Smart Evaporator™ - Over 2000 units installed
The solvent evaporator for quick and easy evaporation of DMSO, DMF, and water.
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Smart Evaporator C1 - Single Channel
*CE/UL/CSA certified product |
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Specification
| Product Name | Smart Evaporator C1 |
| Heater shape ＆ size | Circle shaped, φ69 mm |
| Heater temperature range | Room temperature ~ 100℃ |
| Gas Purge | 〇 |
| Inner mouth diameter of compatible containers | φ4~32 mm (Examples of compatible containers) |
| Color | 4 colors (Sun, Squall, Sky, Grass) |
| Size (mm) | W220 x D227 x H382 (except protruded parts) |
| Weight | 4.3 kg |
| Operating environment | Temperature: 10℃~ to 40℃ Humidity: 20~80% |
*This is a CE/UL/CSA certified product. (CE Certification)
Smart Evaporator ACR1 - Single Channel for Acid Samples
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Specification
| Product Name | Smart Evaporator ACR1 |
| Heater shape ＆ size | Circle shaped, φ69 mm |
| Heater temperature range | Room temperature ~ 100℃ |
| Inner mouth diameter of compatible containers | φ4~32 mm (Examples of compatible containers) |
| Color | 1 colors (Stone) |
| Size (mm) | W205 x D150 x H379 (except protruded parts) |
| Weight | 2.1 kg |
Smart Evaporator K4 - Bump-Free 4 Channel Evaporator
*CE/UL/CSA certified product |
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Specification
| Product Name | Smart Evaporator K4 |
| Heater shape ＆ size | Rectangle shaped, W226 x D55 x H58 mm |
| Heater temperature range | Room temperature to 100℃ |
| Inner mouth diameter of compatible containers | φ4~32 mm (Examples of compatible containers) |
| Color | 1 colors (Sun) |
| Size (mm) | W340 x D156 x H414.2 (except protruded parts) |
| Weight | 4.8 kg |
| Operating environment | Temperature: 10℃~ to 40℃ Humidity: 20~80% |
*This is a CE/UL/CSA certified product. (CE Certification)
Smart Evaporator MT8 - 8-channel Evaporator for microtubes
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Specification
| Product Name | Smart Evaporator MT8 |
| Heater shape ＆ size | Round shaped, φ 68.5 mm |
| Heater temperature range | Room temperature to 60℃ |
| Gas Purge | 〇 |
| Size of container | 1.5/5.0 mL microtube (designed using Eppendorf products as standard |
| Color | 1 color (Aqua) |
| Size (mm) | W188 (252) x D255 (304) x H585 |
| Weight | 11.3 kg |
| Pump | Contained within main unit |
| Flow | Max. 60 L/min |
| Power source | Single phase 100V |
Smart Evaporator C10 - Bump-Free 10 Channel Evaporator
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Specification
| Product Name | Smart Evaporator C10 |
| Heater shape ＆ size | solid vial holder with 10 holes (available in 3 sizes: φ11.7mm/ φ18mm/ φ27mm) |
| Heater temperature range | Room temperature to 100℃ |
| Color | 4 colors (Sun, Squall, Sky, Grass) |
| Size (mm) | W350 x D300 x H531 (except protruded parts) |
| Weight | 20.0 kg |
| Operating environment | Temperature: 10℃~ to 40℃ Humidity: 20~80% |
*This is a CE/UL/CSA certified product.
Why Smart Evaporator
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DMSO / DMF / water Evaporator
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Bump Free Technology
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In Vial Evaporation
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The Smart Evaporator enables efficient evaporation of high boiling point solvents. With the inert gas purging feature (ex. nitrogen), it’s great for drying down solvents such as DMSO, DMF and water.
(inert gas recommended).
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The novel Spiral Plug technology generates a helical flow of air or inert gas over the surface of your solvent, thereby increasing the surface area. Since the vial isn’t under high vacuum, there is no risk of bumping or splashing.
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The Spiral Plugs come in various sizes for compatibility with many different sample tubes, flasks, and vials. Coupled with a quick release, the Spiral Plugs are easily exchangeable between different sizes.
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Why can DMSO be removed?
Smart Evaporator's VVC method, Vacuum Vortex Concentration, makes it possible to remove DMSO. The spiral airflow created by the special concentrator plug "Spiral Plug" supports rapid solvent removal.
Principle of Vacuum Vortex Concentration
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1. Vacuum suction with a pump Vacuum suction is initiated by a vacuum pump in the same way as in conventional rotary evaporators. 2. Gas influx through a spiral slit on a Spiral Plug The Spiral Plug has a special groove (slit) carved on it. When the vacuum pump starts suctioning, the gas from the surrounding air passes through the slit and flows into the container. 3. Generating spiral air flow The inflowing gas spirals inside the vessel, creating an airflow inside the vessel. 4. Increasing the contact surface area between liquid and gas The generated spiral air flow agitates the sample in the vessel. Then the surface area of the agitated sample increases. 5. Promoting solvent volatilization This is a special technique in which volatilization is promoted by the increase of surface area caused by the spiral airflow. |
Evaporation speed chart
The following is an example of the evaporation speed at which 5 mL of DMSO or DMF is evaporated in a 20 mL vial. DMSO, which is difficult to evaporate easily, can be evaporated in just over 3 hours. (*Data obtained with gas replacement)
| Solvent / Quantity | Suction Flow Rate | 40ºC | 70ºC |
| Water / 5 mL (20 mL vial) | 29-30 L/min | 49 min. | 28 min. |
| DMF / 5 mL (20 mL vial) | 20-30 L/min | 43 min. | 24 min. |
| DMSO / 5 mL (20 mL vial) | 23-30 L/min | 195 min. | 69 min. |
| NMP / 5 mL (20 mL vial) | 25-30 L/min | N/A | 71 min. |
Publication
2023
Peroxide-Initiated Hydrophosphinylation of gem-Difluoroalkenes
Andrew J. Intelli, Ryan T. Lee, and Ryan A. Altman
J. Org. Chem. Published online 22 September 2023
Ryoya Tozaka, Katsumi Tachi, Yukako Hayashi, Yukari Tsumura
Published online 20 April 2023 in J-STAGE
* The title and abstract are in English, but the article is in Japanese.
Dylan Kairuz, Nazia Samudh, Abdullah Ely, Patrick Arbuthnot and Kristie Bloom
Pharmaceutics 2023, 15(4), 1173
Wan-Ying Huang, Akihisa Otaka, Satoshi Fujita & Tetsuji Yamaoka
Polymer Journal (2023)
2022
Investigation of the Effect of Turn Residues on Tetrapeptide Aldol Catalysts with β-Turn Propensity
Albert Y. Liu, Xavier A. Calicdan, Gene N. Glover, Xue Luo, Gage T. Barroso, Brooke K. Hoppe, Kelsey M. Boyle, and Leah S. Witus
ACS Omega 2022
Heather V. Graham, Jamie E. Elsila, Jason P. Dworkin, Scott A. Sandford and Jose C. Aponte
Life 2022, 12(9), 1368
Genomic and physiological analysis of C50 carotenoid-producing novel Halorubrum ruber sp. nov.
Chi Young Hwang, Eui-Sang Cho, Won Jong Rhee, Eunjung Kim & Myung-Ji Seo
Journal of Microbiology (2022)
Dry mixing of cathode composite powder for all-solid-state batteries using a high-shear mixer
Eiji Hayakawa, Hideya Nakamura, Shuji Ohsaki, Satoru Watano
Advanced Powder Technology, Volume 33, Issue 8, August 2022, 103705
Electrodialytic Universal Synthesis of Highly Pure and Mixed Ionic Liquids
Md. Aminul Haque, Kei Toda, and Shin-Ichi Ohira
ACS Omega 2022
Solid electrolyte/graphite composite particle for an all-solid-state lithium-ion battery
Motoshi Iwao, Risa Sakurai, Hideya Nakamura, Eiji Hayakawa, Shuji Ohsaki, Satoru Watano
Advanced Powder Technology Volume 33, Issue 7, July 2022, 103633
NAOTO URANO, AYA MATSUSHIMA, SHIONE YAMAMOTO, RINTARO ENDO, MASAMI ISHIDA, MASAHIKO OKAI, TOSHINORI TAKEI, MASACHIKA TAKASHIO
Biocontrol Science, 2021 Volume 26 Issue 4 Pages 217-219
* The RAPID EXTEST Single Flex G2 concentrator mentioned in this publication is an older model of the Smart Evaporator.
2021
Chae EunSon, Sung-SeenChoi
International Journal of Mass Spectrometry Volume 471, January 2022, 116761
Mika Hirose, Toyoaki Kobayashi, Nao Tanaka, Ayame Mikagi, Hiroshi Wachi, Yuki Mizutani, Toyonobu Usuki
Bioorganic & Medicinal Chemistry Volume 52, 15 December 2021, 116519
Mechanisms of specific systemic response in wheat plants under different locally acting heat stimuli
Maxim Mudrilov, Maria Ladeynova, Ekaterina Berezina, Marina Grinberg, Anna Brilkina, Vladimir Sukhov, Vladimir Vodeneev
Journal of Plant Physiology Volumes 258–259, March–April 2021, 153377
2020
In situ formation of photoactive B-ring reduced chlorophyll isomer in photosynthetic protein LH2
Yoshitaka Saga, Yuji Otsuka, Daichi Funakoshi, Yuto Masaoka, Yu Kihara, Tsubasa Hidaka, Hiroka Hatano, Hitoshi Asakawa, Yutaka Nagasawa & Hitoshi Tamiaki
Scientific Reports volume 10, Article number: 19383 (2020)
Maria Ladeynova, Maxim Mudrilov, Ekaterina Berezina, Dmitry Kior, Marina Grinberg, Anna Brilkina, Vladimir Sukhov and Vladimir Vodeneev
Plants 2020, 9(10), 1364
Performance of Two Different Techniques to Concentrate Samples for Bioaerosol Quantification
Hyeon-Ju Oh , Taewon T. Han and Gediminas Mainelis
Atmosphere 2020, 11(5), 504
Ion Mobility – Mass Spectrometry Methods for Studying Membrane Proteins.
Sarah M. Fantin.
DEEP BLUE(University of Michigan). 2020