View Plans

Bioreactor 3D Models

Find the best Bioreactor 3D Models, free download in STL, FBX, GLB, OBJ, 3MF, USDZ for 3D modeling and creation in Blender, 3D printing, game developing, animation, eCommerce, AR/VR and etc. Generated by Tripo AI 3D Generator.

You May Also Like :
reactorlaboratorymedicalscienceequipmenttankfermentationindustrialengineeringpharmaceuticalmachinetechnologyfactory
生物反应器三维模型: Bioreactor system with tall cylindrical glass chamber on a base and a connected control console, featuring silver body and blue accents.
生物反应器三维模型 3D Model
biodigester tank 3d model: biodigester tank with conical bottom, black plastic body, Acqualimp Biodigestor logo, side fittings
Biodigester Tank 3D Model
biogas digester 3d model: Acqualimp Biodigestor tank with conical bottom, black steel body, white logo.
Biogas Digester 3D Model
biodigester tank 3d model: biodigester tank with conical bottom, black cylindrical body, white Acqualimp Biodigester label, inlet/outlet pipes.
Biodigester Tank 3D Model
biodigester tank 3d model: biodigester tank with conical bottom, cylindrical upper section, black body, white Acqualimp Biodigestor logo, and copper inlet/outlet pipes
Biodigester Tank 3D Model
skincare bottle 3d model: bioderma atoderm intensive baume pump bottle, white plastic container with blue label
Skincare Bottle 3D Model
stirred fermenter 3d model: TO give identify colour fermenter and add the dimensional value in interior parts (Final 5 L stirred fermenter (lab scale): Vw = 5 L (0.005 m³), Vt = 6.5 L (0.0065 m³). ID = 160 mm, H = 320 mm (H/D = 2), liquid height = 247 mm, headspace = 73 mm. Wall = 2 mm SS 304/316; external Ø 164 mm; headplate = 6 mm; height ≈ 700 mm with motor/base. Impeller Ø 53 mm (D/3), shaft Ø 8 mm, 4 baffles 16 mm wide, sparger Ø 136 mm (6 mm tube). Ports: pH/DO 12 mm; temp 10 mm; gas 8 mm; vent 6–8 mm (0.2 µm filter); sample 10 mm ID; drain 12 mm. Motor 0–600 rpm, ≥0.2 N·m torque. TIG weld, Ra ≤ 0.8 µm, ±0.5 mm tolerance. Headplate ≈ 200 mm Ø for ports; flat bottom sloped 3–5°. Optional sight glass and sanitary valves)
Stirred Fermenter 3D Model
bioreactor 3d model: multichamber bioreactor prototype with labeled compartments (Polymer Decomposition Room, Bacteria Environment, Energy Extracting Room) connected to a rectangular control box; metallic gray surface, glass panels, blue accent lighting.
Bioreactor 3D Model
futuristic lab device 3d model: iridescent three-chamber laboratory device with polymer decomposition, bacteria environment, and energy extraction rooms, connected to a turquoise control unit; glowing colorful interiors
Futuristic Lab Device 3D Model
filtro anaeróbio modelo 3d: anaerobic filter tank (industrial bioreactor) black cylindrical tank with Acqualimp logo, matte surface, ribbed sections, top access fittings.
Filtro Anaeróbio Modelo 3d 3D Model
bioplastic converter 3d model: compact bioplastic converter machine prototype with hopper, grinding unit, biopress, and drying tray; blue and green frame with wooden accents.
Bioplastic Converter 3D Model
bioplastic converter 3d model: compact green bioplastic converter machine with feed hopper, grinding unit, hot-press chamber, and drying tray
Bioplastic Converter 3D Model
biochemical diagram 3d model: biochemical apparatus with curved housing, labeled inputs H2O, O2, NADPH, ATP, mounted on a base with a small control block
Biochemical Diagram 3D Model
A 3D bioprinter device with a white exterior, green printing platform, and transparent enclosure designed for 3D cell culture and biomedical research.
3D Model
3D Model
Green plastic tube of Biotherm Homme Aquapower Cleanser, a men's facial cleansing product
3D Model
Funciona mediante fotosíntesis, utilizando CO₂ capturado de la atmósfera marciana o del hábitat, luz (inicialmente solar, luego apoyada por LEDs) y una solución mineral controlada. Cuenta con sensores de pH, temperatura y nutrientes, y un sistema de control autónomo que permite la recirculación de gases y el ajuste automático de condiciones óptimas. El oxígeno producido se libera al hábitat tras un proceso de purificación, mientras que la biomasa generada se cosecha como alimento comestible. Su diseño modular y autónomo lo hace compatible con hábitats presurizados y sistemas de conexión tipo túnel
3D Model
un sistema cerrado de dos módulos cilíndricos fabricados en acero inoxidable, diseñado para producir oxígeno mediante el cultivo de microalgas Chlorella vulgaris. El módulo inferior contiene la fase acuosa con las algas, agua y nutrientes, mientras que el superior almacena y purifica la fase gaseosa (O₂). Funciona mediante fotosíntesis, utilizando CO₂ capturado de la atmósfera marciana o del hábitat, luz (inicialmente solar, luego apoyada por LEDs) y una solución mineral controlada. Cuenta con sensores de pH, temperatura y nutrientes, y un sistema de control autónomo que permite la recirculación de gases y el ajuste automático de condiciones óptimas. El oxígeno producido se libera al hábitat tras un proceso de purificación, mientras que la biomasa generada se cosecha como alimento comestible. Su diseño modular y autónomo lo hace compatible con hábitats presurizados y sistemas de conexión tipo túnel
3D Model