A pack of 3 enhanced oil recovery (EOR) chips with topconnect interface to be used with the Micronit Fluidic Connect Pro chip holder. This chip is used to verify calculation models by providing an optically clear rock model with known geometrical patterns.
Available uncoated or with a hydrophobic coating, with 3 network designs.
General
This enhanced oil recovery (EOR) chip from Micronit provides an accurate and optically clear substitute of rock to verify calculation models. This Micronit chip offers the following features:
- Manufactured from high-quality borosilicate glass, inert to most chemicals and biocompatible
- Precision-etched microfluidic channels for reproducible results
- Uncoated (hydrophilic) or coated* (hydrophobic)
*coating is applied on a best-effort base, some areas where geometries are not interconnected may remain uncoated.
Micronit EOR chips are available in 3 designs:
PHYSICAL ROCK NETWORK
This chip is designed by randomly placing rock-shaped structures on the chip to resemble the shape that is obtained by cutting rock as accurately as possible. This random structure results in throats and channels between the rock structures. This method of random placement does not give information on throat size distribution.
For simulation purposes, the mask (2D) design is available on request. However, experience has taught us that the complexity of this structure makes it challenging to run computer simulations on.
RANDOM NETWORK
Random network porous structure chip, often used for Chemical Enhanced Oil Recovery (CEOR) and Microbial Enhanced Oil Recovery (MEOR) experiments.
UNIFORM NETWORK
A systematically organized and well-defined rock-pore structure of equally sized pores and channels.
Content
3x Enhanced oil recovery chips - topconnect
Specifications
02976 | 01954 | 02977 | 02199 | 02978 | 02198 | |
Network type | Physical rock | Random | Uniform | |||
Hydrophobic coating | No | Yes | No | Yes | No | Yes |
Chip material | Borosilicate glass | |||||
Interface type | Topconnect | |||||
Housing & dimensions | Supplied in a black polymer cartridge with an external dimension of 75 x 25mm. The functional glass element has a size of 45x15mm. | |||||
Chip thickness | 1800 µm | |||||
Channel height | 20 µm | |||||
Inlets / outlets | 2 / 1 | |||||
Compatible holder | Fluidic Connect Pro |
*optional coating is applied on a best-effort base, it is possible that some areas where geometries are not interconnected will stay uncoated
For pressures below 5 bar, use the Fluidic Connect Pro chip holder. For pressures between 5 and 80 bar, use the Fluidic Connect 4515 chip holder.
Documentation
?Enhanced oil recovery chips additional information
Amoyav, B., & Benny, O. (2018). Controlled and tunable polymer particles’ production using a single microfluidic device. Applied Nanoscience, 8(4), 905-914. https://doi.org/10.1007/s13204-018-0790-0
Lucio, A. A., Mongera, A., Shelton, E., Chen, R., Doyle, A. M., & Campàs, O. (2017). Spatiotemporal variation of endogenous cell-generated stresses within 3D multicellular spheroids. Scientific reports, 7(1), 1-11. https://doi.org/10.1038/s41598-017-12363-x
A pack of 3 enhanced oil recovery (EOR) chips with topconnect interface to be used with the Micronit Fluidic Connect Pro chip holder. This chip is used to verify calculation models by providing an optically clear rock model with known geometrical patterns.
Available uncoated or with a hydrophobic coating, with 3 network designs.
General
This enhanced oil recovery (EOR) chip from Micronit provides an accurate and optically clear substitute of rock to verify calculation models. This Micronit chip offers the following features:
- Manufactured from high-quality borosilicate glass, inert to most chemicals and biocompatible
- Precision-etched microfluidic channels for reproducible results
- Uncoated (hydrophilic) or coated* (hydrophobic)
*coating is applied on a best-effort base, some areas where geometries are not interconnected may remain uncoated.
Micronit EOR chips are available in 3 designs:
PHYSICAL ROCK NETWORK
This chip is designed by randomly placing rock-shaped structures on the chip to resemble the shape that is obtained by cutting rock as accurately as possible. This random structure results in throats and channels between the rock structures. This method of random placement does not give information on throat size distribution.
For simulation purposes, the mask (2D) design is available on request. However, experience has taught us that the complexity of this structure makes it challenging to run computer simulations on.
RANDOM NETWORK
Random network porous structure chip, often used for Chemical Enhanced Oil Recovery (CEOR) and Microbial Enhanced Oil Recovery (MEOR) experiments.
UNIFORM NETWORK
A systematically organized and well-defined rock-pore structure of equally sized pores and channels.
Content
3x Enhanced oil recovery chips - topconnect
Specifications
02976 | 01954 | 02977 | 02199 | 02978 | 02198 | |
Network type | Physical rock | Random | Uniform | |||
Hydrophobic coating | No | Yes | No | Yes | No | Yes |
Chip material | Borosilicate glass | |||||
Interface type | Topconnect | |||||
Housing & dimensions | Supplied in a black polymer cartridge with an external dimension of 75 x 25mm. The functional glass element has a size of 45x15mm. | |||||
Chip thickness | 1800 µm | |||||
Channel height | 20 µm | |||||
Inlets / outlets | 2 / 1 | |||||
Compatible holder | Fluidic Connect Pro |
*optional coating is applied on a best-effort base, it is possible that some areas where geometries are not interconnected will stay uncoated
For pressures below 5 bar, use the Fluidic Connect Pro chip holder. For pressures between 5 and 80 bar, use the Fluidic Connect 4515 chip holder.
Documentation
?Enhanced oil recovery chips additional information
Amoyav, B., & Benny, O. (2018). Controlled and tunable polymer particles’ production using a single microfluidic device. Applied Nanoscience, 8(4), 905-914. https://doi.org/10.1007/s13204-018-0790-0
Lucio, A. A., Mongera, A., Shelton, E., Chen, R., Doyle, A. M., & Campàs, O. (2017). Spatiotemporal variation of endogenous cell-generated stresses within 3D multicellular spheroids. Scientific reports, 7(1), 1-11. https://doi.org/10.1038/s41598-017-12363-x