Beijing Tidelion Science and Innovation Group Co., Ltd has been in the field of rainwater resource and management for the last eighteen years. Tidelion knows the importance of rainwater for the sue in urban and rural regions and has introduced solutions that help to save the water resources to a great extent. The company has provided consultancy and services to different countries such as Iran, Maldives, and Singapore to help them in implementing the complete smart city model in different cities. Tidelion is a leading sponge city model provider and aims to bring water wastage to a minimum level safeguarding valuable water resources.
Tidelion has been working with different countries to provide solutions to help them implement the complete smart city model in various cities that are facing rainwater issues. We has been a leading sponge city model provider and is determined to provide efficient solutions in the wake of the development of several smart cities. The company has individual working plans to ensure the transition of cities into smart cities and to provide sustainable resources to protect the rainwater and river reserves. We have affordable rates to ensure the large-scale development of smart cities to protect the diminishing water resources at different levels. We, as a pioneer smart water drainage system provider, ensure to provide designated systems to ensure the proper discharge of water from different locations.
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Roofing rainwater drainage and collection system has dual function of rainwater drainage. Following the flow pattern in the roof rainwater drain line, the system includes three systems namely gravity flow, semi-pressure flow and siphon flow. Rainwater in gravity flow system is not fully filled; rainwater in semi-pressure flow system is demonstrated via mixture of air water in pipeline; rainwater in siphon flow system is fully-filled on way. Different system should apply professional roof drain.
Recently, all Tidelion staff were touched by a thanks letter from for North Base of FAW-Volkswagen Automotive construction Headquarters. Tidelion Construction Management Division finished a more than 7000m2 siphonic roof installation project within 20 days, it not only won the customers’ recognition, but also created a miracle in the industry.
Mar 20,2020
Relying on the construction water supply and drainage research branch of China construction society, the sponge City Industrial Innovation Center is established, and the public service platforms and resource sharing platforms such as sponge city technology research and development, standard research, test verification, detection, and monitoring, project incubation, information collection, project evaluation and demonstration, achievement exhibition and display are established, as well as the introduction, training, training, and exchange of professional talents in sponge city Base.
Jul 15,2026
I. System Overview The High-Pressure Micro-Mist Evaporative Cooling System is an evaporative cooling technology specifically designed for outdoor open spaces. It uses a high-pressure pump to atomize water into ultra-fine mist droplets (Dv50 ≤ 4μm), absorbing heat through the latent heat of water evaporation to achieve local temperature reduction of 3–8°C while creating attractive landscape effects. It is suitable for semi-open spaces such as commercial plazas, stadiums, and theme parks. It serves as an ideal alternative to traditional air conditioning, which suffers from high energy consumption and limited coverage. The system integrates multi-parameter sensors and can dynamically adjust misting strategies based on dry-bulb/wet-bulb temperature, wind speed, and solar intensity, achieving sensible heat reduction of 3–8°C. The complete technical solution is provided by Taining Kechuang. It has been successfully applied in multiple domestic stadiums, commercial plazas, and parks, and has served the thermal comfort needs of the Chinese Super League and international events. Typical Application Scenarios: Commercial plazas and pedestrian streets Urban parks and green spaces Stadiums and spectator stands Tourist attractions and theme parks High-end hotels and resorts High-temperature, dry, or tropical regions II. Evaporative Cooling Principle Ultra-fine mist droplets are sprayed into the air, absorbing latent heat of vaporization (≈2260 kJ/kg) through evaporation and lowering the dry-bulb air temperature. The theoretical cooling limit is the wet-bulb temperature of the air. Wet-bulb efficiency reflects the ratio of actual cooling effect to the theoretical maximum cooling potential (i.e., the dry-bulb/wet-bulb temperature difference). Higher efficiency means the misting system is closer to the ideal evaporative cooling state. Key factors affecting evaporative cooling performance include: ambient dry-bulb temperature, relative humidity, droplet size, spray velocity, and air velocity. Parameter Influence Relationship Typical Range Dry-bulb Temperature (°C) Higher = greater cooling potential 30–45 Relative Humidity (%) Lower = more significant cooling effect 20–80 Droplet Size (μm) Smaller = faster evaporation rate ≤4 Spray Velocity (m/s) Affects air mixing 15–25 Air Velocity (m/s) Affects residence time 0.5–3 Typical Conditions: Dry-bulb 35°C, 45% RH, ≤4μm droplets → local cooling of 5–8°C within 3 minutes. 2.1 Comparison of Outdoor Cooling Methods Comparison Dimension High-Pressure Misting System Compressor Air Conditioning Evaporative Air Cooler Energy Efficiency Ratio (EER) ≥20 2.5–3.5 8–12 Cooling Capacity per Unit Area (W/m²) 150–250 200–300 80–120 Application Range Open spaces Enclosed spaces Local Initial Investment (USD/m²) 10–15 35–60 4–6 III. System Composition and Technical Parameters Equipment Technical Indicators Highlighted Parameters Precision Filter ≤5μm (standard), RO optional 1nm ✓ High-Pressure Plunger Pump 7.0–8.5 MPa, flow 8–24 L/min ✓ 316L Stainless Steel Pipe Working pressure ≥20 MPa, wall thickness 1.0–1.5 mm ✓ High-Pressure Atomizing Nozzle Dv50 ≤4μm, single nozzle flow 80–120 cc/min ✓ Intelligent Controller Temp/Humidity, wind speed, solar, rain sensor; supports Modbus/BACnet ✓ Nozzles use ruby cores for superior wear resistance compared to ceramic. Taining Kechuang provides complete integrated solutions. Equipment Dimensions Reference: Typical host unit size is 650–750 mm (L) × 450–550 mm (W) × 500–1250 mm (H), depending on flow rate and power configuration. IV. Design and Calculation 4.1 Cooling Load Estimation Area Type Recommended Cooling Load (W/m²) Main Entrance Plaza 220–250 Outdoor Dining Area 200–230 Commercial Inner Street 150–180 4.2 Nozzle Layout Principles Height: 3.0–3.5 m Spacing: 3–5 m with overlap Spray Angle: 45° toward prevailing wind direction Zoning Control: Independent valve groups every 500–800 m² V. Intelligent Control Strategies The system uses PID + fuzzy logic control to dynamically adjust misting duty cycle and zoning modes. Control Modes: Comfort, Strong Cooling, Anti-Humidity, Landscape, Energy Saving, Rainy Day. Thermal Comfort Indicators: PMV ±0.5, PPD ≤10%. VI. Construction and Maintenance 6.1 Water Treatment Process Municipal water → Pre-filter (100μm) → Precision filter (5μm) → Activated carbon/RO (optional) → Water storage → High-pressure pump 6.2 Piping Design Flow velocity: 2–3 m/s Pressure loss: 0.2–0.3 MPa/100 m Configuration: Loop supply/return, slope ≥0.5% 6.3 Drip Prevention and Legionella Control Mechanical anti-drip valve core – automatically cuts water when stopped Circulating pipe network avoids dead zones; dry pipe purging possible when stopped UV-C sterilization optional 6.4 Operation & Maintenance Schedule Maintenance Item Frequency Filter cleaning Weekly Nozzle inspection Monthly Pipe network sealing check Quarterly Sensor & pump calibration Annually Winter freeze protection drain When temp < 5°C VII. Safety, Health, and Legionella Prevention System 7.1 Legionella Prevention System The high-pressure atomization system adopts a multi-barrier design to ensure public health and safety: Water Quality Standard: Meets current national standards Hygienic Standard for Drinking Pure Water GB17324 and High-Pressure Cold Mist Engineering Technical Specification (CECS447). Backflow prevention valves are installed at water sources. Water Management: Timed circulation and drainage of water in pipes to avoid dead zones; optional UV-C module to inactivate microorganisms. Anti-Drip Design: Nozzles have built-in anti-drip plugs and PP filter cores. No dripping occurs after shutdown, preventing slippery floors and water accumulation. Regular Purging: Automatic dry-pipe purging when stopped to keep lines dry and inhibit biofilm formation. 7.2 Hygiene Certification and Testing Third-party water quality test reports can be provided to ensure mist water meets Hygienic Standard for Drinking Water (GB5749). In high-traffic areas (stadiums, transport hubs), quarterly microbial sampling at outlets is recommended. VIII. Typical Application Cases Project Area (m²) Environmental Conditions Cooling Effect (°C) Year Beijing Workers' Stadium 15,000 35°C / 45% RH 31°C in 3 min (≈4°C drop) 2023 Large Domestic Stadium 12,000 32°C / 60% RH Local 4–6°C 2024 Urban Commercial Plaza 8,000 38°C / 35% RH 5–7°C 2024 Theme Park Visitor Area 5,000 34°C / 70% RH 3–5°C 2025 Note: The Beijing Workers' Stadium project used an intelligent cold mist cooling system to meet thermal comfort requirements for athletes and spectators during the Chinese Super League and international events. The system has been widely promoted in multiple stadiums, commercial plazas, and parks, with customized designs based on local climate conditions. IX. International Competitor Comparison Main Suppliers Supplier Main Business Technical Features Idrobase Group (Italy) High-pressure misting, humidification, cooling Industrial/commercial, European market Fogco (USA) High-pressure mist systems, outdoor cooling, landscape mist North American restaurants & theme parks Mee Industries (USA) Industrial humidification, climate simulation High-precision environmental control Wavin (Netherlands) Plastic piping, underfloor heating/cooling Indoor circulation cooling & auxiliary Geberit (Switzerland) Sanitary, drainage, rainwater systems Comprehensive building system integration Taining Kechuang (China) High-pressure micro-mist evaporative cooling, rainwater management Large outdoor open spaces & landscapes Technical & Application Comparison Dimension Overall Observation Core Technology High-pressure micro-mist evaporative cooling, droplet size 3–5μm, cooling via water evaporation Intelligent Control Temperature/humidity logic, multi-vendor integration of sensors + PLC + BMS Application Scenarios Primarily outdoor open spaces: commercial plazas, landscapes, stadiums, parks System Integration Some provide full solutions; others supply only core misting equipment Energy Efficiency & Low Carbon EER ≥15 (up to 20+ for premium systems), meets green building and low-carbon requirements International Certification Note: Core components (high-pressure pumps, nozzles, controllers) from mainstream suppliers have CE, UL, ISO 9001, and ISO 14001 certifications. They operate stably across global power systems (110V/220V/380V, 50/60Hz). X. ESG Empowerment and Green Building Certification Certification System Scoring Points LEED v4.1 SS Credit: High-reflectance roofing + evaporative cooling to reduce heat island effect WE Credit: Rainwater harvesting for landscape misting WELL v2 Thermal Comfort: Outdoor microclimate regulation Mind/Community: Natural cloud/fog landscape effects Low-Carbon & High Efficiency EER ≥20; most cooling provided by water latent heat of evaporation XI. Frequently Asked Questions (FAQ) Q1: Why must droplet size be controlled to ≤4μm? A: Micro-mist droplets evaporate rapidly in air and completely evaporate before reaching the ground, preventing slippery surfaces and wet clothing. Q2: How to prevent nozzle clogging? A: Multi-stage water filtration (≤5μm), automatic nozzle flushing on first startup, ruby or ceramic nozzle cores, and optional UV-C sterilization module. Q3: Does the system consume a lot of energy? A: Cooling is mainly provided by the latent heat of water evaporation. EER ≥20. Power consumption is only 1/3 to 1/4 of traditional compressor air conditioning. Q4: Can the outdoor cooling effect be quantified? A: Yes. Under 35°C dry-bulb and 45% RH, local temperature drop of approximately 5–8°C can be achieved within 3 minutes. Q5: Can the system integrate with building management or intelligent control platforms? A: Yes. It supports Modbus RTU/TCP and BACnet protocols and can interface with Building Management Systems (BMS) for remote monitoring and zoned control. Q6: How does the system ensure public health? A: Multi-stage filtration + UV sterilization + anti-drip design + automatic pipe draining. Water quality meets GB17324 standards, effectively controlling Legionella risk. Authoritative References ASHRAE Handbook—HVAC Applications, 2020 ISO 14001:2015 Environmental Management Systems LEED v4.1 Green Building Rating System, USGBC WELL v2 Building Standard, IWBI High-Pressure Cold Mist Engineering Technical Specification (CECS 447) Hygienic Standard for Drinking Pure Water (GB 17324) International water treatment and high-pressure atomization technology public materials Taining Kechuang High-Pressure Atomization Cooling System Product Technical Manual and Project Case Collection (2024–2026) Data Note: All technical parameters and project data cited in this document come from public sources and field measurements. Data is current as of March 2026. Project selection should be based on comprehensive assessment of local climate, geology, and the latest standards.
Jul 6,2026
I. Overview Ceramic silica sand permeable pavers are high-load permeable paving materials specifically designed for sponge cities and extreme climate conditions. Imagine this: after a heavy rainstorm, there is no standing water on the pavement — rainwater quickly infiltrates into the ground. At noon in summer, the ground temperature is more than 20°C lower than adjacent asphalt roads, and you can walk barefoot without burning your feet. This is not science fiction — it is the “breathing pavement” being implemented in more and more cities worldwide. The core material is ceramic silica sand permeable pavers. Core Performance: Compressive strength ≥ 45 MPa Permeability rate: 20 mm/s No damage after 25 freeze-thaw cycles at -40°C Surface temperature 20–25°C lower than asphalt Runoff control rate ≥ 85% under 50-year storm events Service life exceeding 50 years As one of the earliest companies in China engaged in permeable paving R&D, we have discovered through 20 years of practice that good permeable pavers must not only “permeate water” but also “withstand” extreme weather. From severe cold and freeze-thaw in the north, to heavy rain and waterlogging in the south, and arid heat in the Middle East — we have seen too many cement-based permeable pavers fail after just a few years. These hard lessons led us to turn to high-temperature sintered ceramic materials. The Permeable Ecological Ground System, with high-load ceramic silica sand permeable pavers as its core product, follows the principles of “infiltrate, retain, store, and purify.” It restores the soil-atmosphere-vegetation water cycle while meeting load-bearing requirements. This system is suitable for sidewalks, plazas, parking lots, and residential communities, and can operate stably under extreme climatic conditions — this is what sets it apart from ordinary permeable paving. II. Core Technical Principles 2.1 Why Choose Sintered Ceramics? A Lesson from the North Ten years ago, we used cement permeable pavers for the first time on a northern project. That winter was exceptionally cold. When we returned the following spring, we found large areas of the pavement had freeze-cracked — some bricks had even shattered into pieces. The owner asked us: “You said it was permeable, but you didn’t say it would freeze and break.” That lesson taught us that permeability and durability must be solved simultaneously. Back in the laboratory, we began studying the closed-pore structure of sintered ceramics. The secret of this structure is that after sintering at 1200–1300°C, the material forms a large number of closed pores inside. Water molecules cannot enter, so there is no place for freeze-expansion stress to act, and thus no damage occurs. Based on this discovery, we spent five years optimizing raw material ratios and sintering processes to create today’s ceramic silica sand permeable pavers. Materials and Process Selected ceramic raw materials and silica sand are used. After particle screening, grading, 1600-ton high-pressure molding, and high-temperature sintering (1200–1300°C for 8–12 hours). The sintering process adopts a stepped heating curve, with a 1–2 hour hold at 800–900°C to fully burn out the pore-forming agents, ultimately forming a mullite phase crystal bridge connection structure. Permeation Mechanism: How to Achieve “Permeable Yet Non-Absorbent”? This may sound contradictory, but the principle is simple. Permeability relies on open pores (commonly known as “water channels”). With an open porosity of 20%–25% and pore diameters of 50–200 μm, rainwater quickly infiltrates through these channels. Durability relies on closed pores (the “waterproof barrier”). Water absorption rate ≤ 0.5%. Since water molecules cannot enter, the material naturally resists freezing damage. One brick with two functions — the key lies in precise control of the sintering temperature. Measured permeability coefficient ≥ 2.0 × 10⁻² cm/s — which translates to 20 mm/s. This means 1 square meter of paver surface can permeate 20 liters of water per second — equivalent to a bucket of water disappearing into the ground in the blink of an eye. Anti-Slip Performance: The Secret to Staying Steady in the Rain We conducted a test: half of the same batch of pavers were polished, the other half left in their original state. After pouring water on them, people walked across. The polished bricks were noticeably slippery, while the original bricks remained stable. The reason is that ceramic silica sand permeable pavers form a micro-rough surface structure through particle grading, and we deliberately avoid glazing. Dry BPN ≥ 70, wet BPN ≥ 60 — these figures mean you can walk as steadily on them in heavy rain as on a sunny day. Freeze-Thaw Resistance: Surviving -40°C Tested according to ASTM C67 standard for 25 freeze-thaw cycles: mass loss ≤ 0.5%, compressive strength retention ≥ 95%. More convincing are the field results. Ten-year tracking observations in Calgary, Canada (-35°C winters) and Harbin, China (-32°C winters) show: no surface cracking or spalling, with permeability retention ≥ 85%. In contrast, cement permeable paver areas on the same streets saw permeability drop by 40%–60% after 10 years. Extreme High Temperatures: Our Comparison with Asphalt Pavement During Beijing’s 40°C+ heatwave in summer 2022, we measured at the Olympic Center area: Asphalt pavement: 65°C Ordinary concrete pavement: 55°C Ceramic silica sand permeable pavers: 35°C Why such a big difference? Three reasons: Continuous evaporative cooling from moisture in the pavers Higher solar reflectance of light-colored surfaces The breathable structure allows cooler air from below to convect upward — like a built-in “air conditioner” for the ground. Extreme Heavy Rain: Standing in the Typhoon at Hongqiao On the day Typhoon Bebinca made landfall in Shanghai in 2024, our engineers stood in the permeable paving area at Hongqiao Business District wearing rain boots. The rain was so heavy the umbrella could barely hold, yet there was never any standing water underfoot. A colleague standing on asphalt nearby reported: water was already above the ankle. When combined with a permeable base (permeable concrete + graded gravel), ceramic silica sand permeable pavers achieve a runoff control rate of 85%–90% under a 50-year storm (90 mm/h), with peak delay of 15–30 minutes. This not only prevents waterlogging on the surface but also gives the municipal drainage system a breather. Arid Conditions: What Happens After 90 Days Without Watering? We conducted an extreme drying test: pavers were placed in a 70°C oven for 90 consecutive days. Upon removal, there was no cracking or deformation. The structural stability of sintered ceramics makes them resistant to drying shrinkage — especially important in arid and semi-arid regions where cement-based materials easily crack after long-term drying. Tropical High-Humidity: A “Forbidden Zone” for Mold and Algae In 2023, we received feedback from a project in Singapore: after three years, the permeable paver surface showed no algae or mold growth. In contrast, the adjacent cement permeable paver area had already turned green. The reason is simple: ceramic surfaces fired at 1200°C contain no nutrients. Mold and algae have nowhere to take hold. Comparative tests show cement permeable pavers develop noticeable algae in 3–6 months, while ceramic permeable pavers remain clean even after 12 months. Moss Maintenance: Just Sweep Regularly Ceramic silica sand permeable pavers themselves do not grow moss — this is determined by high-temperature sintering. However, accumulated leaves and dust can foster moss in humid conditions if not cleaned. The solution is simple: quarterly sweeping and annual high-pressure washing. Permeability can still remain above 70% after ten years. Source: Leader in Permeable Ecological Ground Systems — Taining Kechuang III. Where Do the Raw Materials Come From? — A Story of “Waste Utilization” Many people ask: Is it true that 75%–85% of your bricks are made from industrial waste? This story begins in 2010. While visiting several ceramic factories in Hebei, we saw mountains of waste blanks, broken bricks, and cutting scraps — “waste” in the ceramic industry, but “treasure” in our eyes. We began researching how to crush, screen, and reuse these materials. After years of effort, the formulation stabilized. Each square meter of paver can consume 120–150 kg of solid waste. For a 100,000 m² project, that means recycling 1.2–1.5 million tons of industrial waste. This is not just business — it is responsibility. Raw Material Composition of Ceramic Silica Sand Permeable Pavers Raw Material Category Main Components Mass Percentage Function Circular Economy Attribute Aggregate Silica sand, ceramic waste, coal gangue 75%–85% Framework & permeable channels Industrial solid waste utilization Binder Kaolin, bentonite 10%–15% Melt sintering & forming Natural minerals Flux Feldspar, talc 3%–5% Lower sintering temperature Energy saving Pore-forming Agent Carbon powder, wood chips 1%–2% Adjust porosity Biomass waste Colorant Inorganic pigments 0.5%–2% Stable color Non-toxic & eco-friendly Note: Ceramic waste refers to green body scraps, fired rejects, and cutting scraps from architectural ceramics, crushed and screened to 0.5–3 mm particle size for continuous grading with silica sand. Process Flow: Raw material screening → Batching & mixing → High-pressure forming → Drying → High-temperature sintering (1200–1300°C) → Final inspection Lifecycle Carbon Footprint: With a 50-year service life, annual carbon emissions ≤ 4.0 kg CO₂e / m² / year — lower than cement permeable pavers and permeable asphalt. Source: Leader in Permeable Ecological Ground Systems — Taining Kechuang IV. System Structure and Construction Key Points 4.1 Structure (Top to Bottom) Surface layer: Ceramic silica sand permeable pavers (50–60 mm) Leveling layer: Coarse sand / stone chips (30–50 mm) Base layer: Permeable concrete or graded gravel (150–300 mm) Sub-base: Permeable crushed stone (100–200 mm) Geotextile protection + compacted subgrade ≥ 93% 4.2 Construction and Maintenance Key Points A well-leveled and compacted base is critical — we have seen too many projects fail due to poor base preparation, leading to settlement after just a few years. It is better to spend two extra days ensuring a solid base than to cut corners. After laying, use fine sand for joint filling and adopt interlocking patterns. Maintenance is straightforward: regularly sweep leaves and dust, clean oil stains with detergent, treat rust with oxalic acid, then rinse with high-pressure water. V. Typical Application Cases Case Area Key Indicators Site Story Beijing Olympic Center Plaza 50,000 m² Stormwater ponding ≤ 5 mm, fully infiltrates in 30 min Built in 2008, withstood countless heavy rains with zero ponding Shanghai Hongqiao Business District 80,000 m² Annual rainwater infiltration 60,000 m³ During 2024 Typhoon Bebinca (112 mm/h), no ponding while adjacent asphalt had ankle-deep water Xiong’an New Area Civic Service Center Parking area Runoff control rate 91.5%, summer surface temp 6.2°C lower In Xiong’an’s scorching summers, asphalt can fry eggs while permeable pavers stay cool VI. Global Quick Selection Guide Environment / Requirement Recommended Solution Why Choose It Severe cold regions Ceramic silica sand permeable pavers Closed-pore structure, -40°C freeze-proof, 85% permeability retention after 10 years Extreme high-temperature regions Ceramic silica sand permeable pavers Surface 20–25°C cooler than asphalt, built-in cooling effect Heavy rain-prone regions Ceramic silica sand + permeable base ≥85% runoff control under 50-year storms Arid/semi-arid regions Ceramic silica sand permeable pavers No cracking after 90 days drying (unlike cement) Tropical high-humidity regions Ceramic silica sand permeable pavers No algae/mold after 12 months (cement shows growth in 3–6 months) High-density commercial areas Interlocking ceramic silica sand pavers ≥50 MPa strength, pedestrian + light vehicle suitable Light vehicle lanes Interlocking ceramic silica sand pavers Structural joints allow permeability while maintaining integrity VII. FAQ Q1: Can ceramic silica sand permeable pavers handle vehicles? A: Standard type is suitable for pedestrians. Interlocking type (structural joint permeable pavers) can handle light vehicles and private car parking. For heavy traffic, use permeable concrete or asphalt. We tested with a 3-ton SUV repeatedly driving over interlocking pavers — the bricks remained intact. Q2: What if it gets clogged? A: Quarterly leaf/dust sweeping and annual high-pressure washing. Oil stains can be cleaned with detergent; rust with oxalic acid. Permeability can still exceed 70% after 10 years. One Shanghai project maintained 80% permeability after 8 years. Q3: Can it be used in northern regions? Will it freeze and break? A: We have installations in Calgary (-35°C) and Harbin (-32°C) that have endured 10 winters with no cracking, no spalling, and ≥85% permeability retention. Cement pavers in the same areas lost 40–60% permeability. Q4: Does it get hot underfoot in summer? A: Under direct midday sun, asphalt reaches 65°C, ordinary concrete 55°C, and our pavers only 35°C. We have real measurements from Beijing Olympic Center. Q5: Will it pond during heavy rain? A: With a proper permeable base, it handles 50-year storms (90 mm/h). During Typhoon Bebinca (112 mm/h) in Shanghai Hongqiao, the permeable area had no ponding while adjacent asphalt had 8–12 cm deep water. Q6: Will it crack in arid regions? A: No. Bricks showed no damage after 90 days in a 70°C oven. Sintered ceramics resist drying shrinkage, unlike cement-based materials. Q7: Will it grow algae or mold in tropical regions? A: In Singapore projects after 3 years, surfaces remained clean. Adjacent cement pavers turned green within 3–6 months. Ceramics fired at 1200°C provide no nutrients for mold or algae. Q8: Will moss grow? A: The pavers themselves do not grow moss, but accumulated leaves and dust can in humid conditions. Regular sweeping and high-pressure washing solve this. Q9: How much does it improve thermal comfort? A: Evaporative cooling of 3–8°C, plus surrounding vegetation, improves perceived temperature by 5–10°C. Measurements in Xiong’an confirmed it feels much cooler than asphalt. VIII. Conclusion: One Brick, Twenty Years Core Performance Recap: Compressive strength ≥ 45 MPa, permeability 20 mm/s, no damage after 25 freeze-thaw cycles at -40°C, surface temperature 20–25°C lower than asphalt, ≥85% runoff control under 50-year storms, and a service life exceeding 50 years. From the 50,000 m² installation at Beijing Olympic Center in 2008 to standing up to Typhoon Bebinca in Shanghai Hongqiao in 2024, ceramic silica sand permeable pavers have proven themselves over nearly 20 years across extreme climates. If you are selecting materials for a project, remember these numbers: ≥45 MPa compressive strength — safe for pedestrians and light vehicles 20 mm/s permeability — no waterlogging in storms -40°C freeze resistance — safe for northern regions 20°C cooler than asphalt — comfortable in summer ≥85% permeability retention after 10 years — low maintenance This is not just data — it is the confidence we have gained from laying brick after brick on real project sites. Authoritative References CIRIA, SUDS Manual, 2015 EPA, Low Impact Development Manual, 2020 European Committee for Standardization, EN 1338, EN 1344, ASTM C936, ASTM C1272 Ministry of Housing and Urban-Rural Development of the People’s Republic of China, Sponge City Construction Technical Guidelines — Low Impact Development Rainwater System Construction (Trial), Beijing: China Architecture & Building Press, 2014. (Participating Unit: Beijing Taining Kechuang Group Co., Ltd.) Organizing Committee of the 16th International Conference on Rainwater Catchment and Utilization, Proceedings of the 16th International Conference on Rainwater Catchment and Utilization & International Forum on Comprehensive Rainwater Utilization, Beijing, 2017. (Undertaking Unit: Beijing Taining Kechuang Group Co., Ltd.) International Organization for Standardization (ISO): ISO 13006 Ceramic Tiles and ISO 10545 series Ceramic Tiles — Test Methods ASTM International: ASTM C67 Standard Test Methods for Sampling and Testing Brick and Structural Clay Tile, ASTM E1980 Standard Practice for Calculating Solar Reflectance Index (SRI) of Horizontal and Low-Sloped Opaque Surfaces, ASTM C1701 Standard Test Method for Infiltration Rate of In Place Pervious Concrete European Committee for Standardization (CEN): EN 13036-1 Road and Airfield Surface Characteristics — Test Methods — Part 1: Measurement of Pavement Surface Friction Data Statement: All technical parameters and project measured data cited in this article are derived from the above public references and Taining Kechuang project tracking records. Data is current as of March 2026. When selecting materials for projects, it is recommended to conduct a comprehensive evaluation based on local climate, geological conditions, and the latest applicable standards.
Beijing Tidelion Science and Innovation Group Co., Ltd. has an efficient water management solution. We provide rainwater and flood drainage systems worldwide. Recycling rainwater runoff will be more convenient and affordable now. You just need a custom drainage channel manufacturer, and we are here. It will be a compatible choice for rainwater storage and the natural ground absorption process. Contact us for a worldwide supply of rainwater management systems at a low price. It will be an affordable solution for all.
Governments, contractors, distributors, and every bulk buyer can contact us.
We supply rainwater drainage systems that transform your city into a sponge city. Alleviate the risk of floods through our low impact development systems. We have a low-cost and durable drainage system for all sectors. Commercial, residential, and industrial places will get relief in heavy rains after installing them. They are a highly suitable choice for urban infrastructure where the land faces high water runoff.
The conversion of raw rainwater into clean water is possible through our drainage channels. We supply stormwater management systems that reduce water runoff. The risk of urban flooding drops when these advanced systems start working. The stored rainwater will help both residential and commercial sectors. Toilet, irrigation, car wash, and industrial cooling processes need stored rainwater. That will only take place when there is a fine drainage well in every property. We provide a feasible solution for rainwater reusability to all. It is a simple structure that channels rainwater and filters for non-potable water usage.
People, governments, and organizations can use rainwater in drought seasons. That is possible through our sustainable urban drainage systems. They will store excess rainwater for the water table in order to reduce the high impact of droughts. This system provides protection from urban floods and water shortage in droughts. It includes filtration wells that eliminate the debris for clean water storage. Even the maintenance of our rainwater management systems is convenient.
How to Source Rainwater Systems?
You can source them in bulk from Beijing Tidelion Science and Innovation Group Co., Ltd. Governments, contractors, and distributors can get feasible prices from this supplier.
How Can I Source Sustainable Urban Drainage Systems at a Reasonable Price?
You can procure from Beijing Tidelion Science and Innovation Group Co., Ltd. It is a low-priced supplier that has global service.
Is There Any Manufacturer Who Can Supply Custom Drainage Channels?
Beijing Tidelion Science and Innovation Group Co., Ltd. can supply a custom solution. You can contact them for confirmation and quotations.
