Temperature-Controlled Degasser
TEL:18925129293
Temperature‑Controlled Vacuum Mixing‑Defoaming Machine SIE‑MIX90WK
Dual‑mode Precise Temperature Control · Synergistic Defoaming Under Vacuum Negative Pressure
1000mL Large‑capacity Dual‑cup + Cooling/Heating Temperature Control + Deep Defoaming Under Vacuum Negative Pressure
SINOS SIE‑MIX90WK is a temperature‑controlled vacuum mixing‑defoaming machine developed for pilot‑scale production of temperature‑sensitive materials, equipped with 1000mL large‑capacity dual cups. Combined heating/cooling temperature control, ‑98kPa vacuum and revolution‑rotation dual‑power mixing realize one‑step completion of mixing, temperature control and defoaming.
✓ CE Certification ✓ ISO9001 Quality System ✓ RoHS Compliance ✓ Customizable Voltage (110V/220V)
Why Must Microbubbles in Materials Be Eliminated?
Residual microbubbles in materials directly affect the yield and performance of end‑products.
Pharmaceutical IndustryBubbles in medicinal gels, sustained‑release preparations and injectable colloids compromise dosage accuracy, release rate and medication safety. Most pharmaceutical materials are heat‑sensitive; excessive temperature may cause activity reduction or degradation. Temperature‑controlled defoaming is critical to guarantee pharmaceutical quality. | Cosmetics IndustryBubbles in lotions, creams and hair dyes impair texture fineness, color uniformity and extrusion consistency. Cosmetic emulsification systems are temperature‑sensitive. Temperature‑controlled mixing‑defoaming serves as an important measure to secure emulsification stability. | New Energy IndustryBubbles in lithium‑ion battery cathode slurries, fuel‑cell catalyst slurries and supercapacitor electrode slurries bring about uneven coating, catalyst‑layer defects and decreased electrode density. Heat generated during battery‑slurry mixing alters rheological properties. Temperature‑controlled mixing‑defoaming stabilizes the slurry temperature window. |
✨ Traditional mixing dilemmas: manual mixing entraps air, static defoaming is time‑consuming, and ordinary vacuum only removes surface bubbles, failing to eliminate internal microbubbles effectively. Conventional equipment lacks temperature‑control function; heating tends to degrade heat‑sensitive materials. The temperature‑controlled planetary mixing solution separates bubbles while mixing via centrifugal force. Combined with vacuum negative pressure and precise temperature control, it completes mixing, temperature regulation and defoaming in one step.
Why Choose SIE‑MIX90WK
Three Core Advantages Cover Full‑process Requirements for Temperature‑Controlled Vacuum Defoaming
Dual‑mode Temperature Control for Full‑process CoverageMIX90WK supports dual‑mode temperature control: normal‑to‑heat and normal‑to‑cool for precise material temperature adjustment. Heating reduces viscosity, accelerates powder dispersion and promotes resin melting. Cooling suppresses thermal degradation, manages exothermic reactions and minimizes volatilization loss. One machine covers two types of process scenarios. | Synergistic Vacuum‑assisted Temperature‑controlled DefoamingStandard‑equipped ‑98kPa vacuum system. Negative pressure lowers pressure difference inside‑outside bubbles to expand and release deep‑layer microbubbles. Vacuum cooperates with temperature control: bubbles discharge more easily after heating‑induced viscosity reduction; vacuum compensates defoaming efficiency during cooling, delivering stable performance across various temperature conditions. | Large‑capacity Temperature‑controlled Production Platform1000mL dual‑cup configuration, 0‑2000rpm wide‑range speed adjustment, fixed speed ratio ensures batch‑to‑batch consistency for pilot scale‑up and small‑batch production. 100‑recipe memory enables fast product switching; programmed operation reduces manual errors. 153kg rigid frame guarantees stable long‑hour operation. |
✨ MIX90WK is suitable for pilot‑scale production and vacuum temperature‑controlled defoaming of temperature‑sensitive materials such as pharmaceuticals, cosmetics and battery materials.
Working Principle
Revolution‑rotation dual‑power synchronous operation, combined with deep defoaming under vacuum negative pressure and precise temperature regulation via dual‑mode temperature control, realizes one‑step completion of mixing, temperature control and defoaming.
Step 1: Centrifugal Force Generated by Revolution High‑speed rotation of the revolution disc generates centrifugal force to drive full‑range material convection for macro‑mixing, meanwhile pushing bubbles toward the axis for escape. The temperature‑control system runs synchronously to keep materials within target temperature range. Step 2: Shear Force Provided by Rotation Container rotation produces shear force to break agglomerated particles for micro‑dispersion. Fixed speed ratio ensures high‑efficiency full‑range mixing. Shear force thins bubble walls to accelerate bubble rupture. No stirring paddles contact materials to reduce contamination risks. Step 3: Deep Defoaming Under Vacuum Negative Pressure The vacuum system activates to build negative‑pressure environment, lowering pressure difference inside and outside bubbles so deep‑layer microbubbles expand and escape.‑98kPa vacuum degree adapts to materials of various viscosities, continuous gas extraction improves material density. Step 4: Precise Material Condition Adjustment via Temperature Control The temperature‑control system works throughout the whole process. Normal‑to‑heat or normal‑to‑cool modes are optional: heating reduces viscosity to improve fluidity and speed up bubble discharge; cooling suppresses thermal degradation and controls exothermic reactions. Temperature control runs synchronously with mixing‑defoaming with independent temperature‑adjustment procedures omitted. Inside sealed containers, materials go through the full workflow of "Mixing → Dispersion → Vacuum Defoaming → Temperature Regulation", finishing temperature‑controlled vacuum defoaming in one single step. |  |
Technical Specifications
Complete Technical Specifications Overview, Customizable on Demand
| Model | SIE‑MIX90WK |
| Mixing Capacity | 0–1000 mL (standard container) * Larger volume customizable |
| Container Type | Test tube / jar / cup; adapters for syringes and cartridges supported |
| Container Quantity | 1 or 2 jars (user‑selectable) |
| Max Speed | 0 – 2000 RPM (stepless adjustable) |
| Temperature‑control Mode | Ambient‑to‑heat / Ambient‑to‑cool (dual‑mode optional) |
| Vacuum Degree | Standard: –98 kPa / Optional: –100 kPa |
| Control System | Touch screen, 100‑recipe parameter storage |
| Power Supply | 220V, 50/60Hz (110V US/JP standard customizable) |
| Dimension(W×D×H) | 610 × 560 × 780 mm |
| Net Weight | 153 kg |
| Certifications | CE, ISO9001, RoHS Compliance |
我们的合作伙伴
深受全球知名工业制造集群及前沿高校实验室信赖
FAQ 您关心的问题
为您解答关于产品性能及日常工艺选型中的常见疑问
-
真空脱泡搅拌机是什么？用于哪些行业？
真空脱泡搅拌机是在真空环境下同步完成搅拌与脱泡的设备，脱泡同时混料，避免二次气泡混入，常用于环氧树脂、硅胶、AB 胶等高粘度材料的混料脱泡处理，广泛应用于新能源电池、半导体封装、LED、电子灌封、胶粘剂等行业。
-
广州施诺斯主要生产哪些设备？
主要产品包括搅拌脱泡机、真空脱泡搅拌机、真空脱泡机、高压脱泡机、真空搅拌机、实验室均质机、三辊研磨机、三维混粉机，以及点胶机、分装机等配套设备和夹具、搅拌罐、针筒等辅品耗材。
-
源头厂家采购脱泡设备有什么优势？
源头厂家直供可省去中间环节，价格更透明，同时能提供参数定制、来料试机、工艺验证等服务，售后响应更直接。
-
搅拌脱泡机的工作原理？
施诺斯设备采用行星式混合原理：料罐在自转的同时绕公转轴公转，物料在罐内随之翻动混合，同时抽真空脱泡。整个过程设备不设搅拌桨，搅拌部件不接触物料，不会引入金属异物，混合均匀不分层。
-
为什么选择施诺斯？
施诺斯（SIENOX）是广州施诺斯科技股份有限公司旗下品牌，2014 年成立，专注脱泡机与搅拌机的研发与制造，团队自 2006 年起从事真空搅拌脱泡设备研发。设备采用非接触式设计，不设搅拌桨，行星式公转加自转运动辅以真空系统，高效除泡，混合均匀不分层。公司产品涵盖搅拌脱泡机、真空脱泡搅拌机、真空脱泡机、高压脱泡机、真空搅拌机、实验室均质机、三辊研磨机、三维混粉机，以及点胶机、分装机等配套设备和夹具、搅拌罐、针筒等辅品耗材，广泛应用于新能源、半导体、LED、电子灌封、胶粘剂、涂料、油墨等行业。通过 ISO9001、CE 认证，拥有 30 余项专利，服务富士康、比亚迪、清华大学等企业与科研院所。
Technical Specification List
Compare Models in the Same Series for Accurate Selection
| Model | SIE‑MIX90WK | SIE‑MIX1000WK | SIE‑MIX2000WK |
| Mixing Capacity | 0–1000 mL (standard container) * Customizable | 0–1000 mL (standard container) * Customizable | 0–2000 mL (standard container) * Customizable |
| Container Type | Test tube / jar / cup; adapters for syringes and cartridges supported | Test tube / jar / cup; adapters for syringes and cartridges supported | Test tube / jar / cup; adapters for syringes and cartridges supported |
| Container Quantity | 1 or 2 jars (user‑selectable) | 1 or 2 jars (user‑selectable) | 1 or 2 jars (user‑selectable) |
| Max Speed | 0 – 2000 RPM (stepless adjustable) | 0 – 2000 RPM (stepless adjustable) | 0 – 2000 RPM (stepless adjustable) |
| Temperature‑control Mode | Ambient‑to‑heat / Ambient‑to‑cool (dual‑mode optional) | Ambient‑to‑heat / Ambient‑to‑cool (dual‑mode optional) | Ambient‑to‑heat / Ambient‑to‑cool (dual‑mode optional) |
| Vacuum Degree | Standard: –98 kPa / Optional: –100 kPa | Standard: –98 kPa / Optional: –100 kPa | Standard: –98 kPa / Optional: –100 kPa |
| Control System | Touch screen, 100‑recipe parameter storage | Touch screen, 100‑recipe parameter storage | Touch screen, 100‑recipe parameter storage |
| Power Supply | 220V, 50/60Hz (110V US/JP standard customizable) | 220V, 50/60Hz (110V US/JP standard customizable) | 220V, 50/60Hz (110V US/JP standard customizable) |
| Dimension(W×D×H) | 610 × 560 × 780 mm | 820 × 610 × 760 mm | 1100 × 780 × 880 mm |
| Net Weight | 153 kg | 165 kg | 225kg |
***The above are typical models only. Customized solutions are available according to customer‑specific requirements.
Multi‑Industry Solutions
Only partial application scenarios are shown. Free sample testing with your materials is welcome.
Battery IndustryLithium‑ion battery cathode slurries, anode slurries, electrolytes, diaphragm coating liquids, conductive slurries |
Chemical IndustryResin solutions, reactive adhesives, catalyst slurries, functional coating liquids |
Research & AcademiaLab‑grade slurries, formula‑development samples, new‑material research slurries, comparative test samples |
Silicone IndustryThermal‑conductive greases, silicone mixtures, silicone resins, silane coupling agents |
3D Printing IndustryPhotosensitive resins, functional inks, ceramic slurries, composite prepregs |
Polyurethane IndustryPolyurethane casting compounds, foaming slurries, elastomer prepolymers, adhesives |
Comprehensive Equipment Operation Demo Videos
Gain intuitive, clear, dynamic insight into synchronous defoaming with planetary centrifugal force and high negative pressure.
Measured Defoaming‑Process Performance
Completely Eliminate Material Bubbles, Voids and Stratification
Substrate + Filler |
Epoxy Resin |
Silicone Rubber |
AB Glue |
Glue + Powder |
Epoxy Resin + Powder |
Measured Data Comparison
Material Defoaming Effect Comparison Before & After
| Material Type | Status Before Treatment | After MIX90ZK Treatment |
| Sustained‑release Microsphere Slurry for Pharmaceutical Use | Dense internal bubbles, approx. 8% microsphere agglomeration rate, large sustained‑release deviation | Bubbles eliminated, uniformly dispersed microspheres, agglomeration rate |
| Emulsified Cream Base | Numerous bubbles in emulsified system, poor centrifugal stability, broad particle‑size distribution | Bubbles eliminated, qualified centrifugal stability, narrow particle‑size distribution |
| Lithium‑ion Battery Cathode Slurry | Plenty of internal bubbles, approx. 6% coating pinhole rate, large thickness deviation | Bubbles eliminated, coating pinhole rate, uniform thickness |
* Internal laboratory test data. Actual improvement varies with material formulations. Contact sales for real‑world customer cases.
Customer Delivery & Application Cases
Rooted in manufacturing frontlines, empowering benchmark production lines and key national research institutions across diverse industries.
