English
 |
TOP
Aluminum, Galvanizing Steel
PE Film, PO Film
OEM, OED
ISO
China
A high-performing tomato glasshouse is not just steel plus glass—it’s a light engine tuned for your variety, climate, and market window. The materials you choose (low-iron, diffused, AR, hydrophilic), the way panels fit into a robust Venlo or wide-span frame, and the quality system behind every pane all compound into yield, labor efficiency, and product consistency. The real advantage comes from a manufacturer that unites a seasoned design team with a flexible, customized workshop and airtight QA.
Fresh tomato demand keeps rising across retail and foodservice as consumers seek high-brix flavor, consistent size, and attractive sheen year-round. Glasshouses make that possible by extending season windows and stabilizing microclimates. In mature markets, glass enables premium SKUs (on-the-vine, cherry, cocktail) with higher price resilience. In emerging markets, glasshouses de-risk supply against heat waves, frost, and extreme rain.
Design starts with climate reality. Cold zones push higher roof pitches, heavier snow load design, and triple gutter strategies. Hot/arid regions need large roof vent ratios, high air-exchange, and hydrophilic anti-drip coatings to control leaf-wetness. Coastal or typhoon-prone areas benefit from increased fastening density, laminated roof zones, and enhanced seal systems. Matching the glass spec to climate is the first lever of ROI.
Poly Tunnel Greenhouse
Poly Tunnel Greenhouse
Poly Tunnel Greenhouse
Venlo remains the global workhorse: narrow bays (3.2–4.8 m), high ridge, continuous gutters, and vent frames sized for aggressive natural ventilation. Wide-span systems unlock large internal volumes for heat buffering and ease of mechanization. Your tomato variety and climate strategy often decide the system.
Bay width influences panel size, structural mass, and logistics. Narrower bays improve wind performance and vent control precision; wider bays reduce columns and unlock unobstructed headroom for crop work platforms.
Galvanized steel columns carry vertical loads; aluminum purlins and pressure caps deliver precise glass seating without cold bridges. Trusses are tuned for snow/wind, with nodes that accept screens, gutters, and service rails.
Roof modules define panel sizes and vent shapes. A 30–40% roof vent ratio is common for tomatoes; in hot regions, dual-side vents plus ridge vents help dump heat fast. The glazing layout ensures symmetry to avoid differential sag and air leaks.
Deep gutters channel heavy rain while preserving leaf dryness below. Snow-shed detailing (ridge capping, heated gutters in cold climates) reduces ice dams. Wind design includes edge-zone reinforcement and safety stop systems for vents.
Door height, insect screens, and airlocks keep pests out and climate in. Wide central aisles support harvest trolleys and mobile platforms; side aisles sync with bench or gutter layouts for clean crop flow.
| Techinical Parameters | |||
| Dimension | Load Parameters | ||
| Span Width | 8, 9, 9.6, 11.2, 12.8 m | Wind Load | 40~120 km/h |
| Bay Length | 4, 4.5, 5 m | Snow Load | 0~100 cm |
| Gutter Height | 4, 5, 6 m | Hanging Load | 0~15 kg/㎡ |
| Top Height | 5.2~9.3 m | Max. Drain Capacity | 140 mm |
| Skeleton Frame | Hot Dip Galvanized Steel Tubes | ||
| Coverings | PO Film, PE Film | ||
| Optional Systems | Ventilation System, Circulating Fan, Fan Wet Curtain System, Inside And Outside Shading System, Planting System, Irrigation System, Water And Fertilizer Integration, Electrical Control System | ||
| Applications | Leafy Vegetables, Eggplants, Mushrooms, Flowers, Seedlings, Poultry, Fish Pond Shed, Parking Shed, Material Warehouse | ||
| Remarks | The above parameters just for reference and subject to our actual projects, we accept customization. | ||
Unlike suppliers who only focus on glass, your workshop is equipped with CNC cutting machines, automatic welding lines, hot-dip galvanizing, and robotic bending systems. This ensures every column, truss, and purlin is fabricated with tight tolerances, allowing glass panels to fit seamlessly without leaks or stress points.
Your workshop isn’t a “one-size-fits-all” factory. Instead, you customize greenhouse skeletons based on snow load, wind speed, humidity, and crop type (like tomatoes). This means growers get structures that actually match their region—whether it’s typhoon-proof in Japan, snow-proof in Canada, or heat-proof in the Middle East.
With an in-house design engineering team, you don’t just fabricate steel—you model glass seating, ventilation frames, and load-bearing junctions during the design stage. This prevents misalignment between the glass supplier and the greenhouse skeleton, saving clients time and money during installation.
Because you’re not mass-producing a single product, your workshop can adapt quickly. Need a non-standard bay width, oversized ridge height, or special vent frames for diffused glass panels? Your team can fabricate it. Many glass suppliers can’t adjust panel design, but you make sure the skeleton supports whatever glass the grower chooses.
Because you pre-fabricate modules in your workshop—columns, gutters, trusses, vent frames—installation on site is faster and safer. Crews can assemble like building blocks, which reduces crane rental time and labor costs.
Your barcoded structural components and standardized joints make future expansions, replacements, or repairs simple. Unlike generic steel fabricators, your workshop keeps design files and manufacturing data, so growers can get identical parts years later.
We start by locking down loads and soil data. Footings and anchors are sized for code wind/snow and your site’s quirks, then the steel grid aligns with panel modules to minimize cutting on site.
A 3D model tests sun angles by season and checks shadows from nearby structures. We examine ridge heights, vent flaps, and screen cassettes for shading conflicts, so you get clean light profiles where the crop needs it most.
We design vent geometry and screen systems together. Screens (energy, shading, blackout where needed) clip into the structure without airflow bottlenecks or light leaks, avoiding costly retrofits.
Vegetable Greenhouse
Fruit Greenhouse
Flower Greenhouse
Seedling Greenhouse
Aquaculture Greenhouse
Laboratory Greenhouse
Commercial Greenhouse
Restaurant Greenhouse
Many suppliers sell “glass panels.” We build greenhouse performance. The difference shows up in:
Quality: tighter tolerances, deeper QA data, safer edges, consistent optical profiles lot-to-lot.
Design team: senior horticultural engineers who model light, not just steel.
Customized workshop: non-standard modules, pre-gasketed panels, and special vent pieces that make complex sites straightforward.
Service: installation sequencing, barcoded panes, and replacement logistics that keep you picking, not waiting.
We commit to realistic lead times, phased shipments that match crane windows, and warranties tied to real cleaning SOPs and climate conditions. Competitors may quote faster, but rushed tempering or poor crating is expensive on the roof.
Follow soft-brush, neutral-pH cleaning to protect AR and hydrophilic layers. We stock replacement panels serialized to your bay map; a QR on each crate opens the exact installation drawing so swaps are fast and safe.
Single or double energy screens can drop nighttime losses 30–50%. Shade screens with aluminum strips reflect excess summer radiation, protecting fruit color and calyx condition.
PAR sensors, leaf-temperature cams, CO₂, VPD, and roof-wetness sensors all feed into your climate computer. We map glass transmittance and vent coefficients into control logic for predictable responses.
High, stable PAR at the canopy. Low-iron diffused glass often balances raw transmission with uniformity.
Use tempered on roofs over active crop for safety; facades can be heat-strengthened or laminated depending on code and risk tolerance.
Yes—especially at low sun angles. They help squeeze more harvestable light hours across the season.
They prevent droplets from forming, so you avoid irregular shading and leaf-wetness hotspots that favor Botrytis.
Absolutely. Many projects specify diffused on roofs for uniformity and clear on facades for visual clarity and value.
It depends on wind/snow loads, mechanization, and vent strategy. Narrow bays aid wind performance; wide spans simplify internal logistics.
4–5 mm roof, 5–6 mm façade, adjusted for local code loads and span geometry.
Pre-gasketed; non-standard vent modules; rigorous QA at each step; and a senior design team aligning glass specs with climate and crop goals.
A high-performing tomato glasshouse is not just steel plus glass—it’s a light engine tuned for your variety, climate, and market window. The materials you choose (low-iron, diffused, AR, hydrophilic), the way panels fit into a robust Venlo or wide-span frame, and the quality system behind every pane all compound into yield, labor efficiency, and product consistency. The real advantage comes from a manufacturer that unites a seasoned design team with a flexible, customized workshop and airtight QA.
Fresh tomato demand keeps rising across retail and foodservice as consumers seek high-brix flavor, consistent size, and attractive sheen year-round. Glasshouses make that possible by extending season windows and stabilizing microclimates. In mature markets, glass enables premium SKUs (on-the-vine, cherry, cocktail) with higher price resilience. In emerging markets, glasshouses de-risk supply against heat waves, frost, and extreme rain.
Design starts with climate reality. Cold zones push higher roof pitches, heavier snow load design, and triple gutter strategies. Hot/arid regions need large roof vent ratios, high air-exchange, and hydrophilic anti-drip coatings to control leaf-wetness. Coastal or typhoon-prone areas benefit from increased fastening density, laminated roof zones, and enhanced seal systems. Matching the glass spec to climate is the first lever of ROI.
Poly Tunnel Greenhouse
Poly Tunnel Greenhouse
Poly Tunnel Greenhouse
Venlo remains the global workhorse: narrow bays (3.2–4.8 m), high ridge, continuous gutters, and vent frames sized for aggressive natural ventilation. Wide-span systems unlock large internal volumes for heat buffering and ease of mechanization. Your tomato variety and climate strategy often decide the system.
Bay width influences panel size, structural mass, and logistics. Narrower bays improve wind performance and vent control precision; wider bays reduce columns and unlock unobstructed headroom for crop work platforms.
Galvanized steel columns carry vertical loads; aluminum purlins and pressure caps deliver precise glass seating without cold bridges. Trusses are tuned for snow/wind, with nodes that accept screens, gutters, and service rails.
Roof modules define panel sizes and vent shapes. A 30–40% roof vent ratio is common for tomatoes; in hot regions, dual-side vents plus ridge vents help dump heat fast. The glazing layout ensures symmetry to avoid differential sag and air leaks.
Deep gutters channel heavy rain while preserving leaf dryness below. Snow-shed detailing (ridge capping, heated gutters in cold climates) reduces ice dams. Wind design includes edge-zone reinforcement and safety stop systems for vents.
Door height, insect screens, and airlocks keep pests out and climate in. Wide central aisles support harvest trolleys and mobile platforms; side aisles sync with bench or gutter layouts for clean crop flow.
| Techinical Parameters | |||
| Dimension | Load Parameters | ||
| Span Width | 8, 9, 9.6, 11.2, 12.8 m | Wind Load | 40~120 km/h |
| Bay Length | 4, 4.5, 5 m | Snow Load | 0~100 cm |
| Gutter Height | 4, 5, 6 m | Hanging Load | 0~15 kg/㎡ |
| Top Height | 5.2~9.3 m | Max. Drain Capacity | 140 mm |
| Skeleton Frame | Hot Dip Galvanized Steel Tubes | ||
| Coverings | PO Film, PE Film | ||
| Optional Systems | Ventilation System, Circulating Fan, Fan Wet Curtain System, Inside And Outside Shading System, Planting System, Irrigation System, Water And Fertilizer Integration, Electrical Control System | ||
| Applications | Leafy Vegetables, Eggplants, Mushrooms, Flowers, Seedlings, Poultry, Fish Pond Shed, Parking Shed, Material Warehouse | ||
| Remarks | The above parameters just for reference and subject to our actual projects, we accept customization. | ||
Unlike suppliers who only focus on glass, your workshop is equipped with CNC cutting machines, automatic welding lines, hot-dip galvanizing, and robotic bending systems. This ensures every column, truss, and purlin is fabricated with tight tolerances, allowing glass panels to fit seamlessly without leaks or stress points.
Your workshop isn’t a “one-size-fits-all” factory. Instead, you customize greenhouse skeletons based on snow load, wind speed, humidity, and crop type (like tomatoes). This means growers get structures that actually match their region—whether it’s typhoon-proof in Japan, snow-proof in Canada, or heat-proof in the Middle East.
With an in-house design engineering team, you don’t just fabricate steel—you model glass seating, ventilation frames, and load-bearing junctions during the design stage. This prevents misalignment between the glass supplier and the greenhouse skeleton, saving clients time and money during installation.
Because you’re not mass-producing a single product, your workshop can adapt quickly. Need a non-standard bay width, oversized ridge height, or special vent frames for diffused glass panels? Your team can fabricate it. Many glass suppliers can’t adjust panel design, but you make sure the skeleton supports whatever glass the grower chooses.
Because you pre-fabricate modules in your workshop—columns, gutters, trusses, vent frames—installation on site is faster and safer. Crews can assemble like building blocks, which reduces crane rental time and labor costs.
Your barcoded structural components and standardized joints make future expansions, replacements, or repairs simple. Unlike generic steel fabricators, your workshop keeps design files and manufacturing data, so growers can get identical parts years later.
We start by locking down loads and soil data. Footings and anchors are sized for code wind/snow and your site’s quirks, then the steel grid aligns with panel modules to minimize cutting on site.
A 3D model tests sun angles by season and checks shadows from nearby structures. We examine ridge heights, vent flaps, and screen cassettes for shading conflicts, so you get clean light profiles where the crop needs it most.
We design vent geometry and screen systems together. Screens (energy, shading, blackout where needed) clip into the structure without airflow bottlenecks or light leaks, avoiding costly retrofits.
Vegetable Greenhouse
Fruit Greenhouse
Flower Greenhouse
Seedling Greenhouse
Aquaculture Greenhouse
Laboratory Greenhouse
Commercial Greenhouse
Restaurant Greenhouse
Many suppliers sell “glass panels.” We build greenhouse performance. The difference shows up in:
Quality: tighter tolerances, deeper QA data, safer edges, consistent optical profiles lot-to-lot.
Design team: senior horticultural engineers who model light, not just steel.
Customized workshop: non-standard modules, pre-gasketed panels, and special vent pieces that make complex sites straightforward.
Service: installation sequencing, barcoded panes, and replacement logistics that keep you picking, not waiting.
We commit to realistic lead times, phased shipments that match crane windows, and warranties tied to real cleaning SOPs and climate conditions. Competitors may quote faster, but rushed tempering or poor crating is expensive on the roof.
Follow soft-brush, neutral-pH cleaning to protect AR and hydrophilic layers. We stock replacement panels serialized to your bay map; a QR on each crate opens the exact installation drawing so swaps are fast and safe.
Single or double energy screens can drop nighttime losses 30–50%. Shade screens with aluminum strips reflect excess summer radiation, protecting fruit color and calyx condition.
PAR sensors, leaf-temperature cams, CO₂, VPD, and roof-wetness sensors all feed into your climate computer. We map glass transmittance and vent coefficients into control logic for predictable responses.
High, stable PAR at the canopy. Low-iron diffused glass often balances raw transmission with uniformity.
Use tempered on roofs over active crop for safety; facades can be heat-strengthened or laminated depending on code and risk tolerance.
Yes—especially at low sun angles. They help squeeze more harvestable light hours across the season.
They prevent droplets from forming, so you avoid irregular shading and leaf-wetness hotspots that favor Botrytis.
Absolutely. Many projects specify diffused on roofs for uniformity and clear on facades for visual clarity and value.
It depends on wind/snow loads, mechanization, and vent strategy. Narrow bays aid wind performance; wide spans simplify internal logistics.
4–5 mm roof, 5–6 mm façade, adjusted for local code loads and span geometry.
Pre-gasketed; non-standard vent modules; rigorous QA at each step; and a senior design team aligning glass specs with climate and crop goals.
