The fully automatic microbial growth curve analyzer is a microbial automation research instrument that integrates photoelectric detection, temperature control oscillation cultivation, and automatic recording functions. The instrument can achieve online monitoring and cultivation of various microorganisms (bacteria, fungi, yeast, bacteriophages, amoebas, cells, algae, etc.). During the monitoring and cultivation process, the instrument records the absorbance signal of the culture medium in the sample pool in real time, providing a basis for drawing the growth curve of the sample. The application of this instrument can relieve microbial researchers from heavy physical labor when measuring microbial growth curves, avoid staying up late for sampling, and save a lot of experimental consumables (culture medium, sample dishes, etc.), which has significant practical value
| model |
Scientz-WSQ |
Scientz-WSQ/A
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| Light source lifespan |
20000 hours |
20000 hours |
| Number of channels |
36 channels |
36 channels |
| Adapt to the type of bacterial strain |
Anaerobic and aerobic microorganisms |
Anaerobic and aerobic microorganisms |
| Detection time interval |
5-360 minutes can be set |
5-360 minutes can be set |
| OD600 range |
0-5 |
0-5 |
| Measurement band |
600nm |
600nm |
| temperature range |
4-60℃ |
4-60℃ |
| Speed range |
20-250rpm/min |
20-250rpm/min |
Cultivation volume |
2ml-10ml |
400μl-4ml |
| Cultivation time |
1600 hours |
1600 hours |
| Permission management |
Separate user and administrator permissions |
Separate user and administrator permissions |
Product Description
The fully automatic microbial growth curve analyzer is a microbial automation scientific research instrument developed to achieve online monitoring and cultivation of various microorganisms (including bacteria, fungi, yeast, bacteriophages, amoebas, cells, and algae) by utilizing the principle of turbidity method to draw microbial growth curves and integrating temperature control and shaking cultivation functions.
The use of a fully automatic microbial growth curve analyzer can free microbial researchers from tedious observation activities, avoid staying up late to record data, and save a lot of experimental consumables. It has high practical value in microbial research work such as bacterial culture, fermentation research, and drug toxicity experiments.
Wide applicability |
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Effectively liberating manpower |
It can achieve online monitoring and cultivation of various microorganisms, including bacteria, fungi, yeast, bacteriophages, amoebas, cells, algae, and more |
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1. Automatic measurement to avoid staying up late 2. Automatically draw curves to reduce complex calculations and drawings 3. Up to 36 samples can be measured at once without interfering with each other |
Measure the composite effects of different factors on microorganisms, such as pH, temperature, water activity, salinity, chemicals, etc Biological method for measuring the content of vitamins, amino acids, antibiotics, disinfectants, toxins, biostimulants, and growth inhibitors • Continuously report growth parameters in multiple cultures Optimization of biodegradation conditions for pollutants • Study the metabolic processes of microorganisms and cells • Study the growth kinetics curve of bacteriophages • Measure the number of viable microorganisms in food Research on yeast and other bacterial strains • Develop new antibacterial agents Improvement in the production process of microbial single-cell protein SCP Research on the production processes of yogurt, alcohol, food, and other products • Production of enzymes, proteins, fatty acids, or other substances • Improvement of water treatment, biofilm and activated sludge treatment processes • Study the impact of different temperatures on microbial processes • Determine the minimum inhibitory concentration of antibacterial agents • Determine the minimum lethal dose of antibiotics or other compounds • Determine the toxicity and potential mutagenicity of different substances LAL testing for endotoxins • Develop mathematical models for microbial, bacteriophage, and cell growth • Develop characteristic microorganisms • Develop selective and non selective culture media for microorganisms and cells • Detection of bacterial urine • Identification of microbial preservatives |
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Accurate process safety results |
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Save reagents and consumables |
1. Closed cultivation and testing can ensure that the samples are not contaminated and the experimental environment is safe 2. Compared to sampling detection, non sampling detection does not consume samples and results in more accurate experimental results |
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Save over 50% of reagents Save 90% of suction tips Save 100% on culture dishes |
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application area

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scientific research institution
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industrial enterprise
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Testing agency
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College of Life Sciences, Institute of Microbiology Virus Research Institute, Fermentation Research Institute School of Bioengineering, School of Pharmacy, School of Medicine Agricultural Research Institute, Food Research Institute |
Food companies, pharmaceutical companies Biological product companies |
Medical third-party testing institutions Third party food testing institutions Environmental third-party laboratory |