MEA2100-Systems

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Overview

MEA Technology

New to microelectrode array (MEA) in vitro technology?

Get an overview of the technical basics and suitable applications on our site about MEA solutions.

The MEA2100-System is the most versatile in vitro recording system from Multi Channel Systems. You can record from neuronal or cardiac cultures, stem cells, or brain or cardiac slices.

It is based on an idea from the 1970’s, when Thomas et al. found that electrical activity can be recorded extracellularly with microelectrode arrays (MEA). Over the decades, many peer-reviewed articles have proven that the MEA technology is indeed a very powerful tool in electrophysiology research and the technology around the MEA has improved significantly.

Today, the MEA2100-System is a very compact solution with integrated amplifier and stimulus generator, temperature control, and the option for real-time signal detection and feedback.

The main advantage of the MEA2100-System is its flexibility. Various headstage types facilitate the usage of different MEAs. You can record from up to 4 MEAs in parallel, all at a sampling rate of 50 kHz per channel, ensuring an excellent data quality.

For more detailed information, please click on the description tab above.

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IFB-C

As part of the system, the IFB-C multiboot is a new interface board generation which is able to receive data from a MEA2100(-Mini)-Headstage, a Multiwell-MEA-Headstage, a CMOS-MEA5000-Headstage, a MEA2100-Beta-Screen-Headstage, a ME2100-Headstage, or a W2100-Receiver. This makes cost-effective combinations with only one interface board and multiple recording systems possible. You can establish for example your experiments on 60, 120, or 256 electrodes with the MEA2100-System, then add the Multiwell-MEA-Headstage and start high-throughput screening. It's also possible to use the same interface board for in vitro MEA experiments and tethered / wireless in vivo recordings. This leaves you with even more flexibility in switching between possible configurations for your specific research needs.

Key features:

Real-time signal detection and feedback*
Freely programmable DSP*
Multiple inputs/outputs, including digital, analog, and audio
SuperSpeed USB 3.0 ports

* applicable for MEA2100(-Mini), ME2100, and W2100

60MEA100/10iR-ITO

Standard microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with 1 internal reference electrode, electrode grid 8x8, 59 recording electrodes, electrode spacing 100µm, electrode diameter 10µm, warranty: 6 months.

60MEA100/10iR-Ti

Standard Microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks opaque (TiN), with 1 internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 100, electrode diameter 10, warranty: 6 months.

60ThinMEA100/10iR-ITO

Microelectrode array with thin recording field:
180 µm thin recording area, TiN electrodes, SiN isolator, ITO conductive strips, with 1 internal reference electrode, electrode grid 8x8, 59 recording electrodes, electrode spacing 100 µm, electrode diameter 10 µm, warranty: 6 months.

60MEA200/10iR-ITO

Standard Microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 200µm, electrode diameter 10µm, warranty: 6 months.

60MEA200/10iR-Ti

Standard Microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks opaque (TiN), with internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 200µm, electrode diameter 10µm, warranty: 6 months.

60MEA200/30iR-ITO

Standard Microelectrode array:

60MEA200/30iR-Ti

Standard Microelectrode array:

60ThinMEA200/30iR-ITO

Microelectrode array with thin recording field:

180µm thin recording area, TiN electrodes, SiN isolator, ITO conductive strips, with internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

60pMEA200/30iR-Ti

Microelectrode array, perforated layout:

TiN electrodes, Polyimid isolator, contact pads and tracks opaque (TiN on glass carrier), with internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

60EcoMEA

Low priced microelectrode array:

Gold electrodes and tracks, with internal reference electrode, electrode grid 8x8, 60 electrodes, electrode spacing 700µm, electrode diameter 100µm, warranty: 6 months.

60SquareMEA200/50iR-Ti

Standard microelectrode array:
TiN electrodes (square), SiN isolator, Contact pads and tracks opaque (TiN), With 1 internal reference electrode, Electrode grid 8x8, 59 recording electrodes, Electrode spacing 200 µm, Electrode size 50 µm x 50 µm, Warranty: 6 months.

60PedotMEA200/30iR-Ti

PEDOT-CNT microelectrode array:
PEDOT-CNT electrodes, SiN isolator, Contact pads and tracks opaque (Ti-Au), with 1 internal reference electrode, electrode grid 8x8, recording electrodes, electrode spacing 200 µm, electrode diameter 30 µm, warranty: 6 months.

These electrodes feature some superior properties:

Ideally suited for stimulation
Excellent biocompatibility and cell adhesion
Reproducible low impedance

Please find more information on PEDOT-CNT microelectrode arrays in the flyer.

60MEA500/10iR-Ti

Standard Microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks opaque (TiN), with internal reference electrode, electrode grid 6x10, 60 electrodes, electrode spacing 500µm, electrode diameter 10µm, warranty: 6 months.

60MEA500/30iR-Ti

Standard Microelectrode array:

60pMEA100/30iR-Ti

Microelectrode array, perforated layout:

TiN electrodes, Polyimid isolator, contact pads and tracks opaque (TiN on glass carrier), with internal reference electrode, electrode grid 6x10, 60 electrodes, electrode spacing 100µm, electrode diameter 30µm, warranty: 6 months.

60HDMEA30/10iR-ITO

High dense Microelectrode array:

Double recording field (500µm in-between fields), TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid 2x(5x6), 60 electrodes, electrode spacing 30µm, electrode diameter 10µm, warranty: 6 months.

60ThinMEA30/10iR-ITO

Microelectrode array with thin recording field:

180µm thin recording area, TiN electrodes, SiN isolator, ITO conductive strips, with internal reference electrode, electrode grid 2x(5x6), 60 electrodes, electrode spacing 30, electrode diameter 10, warranty: 6 months.

60HexaMEA40/10iR-ITO

Microelectrode array, hexagonal layout:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid hexagonal, 60 electrodes, electrode spacing 40µm, electrode diameter 10µm, warranty: 6 months.

60-6wellMEA200/30iR-Ti

Microelectrode array with 6 recording areas, circular layout:

Tin electrodes, SiN isolator, contact pads and tracks opaque (TiN), with internal reference electrode in each area, electrode grid 3x3 in each area, 54 electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

60-4QMEA1000iR-Ti

4 quadrants microelectrode array:

TiN electrodes, SiN isolator, contact pads and tracks opaque (TiN), with internal reference electrode, electrode grid 4x (1x4 + 1x5 + 1x4) + center line 1x7, 60 electrodes, electrode spacing 200µm inside the quadrants; 1000µm between the quadrants, electrode diameter 30µm, warranty: 6 months.

120MEA30/10iR-ITO

Microelectrode array for MEA2100-HS120:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with 4 internal reference electrodes, electrode grid 12x12, 120 recording electrodes, electrode spacing 30µm, electrode diameter 10µm, warranty: 6 months

120MEA100/30iR-ITO

Microelectrode array for MEA2100-HS120:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with 4 internal reference electrodes, electrode grid 12x12, 120 recording electrodes, electrode spacing 100µm, electrode diameter 30µm, warranty: 6 months

120MEA200/30iR-Ti

Microelectrode array for MEA2100-HS120:

TiN electrodes, SiN isolator, contact pads and tracks opaque (Ti), with internal reference electrodes, electrode grid 12x12, 124 electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

120MEA1000-1500/30iR-Ti

Microelectrode array for MEA2100-HS120:

TiN electrodes, SiN isolator, contact pads and tracks opaque (Ti), with 4 internal reference electrodes, electrode grid 12x10, 120 electrodes, electrode spacing 1000 µm vertical, 1500 µm horizontal, electrode diameter 30 µm, with plastic ring with thread, warranty: 6 months.

120pMEA100/30iR-Ti

Perforated microelectrode array for MEA2100-HS120:

TiN electrodes, polyimid isolator, contact pads and tracks opaque (Ti on glass carrier), with 4 internal reference electrode, electrode grid 12x12, 120 recording electrodes, electrode spacing 100µm, electrode diameter 30µm, warranty: 6 months.

120pMEA200/30iR-Ti

Perforated microelectrode array for MEA2100-HS120:

TiN electrodes, polyimid isolator, contact pads and tracks opaque (Ti on glass carrier), with 4 internal reference electrode, electrode grid 12x12, 120 recording electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

256MEA30/8iR-ITO

Microelectrode array for USB-MEA256-System and MEA2100-HS256:
TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with 4 internal reference electrodes, electrode grid 16x16, 252 recording electrodes, electrode spacing 30µm, electrode diameter 8µm, warranty: 6 months

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256MEA60/10iR-ITO

Microelectrode array for MEA2100-HS256 and USB-MEA256-System:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid 16x16, 256 electrodes, electrode spacing 60µm, electrode diameter 10µm, warranty: 6 months.

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256MEA100/30iR-ITO

Microelectrode array for USB-MEA256-System and MEA2100-HS256:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid 16x16, 256 electrodes, electrode spacing 100µm, electrode diameter 30µm, warranty: 6 months.

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256MEA200/30iR-ITO

Microelectrode array for USB-MEA256-System and MEA2100-HS256:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrode, electrode grid 16x16, 256 electrodes, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256ThinMEA200/30iR-ITO

Microelectrode array with 256 electrodes on thin recording field for USB-MEA256-System and MEA2100-HS256:
180 µm thin recording area, TiN electrodes, SiN isolator, ITO conductive strips, with 4 internal reference electrodes, electrode grid 16x16, 252 recording electrodes, electrode spacing 200 µm, electrode diameter 30 µm, without ring, warranty: 6 months

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256-6wellMEA200/30iR-ITO

6-well microelectrode array for USB-MEA256-System and MEA2100-HS256:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with 6 internal reference electrodes, electrode grid 7x6 in each well, 252 recording electrodes and 6 internal reference electrodes, 6-well layout, 42 recording electrodes per well, electrode spacing 200µm, electrode diameter 30µm, warranty: 6 months.

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

256-9wellMEA300/30iR-ITO

9-well microelectrode array for USB-MEA256-System and MEA2100-HS256:

TiN electrodes, SiN isolator, contact pads and tracks transparent (ITO), with internal reference electrodes, electrode grid 6x5 recording + 2 stimulation electrodes in each well, 252 electrodes plus 9 internal reference electrodes, 9 well layout, 26 recording electrodes per well, electrode spacing 300µm, electrode diameter 30µm, warranty: 6 months.

Please note: Channel maps in the Multi Channel Suite software are dependent on the recording system you are using (USB-MEA256-System or MEA2100-256-System).

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Please note: Currently, our publications library includes articles up to 2021 only. Contact us for publications from 2022 – present. Contact Us

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Besser RR, Bowles AC, Alassaf A, Carbonero D, Claure I, Jones E, Reda J, Wubker L, Batchelor W, Ziebarth N, Silvera R, Khan A, Maciel R, Saporta M, Agarwal A (2019) Enzymatically Crosslinked Gelatin-Laminin Hydrogels for Applications in Neuromuscular Tissue Engineering. Acta Biomaterialia

Bubnys AV, Kandel H, Kow L-M, Pfaff DW, Tabansky I (2019) Hindbrain V2a neurons impose rhythmic activity on motor neurons in an in vitro reticulospinal circuit. bioRxiv:620674.

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Feldmann LK, Le Prieult F, Felzen V, Thal SC, Engelhard K, Behl C, Mittmann T (2019) Proteasome and Autophagy-Mediated Impairment of Late Long-Term Potentiation (l-LTP) after Traumatic Brain Injury in the Somatosensory Cortex of Mice. Int J Mol Sci 20.

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Foliaki ST, Lewis V, Islam AMT, Ellett LJ, Senesi M, Finkelstein DI, Roberts B, Lawson VA, Adlard PA, Collins SJ (2019) Early existence and biochemical evolution characterise acutely synaptotoxic PrPSc. PLoS Pathog 15:e1007712.

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Heiney K, Huse Ramstad O, Sandvig I, Sandvig A, Nichele S (2019) Assessment and manipulation of the computational capacity of in vitro neuronal networks through criticality in neuronal avalanches.

Kraushaar U, Guenther E (2019) Assay Procedures for Compound Testing of hiPSC-Derived Cardiomyocytes Using Multiwell Microelectrode Arrays. Methods Mol Biol 1994:197-208.

Liu H, Bridges D, Randall C, Solla SA, Wu B, Hansma P, Yan X, Kosik KS, Bouchard K (2019) In vitro validation of in silico identified inhibitory interactions. J Neurosci Methods 321:39-48.

Ma S, Ma J, Guo L, Bai J, Mao S, Zhang M (2019) Tongguan capsule-derived herb reduces susceptibility to atrial fibrillation by inhibiting left atrial fibrosis via modulating cardiac fibroblasts. J Cell Mol Med 23:1197-1210.

Marcuzzo S, Terragni B, Bonanno S, Isaia D, Cavalcante P, Cappelletti C, Ciusani E, Rizzo A, Regalia G, Yoshimura N, Ugolini GS, Rasponi M, Bechi G, Mantegazza M, Mantegazza R, Bernasconi P, Minati L (2019) Hyperexcitability in Cultured Cortical Neuron Networks from the G93A-SOD1 Amyotrophic Lateral Sclerosis Model Mouse and its Molecular Correlates. Neuroscience 416:88-99.

Mateus J, Lopes C, Cerquido M, Leitao L, Leitao DC, Cardoso S, Ventura J, Aguiar P (2019) Improved in vitro electrophysiology using 3D-structured microelectrode arrays with a micro-mushrooms islets architecture capable of promoting topotaxis. J Neural Eng.

Matsuo T, Sakurai M, Terada K, Uchida T, Yamashita K, Tanaka T, Takarabe K (2019) Photoelectric Dye-Coupled Polyethylene Film: Photoresponsive Properties Evaluated by Kelvin Probe and In Vitro Biological Response Detected in Dystrophic Retinal Tissue of Rats.

Meng C, Yang X, Liu Y, Zhou Y, Rui J, Li S, Xu C, Zhuang Y, Lao J, Zhao X (2019) Decreased expression of lncRNA Malat1 in rat spinal cord contributes to neuropathic pain by increasing neuron excitability after brachial plexus avulsion. J Pain Res 12:1297-1310.

Miller SJ, Philips T, Kim N, Dastgheyb R, Chen Z, Hsieh YC, Daigle JG, Datta M, Chew J, Vidensky S, Pham JT, Hughes EG, Robinson MB, Sattler R, Tomer R, Suk JS, Bergles DE, Haughey N, Pletnikov M, Hanes J, Rothstein JD (2019) Molecularly defined cortical astroglia subpopulation modulates neurons via secretion of Norrin. Nat Neurosci 22:741-752.

Park SJ, Kim RY, Park BW, Lee S, Choi SW, Park JH, Choi JJ, Kim SW, Jang J, Cho DW, Chung HM, Moon SH, Ban K, Park HJ (2019) Dual stem cell therapy synergistically improves cardiac function and vascular regeneration following myocardial infarction. Nat Commun 10:3123.

Ping Yu S, Tung JK, Wei ZZ, Chen D, Berglund K, Zhong W, Zhang JY, Gu X, Song M, Gross RE, Lin SZ, Wei L (2019) Optochemogenetics Stimulation of Transplanted iPS-NPCs Enhances Neuronal Repair and Functional Recovery after Ischemic Stroke. J Neurosci.

Rogers J, Chen F, Stanic D, Farzana F, Li S, Zeleznikow-Johnston AM, Nithianantharajah J, Churilov L, Adlard PA, Lanfumey L, Hannan AJ, Renoir T (2019) Paradoxical effects of exercise on hippocampal plasticity and cognition in mice with a heterozygous null mutation in the serotonin transporter gene. Br J Pharmacol.

Samuel B, Sarah G, Adele D, Luke T (2019) Fabrication and validation of flexible 3D pillar electrodes for neural electrophysiological recording. Engineering Research Express.

Simeonov S, Schaffer TE (2019) Ultrafast Imaging of Cardiomyocyte Contractions by Combining Scanning Ion Conductance Microscopy with a Microelectrode Array. Anal Chem.

Slavik J, Skopalik J, Provaznik I, Hubalek J (2019) Multi-Electrode Array with a Planar Surface for Cell Patterning by Microprinting. Sensors (Basel) 19.

Sohn PD, Huang CT, Yan R, Fan L, Tracy TE, Camargo CM, Montgomery KM, Arhar T, Mok SA, Freilich R, Baik J, He M, Gong S, Roberson ED, Karch CM, Gestwicki JE, Xu K, Kosik KS, Gan L (2019) Pathogenic Tau Impairs Axon Initial Segment Plasticity and Excitability Homeostasis. Neuron.

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Valderhaug VD, Glomm WR, Sandru EM, Yasuda M, Sandvig A, Sandvig I (2019) Formation of neural networks with structural and functional features consistent with small-world network topology on surface-grafted polymer particles. Royal Society Open Science 6:191086.

van de Wijdeven R, Ramstad OH, Valderhaug VD, Köllensperger P, Sandvig A, Sandvig I, Halaas Ø (2019) A novel lab-on-chip platform enabling axotomy and neuromodulation in a multi-nodal network. Biosensors and Bioelectronics 140:111329.

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Wang Y, Liu Q, Xie J, Feng R, Ma F, Wang F, Shen S, Wen T (2019) Dcf1 Affects Memory and Anxiety by Regulating NMDA and AMPA Receptors. Neurochem Res.

Wells SP, Waddell HM, Sim CB, Lim SY, Bernasochi GB, Pavlovic D, Kirchhof P, Porrello ER, Delbridge LMD, Bell JR (2019) Cardiomyocyte functional screening - interrogating comparative electrophysiology of high-throughput model cell systems. Am J Physiol Cell Physiol.

Winkelman BHJ, Howlett MH, Holzel M-B, Joling C, Fransen KH, Pangeni G, Kamermans S, Sakuta H, Noda M, Simonsz HJ, McCall MA, De Zeeuw CI, Kamermans M (2019) Nystagmus in patients with congenital stationary night blindness (CSNB) originates from synchronously firing direction-selective retinal ganglion cells. bioRxiv:555011.

Yang H, Zhong W, Hamidi MR, Zhou G, Liu C (2019) Functional improvement and maturation of human cardiomyocytes derived from human pluripotent stem cells by barbaloin preconditioning. Acta Biochim Biophys Sin (Shanghai).

Zhang Z, Qiu W, Gong H, Li G, Jiang Q, Liang P, Zheng H, Zhang P (2019) Low-intensity ultrasound suppresses low-Mg(2+)-induced epileptiform discharges in juvenile mouse hippocampal slices. J Neural Eng 16:036006.

Zhao Y, Guzman E, Audouard M, Cheng Z, Hansma P, Kosik KS, Petzold L (2019) A Deep Learning Framework for Classiﬁcation of in vitro Multi-Electrode Array Recordings. arXiv 1906.02241.

Aziz Q, Finlay M, Montaigne D, Ojake L, Li Y, Anderson N, Ludwig A, Tinker A (2018) ATP-sensitive potassium channels in the sinoatrial node contribute to heart rate control and adaptation to hypoxia. J Biol Chem.

Bartsch H, Baca M, Fernekorn U, Muller J, Schober A, Witte H (2018) Functionalized Thick Film Impedance Sensors for Use in In Vitro Cell Culture. Biosensors (Basel) 8.

Bastiaens AJ, Frimat J-P, van Nunen T, Schurink B, Homburg EFGA, Luttge R (2018) Advancing a MEMS-Based 3D Cell Culture System for in vitro Neuro-Electrophysiological Recordings. Frontiers in Mechanical Engineering 4.

Blauwblomme T, Dossi E, Pellegrino C, Goubert E, Gal Iglesias B, Sainte-Rose C, Rouach N, Nabbout R, Huberfeld G (2018) GABAergic transmission underlies interictal epileptogenicity in pediatric FCD. Ann Neurol.

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Brouwer S, Hoffmeister T, Gresch A, Schonhoff L, Dufer M (2018) Resveratrol Influences Pancreatic Islets by Opposing Effects on Electrical Activity and Insulin Release. Mol Nutr Food Res.

Burke JN, Savell KE, Bunner KD (2018) CRISPR/dCas9-Mediated Upregulation of Reelin and Neuronal Excitability. Metamorphosis.

Chaudhuri AD, Dastgheyb RM, Yoo SW, Trout A, Talbot CC, Jr., Hao H, Witwer KW, Haughey NJ (2018) TNFalpha and IL-1beta modify the miRNA cargo of astrocyte shed extracellular vesicles to regulate neurotrophic signaling in neurons. Cell Death Dis 9:363.

Chong SA, Balosso S, Vandenplas C, Szczesny G, Hanon E, Claes K, Van Damme X, Danis B, Van Eyll J, Wolff C, Vezzani A, Kaminski RM, Niespodziany I (2018) Intrinsic Inflammation Is a Potential Anti-Epileptogenic Target in the Organotypic Hippocampal Slice Model. Neurotherapeutics.

Cvetkovic C, Basu N, Krencik R (2018) Synaptic Microcircuit Modeling with 3D Cocultures of Astrocytes and Neurons from Human Pluripotent Stem Cells. J Vis Exp.

Dossi E, Blauwblomme T, Moulard J, Chever O, Vasile F, Guinard E, Le Bert M, Couillin I, Pallud J, Capelle L, Huberfeld G, Rouach N (2018) Pannexin-1 channels contribute to seizure generation in human epileptic brain tissue and in a mouse model of epilepsy. Sci Transl Med 10.

Failor SW, Ng A, Cheng HJ (2018) Monocular enucleation alters retinal waves in the surviving eye. Neural Dev 13:4.

Foliaki ST, Lewis V, Finkelstein DI, Lawson V, Coleman HA, Senesi M, Islam AMT, Chen F, Sarros S, Roberts B, Adlard PA, Collins SJ (2018) Prion acute synaptotoxicity is largely driven by protease-resistant PrPSc species. PLoS Pathog 14:e1007214.

Gamble JR, Zhang ET, Iyer N, Sakiyama-Elbert S, Barbour DL (2018) In Vitro Assay for the Detection of Network Connectivity in Embryonic Stem Cell-Derived Cultures. bioRxiv.

George JB, Abraham GM, Amrutur B, Sikdar SK (2018) Random Neuronal Networks show homeostatic regulation of global activity while showing persistent changes in specific connectivity paths to theta burst stimuli. Sci Rep 8:16568.

Kapkaeva MR, Genrikhs EE, Stelmashook EV, Kondratenko RV, Isaev NK, Khaspekov LG (2018) Neuronal Networks on Multielectrode Arrays as High Sensitive Biosensors of the Functional State of Nerve Cells. Biochemistry (Moscow), Supplement Series A: Membrane and Cell Biology 12.

Kodama NX, Feng T, Ullett JJ, Chiel HJ, Sivakumar SS, Galan RF (2018) Anti-correlated cortical networks arise from spontaneous neuronal dynamics at slow timescales. Sci Rep 8:666.

Kshirsagar P, Dickreuter S, Mierzejewski M, Burkhardt C, Chassé T, Fleischer M, Jones PD (2018) Transparent Graphene/PEDOT:PSS Microelectrodes for Electro- and Optophysiology. Adv Mater Technol.

Kshirsagar P, Martina M, D. JP, Buckenmaier S, Kraushaar U, Chassé T, Fleischer M, Burkhardt CJ (2018) Semitransparent Carbon Microelectrodes for Opto- and Electrophysiology. JOURNAL OF MICROMECHANICS AND MICROENGINEERING.

Lopes CDF, Mateus JC, Aguiar P (2018) Interfacing Microfluidics with Microelectrode Arrays for Studying Neuronal Communication and Axonal Signal Propagation. J Vis Exp.

Ma J, Ma S, Yin C, Wu H (2018) Matrine reduces susceptibility to post-infarct atrial fibrillation in rats due to anti-fibrotic properties. J Cardiovasc Electrophysiol.

Ma J, Ma S, Yin C, Wu H (2018) Shengmai San-derived herbal prevents the development of a vulnerable substrate for atrial fibrillation in a rat model of ischemic heart failure. Biomedicine & Pharmacotherapy 100:156-167.

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