Development Agency (NASDA) and the reorganized Japan Aerospace Exploration Agency (JAXA), and we would like to introduce our initiatives. ■Initiatives with NASDA We received adoption in the second space development venture and high-tech system project, where we conducted suitability tests on the decomposition of ethanol gas, which is classified as a harmful gas within the International Space Station. We demonstrated the ability to decompose and neutralize this gas and received an excellence award, recognized as outstanding among the research and development results of the project. ■Initiatives with JAXA We received project adoption at the JAXA Open Lab. Our company, Osaka Prefecture University’s Masakazu Anbo Laboratory, and JAXA formed a research unit to start a project on air purification technology intended for use in outer space. First, we developed a visible light-responsive Titanistar with the Anbo Laboratory at Osaka Prefecture University. Subsequently, we provided decomposition data and examples of decomposition capabilities for all harmful substances designated within the space station. *For more details, please refer to the PDF document or feel free to contact us.

This is an introduction to a case study on the efforts to apply the photocatalytic material "Titanistar(R)" in biomedical surgery, in collaboration with the Kyoto Prefectural University of Medicine's Department of Orthopedics. In orthopedic surgeries at this department, there have been instances of inflammation occurring at the site of skin incisions post-surgery. After various antibacterial tests and other initiatives, titanium pins used in orthopedic surgery were treated with Titanistar, and comparative tests were conducted against untreated titanium pins. As a result, surgeries using Titanistar-treated titanium pins showed significant advantages, with nearly 100 cases performed to date. This achievement has been accepted for publication in the "Titanistar(R)" International Medical Journal. It is rare in the photocatalytic industry to directly attach a material to the human body to activate photocatalytic functions, and this recognition was due to the safety and high performance of "Titanistar(R)." *For more details, please refer to the PDF document or feel free to contact us.

The Ministry of Defense hosted a water contest (technology for purifying non-potable water into potable water), where evaluations of small water purification devices produced by various companies were conducted within the Ministry of Defense. As a result, out of many applications, the technologies of four companies were selected in the preliminary technical review, including our photocatalytic technology. Our company equipped the photocatalytic material "Titanistar(R)" and ultraviolet lamps, purifying the contaminated water created by the Ministry of Defense within the specified time. Subsequently, the water was collected by the Ministry of Defense for quality testing, and the results of the water quality inspection conducted by the Minister of Defense received a score close to full marks. The sterilization effect of the photocatalyst was recognized, and we received the Best Innovator Award, proving that our photocatalytic technology can purify non-potable water to potable water. *For more details, please refer to the PDF document or feel free to contact us.*

The technology of the photocatalytic material "Titanistar(R)" has received technical approval from the United Nations Industrial Development Organization (UNIDO). The technical review was conducted by a third party, evaluating our photocatalytic technology based on almost all available documentation, and included on-site verification of the operational status at user locations utilizing Titanistar for water purification. Additionally, our corporate information was also reviewed as part of the award process. In response to this, we exhibited at the COVID7 (Japan-Africa Business Technology Forum) from the UNIDO booth. *For more details, please refer to the PDF document or feel free to contact us.*

"Chitanistar" is a photocatalytic material that has undergone a unique surface oxidation treatment on pure titanium metal, forming a titanium oxide film directly. It possesses high photocatalytic functionality, and since the photocatalytic layer is continuously formed from the surface of the titanium metal to the interior, it is resistant to peeling and can be used permanently. In addition to air purification applications, it has numerous achievements in water purification both domestically and internationally. It can also be utilized for reducing running costs and enhancing the added value of products. 【Features】 ■ Permanently maintains high photocatalytic activity ■ The film is resistant to peeling and is maintenance-free for long periods ■ Available in three types: gas-phase reaction system, liquid-phase reaction system, and design-focused ■ Can be processed into various shapes of titanium metal, including sheet, mesh, and bead forms ■ High hydrophilicity of the surface allows for long-term outdoor use *For more details, please refer to the materials. Feel free to contact us with any inquiries.

We would like to introduce the technical documentation for the photocatalyst "Titanistar." 1. Surface observation using various optical instruments, Scotch tape adhesion tests Surface observation using XRD, XPS, SEM, and Scotch tape grid tests 2. Antibacterial tests against bacteria Antibacterial tests using E. coli and Staphylococcus aureus 3. Methylene blue decolorization test and gas-phase reaction system test Performance comparison of the Titanistar series 4. Gas decomposition test and gas-phase reaction system test Performance comparison of the Titanistar series, comparison of color differences, differences in substrate types, sponge titanium 5. Acetaldehyde gas decomposition and reaction product tests Measurement of gas component reduction and increase in carbon dioxide concentration, comparison of non-woven fabric thickness 6. Wettability (hydrophilicity) *For more details, please download the PDF or feel free to contact us.

The sponge titanium small was classified into processed and unprocessed products, and the differences in surface conditions were observed using a scanning electron microscope (SEM) at varying magnifications. [BET Method] ■ Sponge Titanium Large - BET specific surface area 5.4203 m²/g micropore (pore diameter below 40 angstroms) - BET specific surface area 4.1314 m²/g macropore (pore diameter between 40 and 360 angstroms) ■ Sponge Titanium Small - BET specific surface area 3.3912 m²/g micropore (pore diameter below 40 angstroms) - BET specific surface area 2.5581 m²/g macropore (pore diameter between 40 and 360 angstroms) [SEM Observation of Sponge Titanium Surface] Please refer to the PDF document for SEM observation images. *For other details, please download and view the PDF.

We will introduce the performance of the liquid-phase reaction system of the photocatalyst "Titanistar." ■ Decolorization of colored components in livestock wastewater - Testing Institution: Kyoto Prefectural Livestock Research Institute We conducted tests to decompose the colored water components treated by the activated sludge method provided by the Kyoto Prefectural Livestock Center using Titanistar. We selected pure titanium mesh material and applied treatment with the MI-C type of Titanistar's liquid-phase reaction system to create test samples. The ultraviolet intensity was set at BLB 1mW/cm², and the degree of decolorization of the colored water was measured using a color difference meter. The results showed that as the irradiation time increased, the colored components gradually decomposed and became lighter. *For more details, please download the PDF or feel free to contact us.

We will introduce the performance test of alcohol gas decomposition using the photocatalyst "Titanistar." 【Decomposition Performance of Various Alcohol Gases and Cycle Tests】 Base Material: Titanistar MI-W, Titanium Plate 100mm x 100mm, and Titanium Mesh 100mm x 100mm Gas Used: Ethyl Alcohol and Isopropyl Gas, each at 100ppm In a 550ml quartz container, MI-W plate material and EtOH were sealed and exposed to ultraviolet light (1mw/cm²) for 1 hour, measuring the concentration every hour. After the concentration decreased to a certain level, a cycle test was conducted by sealing new gas to evaluate the durability of the photocatalytic film. Tests were also conducted using titanium mesh, IPA plates, and IPA mesh in the same manner. As a result, it was confirmed that various alcohols were decomposed, and the cycle test with new gas sealing also showed no significant difference in decomposition. For the titanium plate and mesh, it was confirmed that the mesh material with a higher surface area decomposed more quickly. *For more details, please download the PDF or feel free to contact us.

The pure titanium metal has a non-woven fabric substrate. After converting pure titanium plates into fine wires, they are thermally fused into sheet form in an inert atmosphere. The same linear dimensions were used for non-woven materials of different thicknesses, which were treated with Titanister, and the decomposition of acetaldehyde gas and the measurement of reaction product concentrations were conducted to clarify the differences. ■ Substrates used - 100mm square Non-woven Fabric A, linear 60μm, 400g/m2 - 100mm square Non-woven Fabric B, linear 60μm, 1200g/m2 Both were treated with Titanister MI-W, a vapor-phase reaction system type, and used as test samples. For reference, Fabric A consists of fine wires arranged in a flat manner at 400g per square meter. Performance tests were conducted on non-woven Titanister materials with three times the thickness difference. *For more details, please download the PDF or feel free to contact us.

1. Completion of mask appearance through resin molding, manufactured based on anime sentai themes. 2. Installation of UV-LED and a small fan inside the mask. 3. Installation of photocatalytic titania; pre-filter, titania, and simple filter attached to the outside air intake. 4. Obtaining evidence of the photocatalytic mask's effectiveness against viruses, etc. 5. Confirmation of mask appearance packaging and inventory management of replacement parts, etc. We will proceed with these steps while securing procurement sources and manufacturing bases. Decision on sales destinations and commencement of sales. We are looking for companies that would like to participate. Details will be arranged in a meeting. *For more information, please download the PDF or feel free to contact us.

The contaminants such as mold that occur from stagnant water inside the water server's supply nozzle can be purified or suppressed by incorporating a photocatalytic titania and UV-LED. We are looking for companies that manufacture and sell this photocatalytic function-equipped supply nozzle. We would like to discuss the expansion to general customers and water server companies, including overseas expansion. 【Internal Structure】 ■ Mineral water is supplied from the upper part of a water pipe with a diameter of about φ10mm downwards. ■ A photocatalytic titania is fixed in place within this water pipe. ■ The UV-LED, which serves as the excitation light source, is waterproofed on the surface and fixed inside so that ultraviolet light is uniformly irradiated onto the entire surface of the fixed photocatalytic titania. ■ The activated state of the photocatalytic titania comes into contact with stagnant water, suppressing the generation of bacteria, mold spores, or biofilm that can occur due to airborne infections. *For more details, please download the PDF or feel free to contact us.

Purifying the Taipei municipal water supplied to ultra-luxury condominiums in Taipei City and providing drinkable bottled water for use within the condominiums. A water purification system combining titanium and activated carbon is installed on the rooftop of the condominium to purify the municipal water supply. This system supplies water to all units in the condominium. No disinfectants are used, and the purification is promoted as being done with photocatalytic titanium. The sales are increasing, focusing on ultra-luxury to luxury condominiums, and continue to grow each year. *For more details, please refer to the materials. Feel free to contact us with any inquiries.*

Following the previous TICAD7, we will be exhibiting from the booth of the United Nations Industrial Development Organization (UNIDO), which has received technical approval. This time, we will target various African countries with the following approaches: 1. In urban areas where electricity is available, 2. In depopulated areas without electricity, we will use photocatalytic titania. In urban areas, we will efficiently produce large volumes using ultraviolet lamps and pumps. We will consume the produced drinking water while filling it into bottles for sale. In depopulated areas, we will produce drinking water using sunlight as the excitation light and consume it locally. We propose this type of business model. *For more details, please refer to the materials. Feel free to contact us with any inquiries.

The photocatalytic Titanister efficiently decomposes and deodorizes air pollution caused by humans and chemical component gases from interior materials within buildings. 【Usage Scenarios】 - Interior decoration 【Benefits of Implementation】 - Decomposition and deodorization of various gas components inside the building - Reduction of maintenance costs

In the automotive industry, addressing odors inside vehicles has become a crucial factor influencing customer satisfaction. Specifically, various smells such as tobacco, pet odors, and sweat can detract from the comfort of the vehicle's interior. These odors not only cause discomfort for passengers but can also potentially decrease the car's value. Photocatalytic titanium oxide decomposes these odor components, keeping the interior a pleasant space. 【Usage Scenarios】 - Deodorization measures for the vehicle interior - Odor control for the air conditioning system - Odor management for seats and interiors 【Benefits of Implementation】 - Fundamental decomposition of odors inside the vehicle - Realization of a comfortable interior space - Improvement of customer satisfaction

In the apparel industry, antibacterial and odor prevention measures for clothing are being emphasized. In particular, the occurrence of odors due to sweat and sebum, as well as the proliferation of bacteria, can lead to a decline in product quality and customer satisfaction. Photocatalytic Titanister provides an effective solution to these challenges. 【Application Scenarios】 - Antibacterial and odor prevention treatment for clothing, bedding, and fabric products - Air purification in stores and warehouses - Long-term quality preservation of products 【Effects of Implementation】 - Increased product value due to antibacterial and odor prevention effects - Improved customer satisfaction - Long-term quality preservation of products

In the medical industry, effective disinfection measures are required to reduce the risk of hospital-acquired infections. In particular, disinfecting areas and instruments that patients and healthcare workers may come into contact with is important for preventing the spread of infections. Photocatalytic titanium oxide contributes to addressing these challenges by demonstrating high disinfection effectiveness. 【Usage Scenarios】 - Disinfection of medical instruments - Disinfection of hospital spaces - Hand disinfection 【Effects of Implementation】 - Reduction of the risk of hospital-acquired infections - Maintenance of a clean environment - Ensuring the safety of patients and healthcare workers

In educational institutions, the air quality within classrooms and school facilities significantly impacts the health of students and staff, as well as the learning environment. In particular, air purification capabilities are emphasized as important measures against infectious diseases and allergies. Photocatalytic titanium dioxide contributes to solving challenges in educational settings by decomposing harmful substances in the air and providing a clean environment. 【Usage Scenarios】 - Schools, kindergartens, daycare centers - Laboratories - Libraries 【Effects of Implementation】 - Decomposes viruses, bacteria, and odors in the air - Provides a comfortable learning environment - Reduces the risk of infectious diseases

In the agricultural sector, the occurrence of diseases and pests has a significant impact on yield and quality, putting pressure on producers' profits. Prevention and control of diseases and pests are essential for supporting sustainable agriculture. Photocatalytic titanium oxide contributes to the suppression of microorganisms that cause diseases and supports the healthy growth of crops. It is ideal for sterilizing and purifying agricultural water. 【Application Scenarios】 - Disease and pest control for crops - Reducing disease risk through water quality purification 【Effects of Implementation】 - Reduced risk of disease occurrence - Decreased pesticide usage - Improved crop quality

In the food industry, it is important to maintain product quality and provide consumers with safe food. In particular, preserving freshness is essential for extending the shelf life of food and reducing waste loss. Photocatalytic titania has the potential to break down substances that cause food spoilage and deterioration, thereby prolonging freshness. It is suitable for the decomposition of ethylene gas. 【Application Scenarios】 - Food storage and transportation - Food processing - Food packaging 【Effects of Implementation】 - Extension of food freshness preservation period - Reduction of food waste loss - Improvement of consumer satisfaction

In the seafood industry, the unpleasant odors associated with the processing and storage of seafood have become a significant issue. In particular, in processing plants and aquaculture farms, these odors can lead to a deterioration of the working environment and affect nearby residents, potentially disrupting business operations. Photocatalytic Titanister has been developed to address this odor problem. It sterilizes and purifies freshwater and seawater in aquaculture tanks. 【Usage Scenarios】 - Seafood processing plants - Aquaculture farms - Fish markets 【Benefits of Implementation】 - Reduction of unpleasant odors - Improvement of the working environment - Consideration for nearby residents

In the medical industry, thorough disinfection measures are required to reduce the risk of hospital-acquired infections. In particular, disinfecting areas and instruments that patients and healthcare workers may touch is crucial for preventing the spread of infections. The photocatalytic material "Titanistar(R)" is expected to be effective against general bacteria and various viruses due to its high photocatalytic ability. 【Usage Scenarios】 - Disinfection of medical instruments - Purification of indoor air - Disinfection of waiting rooms and examination rooms 【Benefits of Implementation】 - Reduction of hospital-acquired infection risks - Maintenance of a clean environment - Increased sense of security for patients and healthcare workers

In the transportation industry, odor management in vehicles and warehouses is crucial. Particularly, odors associated with long hours of operation or cargo storage not only decrease the comfort of crew members and work efficiency but also impact customer satisfaction. Titanister® addresses these challenges by breaking down odor components in the air and providing a comfortable environment. 【Usage Scenarios】 - Inside trucks, buses, and trains - Warehouses and cargo storage areas - Waiting rooms and break areas 【Benefits of Implementation】 - Breaks down odor-causing substances and demonstrates deodorizing effects - Provides a comfortable environment, enhancing the satisfaction of crew members and users - Improves hygiene conditions through air purification effects

In the agricultural sector, crop diseases significantly affect yield and quality, becoming a serious issue. The occurrence of diseases can lead to increased pesticide use, which may heighten the environmental burden. The photocatalytic material "Titanistar(R)" has effects on water purification and air cleaning, and it may contribute to the suppression of bacteria and viruses that cause diseases. It has also received technical approval from the United Nations Industrial Development Organization (UNIDO), and its technological capabilities have been evaluated by third-party organizations. 【Usage Scenarios】 - Irrigation of crops - Air purification inside greenhouses 【Effects of Implementation】 - Reduction of disease risk - Potential contribution to the reduction of pesticide usage

In the fisheries industry, the attachment of marine organisms to fishing gear and aquaculture facilities (biofouling) has become a significant issue that leads to decreased productivity and increased costs. Particularly in areas with low water flow or high organic matter, biofouling tends to accelerate, necessitating effective countermeasures. Photocatalytic Titanister® contributes to water purification and water quality improvement, and is also expected to serve as a biofouling countermeasure. 【Application Scenarios】 - Fishing nets - Structures of aquaculture facilities - Other areas where the attachment of marine organisms is problematic 【Effects of Implementation】 - Suppression of marine organism attachment - Improved durability of fishing gear and facilities - Reduction of maintenance costs

In the energy industry, improving the operational efficiency of equipment is essential. In particular, water quality management and air purification are crucial for maintaining equipment performance. Inadequate water quality or air conditions can lead to equipment degradation and a decrease in energy efficiency. The photocatalytic material "Titanister(R)" contributes to water purification, air cleaning, and measures against general bacteria and various viruses, supporting energy efficiency. 【Usage Scenarios】 - Purification of cooling water in power plants and facilities - Air purification in energy-related facilities - Streamlining wastewater treatment processes 【Benefits of Implementation】 - Prolonged equipment lifespan - Reduction in energy consumption - Achievement of stable operations

In the food industry, maintaining product freshness is essential for customer satisfaction and business continuity. In particular, temperature changes, humidity, and bacterial growth are factors that accelerate the deterioration of food quality. Inadequate freshness preservation measures can lead to product waste and complaints, potentially resulting in losses for the company. The photocatalytic material "Titanistar(R)" contributes to water purification, gas purification, and measures against general bacteria and various viruses, supporting the preservation of food freshness. 【Usage Scenarios】 - Food storage facilities - Transport containers - Manufacturing lines for processed foods 【Effects of Implementation】 - Suppression of food spoilage and deterioration - Extension of product quality retention period - Reduction of food waste

In the fisheries industry, the attachment of marine organisms to fishing gear and aquaculture facilities (fouling) has become a challenge that leads to decreased production efficiency and increased costs. This issue tends to worsen, especially in areas with poor seawater flow or with fishing gear that is used for extended periods. Photocatalytic Titanister contributes to this antifouling measure, helping to maintain the quality of seafood. 【Usage Scenarios】 - Coating of fishing nets and aquaculture nets - Coating of walls and piping in aquaculture facilities - Coating of fishing vessel hulls 【Effects of Implementation】 - Suppression of marine organism attachment - Reduction of maintenance costs for fishing gear and facilities - Preservation of seafood quality

In the agricultural sector, crop diseases significantly impact yield and quality, becoming a source of concern for producers. In particular, measures against bacteria and viruses that cause diseases are crucial for stable agricultural management. The photocatalytic material "Titanistar(R)" has effects on water purification and air cleaning, and can be utilized as a countermeasure against substances that cause diseases. 【Usage Scenarios】 - Irrigation of crops - Air purification inside greenhouses 【Effects of Introduction】 - Reduction of disease risk - Improvement of crop quality

In public transportation, virus countermeasures in vehicles and station premises are crucial to protect the safety and health of passengers. Especially in places used by an unspecified number of people, effective measures to reduce infection risks are required. The photocatalytic material "Titanista(R)" demonstrates a high virus suppression effect and contributes to enhancing the safety of public transportation. 【Usage Scenarios】 - Inside trains and buses - Station premises and waiting rooms - Ticket machines and handrails 【Effects of Implementation】 - Air purification inside vehicles and stations - Reduction of contact infection risks - Maintenance of a clean environment

In sports facilities, the occurrence of mold not only detracts from the aesthetic appeal of the facility but can also negatively impact the health of users. Particularly in areas with high humidity where people tend to gather, mold can easily proliferate. Mold can cause allergies and respiratory issues, and it may also damage the facility's reputation. The photocatalytic material "Titanister(R)" helps suppress mold growth through its air purification effect, maintaining a clean environment. 【Usage Scenarios】 - Locker rooms - Shower rooms - Training rooms - Poolside - Changing rooms 【Benefits of Implementation】 - Suppresses mold growth and maintains the facility's aesthetic appeal - Reduces health risks for users - Improves the hygiene environment of the facility - Reduces cleaning efforts

In the school environment, air purification and water quality improvement are necessary to protect the health of students and staff. Particularly, hygiene management in classrooms and water supply facilities is crucial. The photocatalytic material "Titanister(R)" contributes to improving the school environment by decomposing harmful substances in the air and impurities in the water, thereby providing a clean environment. It has also received technical approval from the United Nations Industrial Development Organization (UNIDO), recognizing its effectiveness. 【Usage Scenarios】 - Air purification in classrooms, gymnasiums, etc. - Water quality purification in pools - Hygiene management of water supply facilities - Deodorization and antibacterial treatment in restrooms 【Effects of Implementation】 - Suppression of viruses and bacteria in the air - Decomposition of water pollutants - Realization of a clean and comfortable learning environment - Reduction of infection risks

In the fisheries industry, maintaining the freshness of catch is a crucial issue. In particular, the deterioration of quality after landing can significantly diminish the value of the product. To preserve freshness, it is essential to suppress bacterial growth and oxidation. Titanister is effective in purifying water and decomposing general bacteria, contributing to the maintenance of seafood freshness. 【Application Scenarios】 - Storage of seafood after catch - Water purification in seafood processing plants - Freshness preservation during transportation 【Effects of Implementation】 - Increased product value due to freshness retention - Reduction of losses due to quality deterioration - Improved consumer satisfaction

In the construction industry, maintaining the aesthetic appeal of buildings and reducing maintenance costs are important challenges. Dirt on exterior walls and roofs not only detracts from appearance but also accelerates the deterioration of the building. Additionally, cleaning and repainting incur significant costs. The titanium dioxide photocatalytic material "Titanistar" addresses these issues. 【Application Scenarios】 - Exterior walls - Roofs - Signage - Other building materials requiring anti-soiling measures 【Benefits of Implementation】 - Maintenance of aesthetic appeal through the self-cleaning function of building materials - Cost reduction due to extended maintenance cycles - Reduction of environmental impact

In medical institutions, thorough disinfection measures are required to reduce the risk of hospital-acquired infections. Particularly in areas where patients and healthcare workers are likely to touch, or where air tends to stagnate, continuous disinfection effectiveness is crucial. Traditional disinfection methods not only involve labor and costs but also face the challenge of temporary effectiveness. The titanium dioxide photocatalyst material "Titanistar" addresses these issues with the power of photocatalysis. 【Usage Scenarios】 - Operating rooms - Examination rooms - Waiting rooms - Patient rooms - Testing rooms 【Benefits of Implementation】 - Reduction of hospital-acquired infection risk - Decrease in running costs - Improved maintainability

In automotive interiors, addressing odors inside the vehicle is crucial. Specifically, various odors such as those unique to new cars, smells from the air conditioning, and pet odors can become problematic. These odors not only compromise the comfort of passengers but also raise health concerns. The photocatalyst "Titanistar" decomposes odor components in the vehicle, providing a comfortable space. 【Usage Scenarios】 - Deodorizing and antibacterial measures for seats, interior panels, ceilings, etc. - Odor control through application to air conditioning filters - Air purification inside the vehicle 【Benefits of Implementation】 - Decomposes odor-causing substances, creating a pleasant interior environment - Maintains cleanliness in the vehicle through antibacterial effects - Provides long-lasting effectiveness, reducing maintenance efforts

In the food industry, maintaining product freshness and quality is a crucial challenge. In particular, temperature fluctuations, humidity, and microbial growth can accelerate food deterioration and increase health risks for consumers. The titanium dioxide photocatalyst material "Titanistar" contributes to maintaining freshness by decomposing airborne bacteria and odors in food storage environments. 【Usage Scenarios】 - Food storage facilities - Transport containers - Packaging materials 【Effects of Implementation】 - Preservation of food freshness - Suppression of quality deterioration - Elimination of unpleasant odors

In public transportation, the increase in passengers and enclosed spaces make odor control an important issue. In particular, various odors such as sweat, body odor, and food and drink consumption in vehicles can easily arise, becoming factors that compromise a comfortable environment. These odors can lead not only to passenger discomfort but also to a potential decline in the company's image. Chitanistar utilizes the power of photocatalysis to break down these odor components and create a clean space. 【Usage Scenarios】 - Inside trains, buses, taxis, etc. - Waiting rooms at stations, airports, etc. - Inside elevators of office buildings and commercial facilities 【Benefits of Implementation】 - Creation of a comfortable space through the breakdown of odor components - Infection control through air purification effects - Cost reduction by decreasing cleaning frequency

In the agricultural sector, the occurrence of diseases has a significant impact on yield and quality. Particularly in environments with high humidity and temperature, the proliferation of pathogens and viruses becomes active, increasing the risk of crop diseases. The emergence of diseases leads to an increase in pesticide use and a decrease in yield, ultimately resulting in higher costs. The titanium dioxide photocatalyst material "Titanistar" decomposes the bacteria and viruses that cause diseases, reducing the risk of crop diseases. 【Application Scenarios】 - Disease control in greenhouse cultivation - Seed disinfection - Sterilization of agricultural tools 【Effects of Implementation】 - Reduction of disease occurrence risk - Decrease in pesticide usage - Improvement in crop quality