Electrostimulation in an autonomous culture lab-on-chip provides neuroprotection of a retinal explant from a retinitis pigmentosa mouse-model

•An autonomous culture system for electrostimulate organotypic cultures is presented.•The integration of microfluidic platforms together with sensors and actuators parts has been carried out successfully.•A protective effect on photoreceptor cell death in RP mouse retinal explants has been achieved....

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Published inSensors and actuators. B, Chemical Vol. 288; pp. 337 - 346
Main Authors Cabello, Miguel, Mozo, Marta, la Cerda, Berta De, Aracil, Carmen, Diaz-Corrales, Francisco J., Perdigones, Francisco, Valdes-Sanchez, Lourdes, Relimpio, Isabel, Bhattacharya, Shom S., Quero, Jose Manuel
Format Journal Article
LanguageEnglish
Published Lausanne Elsevier B.V 01.06.2019
Elsevier Science Ltd
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Online AccessGet full text
ISSN0925-4005
1873-3077
DOI10.1016/j.snb.2019.02.118

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Abstract •An autonomous culture system for electrostimulate organotypic cultures is presented.•The integration of microfluidic platforms together with sensors and actuators parts has been carried out successfully.•A protective effect on photoreceptor cell death in RP mouse retinal explants has been achieved. In this paper an autonomous culture system with the capability to electrostimulate organotypic cultures is described, and its utility is demonstrated by the neuroprotection achieved in retinal explants. The system is composed of a lab-on-chip (LOC), an electronic circuit and a data acquisition device. The LOC, in which the culture takes place, includes a microelectrode array (MEA), consisting of a PCB with a group of gold microelectrodes embedded in polydimethylsiloxane (PDMS), a microheater, a thermistor and a microfluidic circuit made of thermoplastic for feeding with culture medium. A plug made of PDMS has been included to facilitate the assembly of the culture LOC, the placement of the mouse retinas inside the MEA and the flow of culture medium. The transparency of the PDMS permits optical applications and a real time monitoring. An electronic circuit allows for a close monitoring of the experiment using a LabVIEW software specifically developed for this setting, including temperature control, heating and electrostimulation. In the experimental conditions, the retinal explants from retinitis pigmentosa mouse-models are dissected the day before neurodegeneration starts, when photoreceptor cell death is expected to progress along the following days, and cultured inside the LOC, using a fluorophore as a live-dead marker. The stimulation is a biphasic square signal of 0.5 Vpp and it is applied for five minutes every other day. Unstimulated RP explants and healthy retinas are used as controls. After seven days, a histological study is performed. We have demonstrated the applicability of this system as an organotypic culture LOC to test the effect of electrostimulation in retinal explants from different mouse models, and found a protective effect on photoreceptor cell death in the conditions tested.
AbstractList In this paper an autonomous culture system with the capability to electrostimulate organotypic cultures is described, and its utility is demonstrated by the neuroprotection achieved in retinal explants. The system is composed of a lab-on-chip (LOC), an electronic circuit and a data acquisition device. The LOC, in which the culture takes place, includes a microelectrode array (MEA), consisting of a PCB with a group of gold microelectrodes embedded in polydimethylsiloxane (PDMS), a microheater, a thermistor and a microfluidic circuit made of thermoplastic for feeding with culture medium. A plug made of PDMS has been included to facilitate the assembly of the culture LOC, the placement of the mouse retinas inside the MEA and the flow of culture medium. The transparency of the PDMS permits optical applications and a real time monitoring. An electronic circuit allows for a close monitoring of the experiment using a LabVIEW software specifically developed for this setting, including temperature control, heating and electrostimulation. In the experimental conditions, the retinal explants from retinitis pigmentosa mouse-models are dissected the day before neurodegeneration starts, when photoreceptor cell death is expected to progress along the following days, and cultured inside the LOC, using a fluorophore as a live-dead marker. The stimulation is a biphasic square signal of 0.5 Vpp and it is applied for five minutes every other day. Unstimulated RP explants and healthy retinas are used as controls. After seven days, a histological study is performed. We have demonstrated the applicability of this system as an organotypic culture LOC to test the effect of electrostimulation in retinal explants from different mouse models, and found a protective effect on photoreceptor cell death in the conditions tested.
•An autonomous culture system for electrostimulate organotypic cultures is presented.•The integration of microfluidic platforms together with sensors and actuators parts has been carried out successfully.•A protective effect on photoreceptor cell death in RP mouse retinal explants has been achieved. In this paper an autonomous culture system with the capability to electrostimulate organotypic cultures is described, and its utility is demonstrated by the neuroprotection achieved in retinal explants. The system is composed of a lab-on-chip (LOC), an electronic circuit and a data acquisition device. The LOC, in which the culture takes place, includes a microelectrode array (MEA), consisting of a PCB with a group of gold microelectrodes embedded in polydimethylsiloxane (PDMS), a microheater, a thermistor and a microfluidic circuit made of thermoplastic for feeding with culture medium. A plug made of PDMS has been included to facilitate the assembly of the culture LOC, the placement of the mouse retinas inside the MEA and the flow of culture medium. The transparency of the PDMS permits optical applications and a real time monitoring. An electronic circuit allows for a close monitoring of the experiment using a LabVIEW software specifically developed for this setting, including temperature control, heating and electrostimulation. In the experimental conditions, the retinal explants from retinitis pigmentosa mouse-models are dissected the day before neurodegeneration starts, when photoreceptor cell death is expected to progress along the following days, and cultured inside the LOC, using a fluorophore as a live-dead marker. The stimulation is a biphasic square signal of 0.5 Vpp and it is applied for five minutes every other day. Unstimulated RP explants and healthy retinas are used as controls. After seven days, a histological study is performed. We have demonstrated the applicability of this system as an organotypic culture LOC to test the effect of electrostimulation in retinal explants from different mouse models, and found a protective effect on photoreceptor cell death in the conditions tested.
Author Cabello, Miguel
la Cerda, Berta De
Perdigones, Francisco
Diaz-Corrales, Francisco J.
Aracil, Carmen
Mozo, Marta
Quero, Jose Manuel
Relimpio, Isabel
Bhattacharya, Shom S.
Valdes-Sanchez, Lourdes
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Keywords Retinitis-Pigmentosa
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Snippet •An autonomous culture system for electrostimulate organotypic cultures is presented.•The integration of microfluidic platforms together with sensors and...
In this paper an autonomous culture system with the capability to electrostimulate organotypic cultures is described, and its utility is demonstrated by the...
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SubjectTerms Apoptosis
Cell death
Circuit boards
Circuits
Culture
Electronic circuits
Electrostimulation
Gold
Lab-on-a-chip
Lab-on-chip
Micro-incubator
Microelectrodes
Microfluidics
Monitoring
Neuroprotection
Organotypic-culture
Photoreceptors
Polydimethylsiloxane
Printed circuits
Retina
Retinitis-Pigmentosa
Silicone resins
Temperature control
Thermistors
Title Electrostimulation in an autonomous culture lab-on-chip provides neuroprotection of a retinal explant from a retinitis pigmentosa mouse-model
URI https://dx.doi.org/10.1016/j.snb.2019.02.118
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Volume 288
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