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Table 2 Summary of studies using hiPSC technology

From: 2D versus 3D human induced pluripotent stem cell-derived cultures for neurodegenerative disease modelling

Disease

Type of Culture

Main Findings

Study

AD

2D

Increased abnormal p-tau production

Gene expression patterns related to AD

Hossini et al. (2015) [134]

AD

2D

Accumulation of Aβ oligomers in hiPSC-derived neurons and astrocytes

Kondo et al. (2013) [131]

AD

2D and 3D

hiPSCs neuro-spheroid model obtained from patient’s blood successfully differentiated into neuronal culture

3D neurons showed less reduction of Aβ compared to 2D neurons in same concentrations of BACE1 or γ-secretase inhibitors

Lee et al. (2016) [77]

AD

3D

Aβ aggregation

Hyperphosphorylated tau protein

Endosome abnormalities

Reduction of amyloid and tau pathology using β- and γ-secretase inhibitors

Raja et al. (2016) [110]

AD

2D

Higher Aβ42/Aβ40 ratio in PSEN-mutated cells

Sproul et al. (2014) [133]

AD

2D

Higher Aβ42/ Aβ40 ratio in diseased hiPSCs

Neurons responded to y-secretase inhibitors

Yagi et al. (2011) [132]

AD

2D and 3D

3D model was able to recapitulate AD pathology whilst 2D was not

Zhang et al. (2014) [71]

ALS

2D

Higher levels of soluble TDP-43

Increased cell death

Bilican et al. (2012) [159]

ALS

2D

Recapitulated TDP-43 proteinopathy

Burkhardt et al. (2013) [164]

ALS

2D

Neurofilament aggregation and neurite degeneration

Chen et al. (2014) [163]

ALS

2D

C9orf72 mutations liked to dysregulation of calcium signalling and altered proteostasis

Increased susceptibility to cell death

Dafinca et al. (2016) [166]

ALS

2D

Dysregulation of neuronal synaptic activity

Devlin et al.(2015) [167]

ALS

 

Successful generation of hiPSC-derived motor neurons

Dimos et al.(2008) [28]

ALS

2D

Degeneration of astrocytes during disease progression Astrocytes unable to support neurons

Hall et al. (2017) [169]

ALS

2D

Aberrant gene expression in fALS motor neuron progenitor cells

Stress vulnerability in fALS motor neurons

Ichiyanagi et al. (2016) [161]

ALS

2D

Suggests astrocyte role in neuron death by impairing autophagy mechanisms

Madill et al. (2017) [170]

ALS

2D

Recapitulated C9ORF72 repeat toxicity

Sareen et al. (2013) [165]

ALS

2D

Generation of motor neurons from hiPSCs

Neurons were electrically excitable

Increased neuron cell death in response to SOD1-mutated glia

Toli et al. (2015) [162]

ALS

2D

Dysregulation of neuronal synaptic activity

Wainger et al. (2014) [168]

ALS

2D

Recapitulated TDP-43 proteinopathy

Zhang et al. (2013) [160]

HD

2D

Reverted HD phenotypes in hiPSCs using homologous recombination to replace mutated sequence with normal one

An et al. (2012) [145]

HD

2D

Generated several iPSC lines from homozygous and heterozygous HD patients

Significant increase in lysosomal activity in HD-iPSCs

Camnasio et al. (2012) [27]

HD

2D

Proteomic analysis showing that HD-iPSCs are highly susceptible to oxidative stress

Chae et al. (2012) [150]

HD

2D

Recapitulated disease phenotype using hiPSCs

Consortium (2012) [146]

HD

2D

hiPSCs generated mostly GABAergic neurons (that are more susceptible to degeneration)

Behavioural recovery after transplantation of hiPSCs-derived neural precursors into rats

Jeon et al. (2012) [149]

HD

2D

iPSC-derived astrocytes showed increased cytoplasmic vacuolation

Juopperi et al. (2012) [147]

PD

2D

Generation of ventral midbrain dopaminergic neurons from hiPSCs

Cooper et al. (2010) [140]

PD

2D

Generation of dopaminergic neurons from hiPSCs Successful transplantation into rodent brain

Hargus et al. (2010) [142]

PD

3D

Generation of mid-brain specific organoids containing organized groups of dopaminergic neurons

Monzel et al. (2017) [109]

PD

3D

Generation of dopaminergic neurons from hiPSCs Cells showed spontaneous electrophysiological activity

Moreno et al. (2015) [78]

PD

2D

Generation of dopaminergic neurons from footprint-free hiPSCs

Soldner et al. (2009) [40]

PD

3D

Generation of neural organoids from patient-derived iPSCs with familial PD mutation in LRRK2 gene

Son et al. (2017) [108]

  1. Abbreviations: Aβ beta amyloid, BACE1 Beta-secretase 1, C9ORF72 chromosome 9 open reading frame 72, fALS familial amyotrophic lateral sclerosis, HD-iPSCs induced pluripotent stem cells from patients with Huntington’s disease, hiPSCs human induced pluripotent stem cells, LRRK2 leucine-rich repeat kinase 2, PSEN Presenilin, SOD1 superoxide dismutase 1, TDP-43 TAR DNA-binding protein 43