Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Bottom-Illuminated Orbital Shaker for Microalgae Cultivation

View through CrossRef
AbstractA bottom-illuminated orbital shaker designed for the cultivation of microalgae suspensions is described in this open-source hardware report. The instrument agitates and illuminates microalgae suspensions grown inside flasks. It was optimized for low production cost, simplicity, low power consumption, design flexibility, consistent, and controllable growth light intensity.The illuminated orbital shaker is especially well suited for low-resource research laboratories and education. It is an alternative to commercial instruments for microalgae cultivation. It improves on typical do-it-yourself microalgae growth systems by offering consistent and well characterized illumination light intensity. The illuminated growth area is 20 cm × 15 cm, which is suitable for three T75 tissue culture flasks or six 100 ml Erlenmeyer flasks. The photosynthetic photon flux density, is variable in eight steps (26 – 800 μmol · m−2· s−1) and programmable in a 24-hour light/dark cycle. The agitation speed is variable (0 – 210 RPM). The overall material cost is around £300, including an entry-level orbital shaker. The build takes two days, requiring electronics and mechanical assembly capabilities. The instrument build is documented in a set of open-source protocols, design files, and source code. The design can be readily modified, scaled, and adapted for other orbital shakers and specific experimental requirements.The instrument function was validated by growing fresh-water microalgaeDesmodesmus quadricaudaandChlorella vulgaris. The cultivation protocols, microalgae growth curves, and doubling times are included in this report.Specifications table
Cold Spring Harbor Laboratory
Title: Bottom-Illuminated Orbital Shaker for Microalgae Cultivation
Description:
AbstractA bottom-illuminated orbital shaker designed for the cultivation of microalgae suspensions is described in this open-source hardware report.
The instrument agitates and illuminates microalgae suspensions grown inside flasks.
It was optimized for low production cost, simplicity, low power consumption, design flexibility, consistent, and controllable growth light intensity.
The illuminated orbital shaker is especially well suited for low-resource research laboratories and education.
It is an alternative to commercial instruments for microalgae cultivation.
It improves on typical do-it-yourself microalgae growth systems by offering consistent and well characterized illumination light intensity.
The illuminated growth area is 20 cm × 15 cm, which is suitable for three T75 tissue culture flasks or six 100 ml Erlenmeyer flasks.
The photosynthetic photon flux density, is variable in eight steps (26 – 800 μmol · m−2· s−1) and programmable in a 24-hour light/dark cycle.
The agitation speed is variable (0 – 210 RPM).
The overall material cost is around £300, including an entry-level orbital shaker.
The build takes two days, requiring electronics and mechanical assembly capabilities.
The instrument build is documented in a set of open-source protocols, design files, and source code.
The design can be readily modified, scaled, and adapted for other orbital shakers and specific experimental requirements.
The instrument function was validated by growing fresh-water microalgaeDesmodesmus quadricaudaandChlorella vulgaris.
The cultivation protocols, microalgae growth curves, and doubling times are included in this report.
Specifications table.

Related Results

Illuminated Orbital Shaker for Microalgae Culture v1
Illuminated Orbital Shaker for Microalgae Culture v1
Microalgae are grown for the research on photosynthesis, biotechnology, and water-environment ecology. Specialized laboratories typically use calibrated commercial equipment, which...
Illuminated Orbital Shaker for Microalgae Culture v3
Illuminated Orbital Shaker for Microalgae Culture v3
Microalgae are grown for the research on photosynthesis, biotechnology, and water-environment ecology. Specialized laboratories typically use calibrated commercial equipment, which...
Hydatid Cyst of The Orbit: A Systematic Review with Meta-Data
Hydatid Cyst of The Orbit: A Systematic Review with Meta-Data
Abstarct Introduction Orbital hydatid cysts (HCs) constitute less than 1% of all cases of hydatidosis, yet their occurrence is often linked to severe visual complications. This stu...
Microalgae growth in industrial wastewater for the production of hydrocarbons
Microalgae growth in industrial wastewater for the production of hydrocarbons
Microalgae have demonstrated unique abilities to photosynthesise the conversion of biodegradable organic materials and inorganic carbon to value-added biomass because dissolved nit...
Improvement of Microalga Biodiesel Production Capacity
Improvement of Microalga Biodiesel Production Capacity
This research is directed at developing renewable fuel sources, which are not only environmentally friendly, but also more importantly harvested faster and not competitive with agr...
BIOREFINERY OF MICROALGAE: THE WORLD’S GREEN GEM FOR THE FUTURE SUSTAINABLE DEVELOPMENT
BIOREFINERY OF MICROALGAE: THE WORLD’S GREEN GEM FOR THE FUTURE SUSTAINABLE DEVELOPMENT
Article Highlights:- Integrated biorefinery provides economic and environmental benefits- Microalgae produce higher lipid content than plants- Generally, microalgae produce higher ...
Exploration for Spatial Sustainability of Microalgae Façades Based on Mock-Up Cultivation Settings
Exploration for Spatial Sustainability of Microalgae Façades Based on Mock-Up Cultivation Settings
Microalgae are third-generation biomasses that can be used to extract bio-fuel with various advantages from an ecological perspective. In addition, since it is cultivated in an und...
Microalgae biofuels: illuminating the path to a sustainable future amidst challenges and opportunities
Microalgae biofuels: illuminating the path to a sustainable future amidst challenges and opportunities
AbstractThe development of microalgal biofuels is of significant importance in advancing the energy transition, alleviating food pressure, preserving the natural environment, and a...

Back to Top