Neural progenitor cells - potent models of normal and disease neurobiology

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Neural progenitor cells - potent models of normal and disease neurobiology Brian Shapiro, Ph.D. Technical Writer, Cell Biology, ATCC November 19, 2015

About ATCC Founded in 1925, ATCC is a non-profit organization with headquarters in Manassas, VA World s premiere biological materials resource and standards development organization Established partner to global researchers and scientists ATCC collaborates with, and supports, the scientific community with industry-standard biological products and innovative solutions Strong team of 400+ employees; over onethird with advanced degrees 2

ATCC neuroscience cell lines Brain cell type Astrocyte Oligodendrocyte Microglia Neural progenitors Region of Study Cortex Cerebellum Hippocampus Locus Cereulus Medullary Raphe Mesencephalon Pituitary Retina/Visual System ATCC cell lines ATCC cell lines Stanford Medicine, 2009 3

ATCC neuroscience cell lines Brain cell type Astrocyte Oligodendrocyte Microglia Neural progenitors Neuro-Disorder Alzheimer s Cushing s Epilepsy Gigantism/Acromegaly Neurooncology Parkinson s Retinoblastoma Pituitary ATCC cell lines ATCC cell lines Stanford Medicine, 2009 4

Overview Introduction Neural differentiation Neural progenitor cells (NPCs) Expanding and differentiating neural progenitors Fibroblast- and CD34 + -derived NPCs Lineage-specific GFP or NanoLuc -HaloTag reporter NPCs The advantages of our complete NPC system ATCC NPC availability and summary 5

Why use NPCs? Neural progenitor cells Human NPCs are widely used: Drug discovery Toxicological assessment Preclinical studies Advantages of using NPCs: Human models with no donor variation Biologically relevant results/predictive system Cells exhibit full differentiation spectrum Neurons Astrocytes Oligodendrocytes Easy to use Complete system of cells and media will be available Live imaging is possible Markers allow for easy endpoint readout Saves time 6

ipscs for generating NPCs Drug screening/toxicity testing Gene editing to correct inherited diseases or to insert reporters Adapted from Li M et al. J. Biol. Chem. 289:4594-4599, 2014 and Deng W et al. EMBO Reports 11(3):161-5, 2010 7

ipscs for generating NPCs ATCC No. Designation Gender Ethnicity ACS-1024 ATCC-BYS0110 Male ACS-1028 ATCC-BYS0114 Female African American African American ACS-1025 ATCC-BYS0111 Male Hispanic ACS-1029 ATCC-BXS0115 Female Hispanic ACS-1026 ATCC-BYS0112 Male Caucasian ACS-1030 ATCC-BXS0116 Female Caucasian ACS-1027 ATCC-BYS0113 Male Asian ACS-1031 ATCC-BXS0117 Female Asian 8

Neuronal differentiation of ipscs 4 to 8 weeks ipscs (Tra-I-60 + ) Embryoid bodies NPCs/NSCs (Nestin +, Pax-6 + ) Astrocytes (GFAP + ) Neurons (Tuj1 +, MAP2 +, DCX +, TH + ) Oligodendrocytes (O4 +, MBP + ) 9

ipsc-derived NPCs are useful for disease modeling Wren and colleagues created ipscs from microtubule-associated protein tau (MAPT) N279K Parkinson s disease patients NPCs were created N279K causes increases in 4 repeat to 3 repeat tau domains in MAPT Since MAPT binds microtubules vesicle trafficking was investigated NPCs derived from patients with mutation displayed impaired endocytic trafficking Wren MC, et al. Mol Neurodeg 10:46, 2015. 10

NPCs for toxicological studies NPCs can be used to develop high throughput toxicological studies Embryonic mouse brains NPCs were isolated and differentiated Calcium ion flux Multi-electrode array experiments Cells were sensitive to neurotransmitters Acetylcholine Dopamine Serotonin GABA Martje W G, et al. Toxicol. Sci. 2014;137:428-435. 11

Overview Introduction Neural differentiation Neural progenitor cells (NPCs) Expanding and differentiating neural progenitors Fibroblast- and CD34 + -derived NPCs Lineage-specific GFP or NanoLuc -HaloTag Reporter NPCs The advantages of our complete NPC system ATCC NPC availability and summary 12

QC testing of ATCC NPCs Post-thaw cell viability: >80% Post-thaw viable cell number: >1x10 6 cells/vial Longevity: >15 PDLs or 5 passages NPC marker expression: Nestin +, Pax-6 +, and Tra-I-60 - Differentiation potential: >70% Tuj1 + early neurons and >10% TH + dopaminergic neurons Identity: STR profile matching parental ipsc line Sterility, Mycoplasma, and viral panel testing: None detected 13

Morphology and growth curves of NPCs derived from CD34 +, HFF-1, and Parkinson s ipsc lines 400 μm 400 μm 400 μm 14

NPCs derived from CD34+, HFF-1, and Parkinson s ipsc lines expressed Nestin and Pax-6 NPC markers 15

Dopaminergic neuron differentiation of NPCs 16

Astrocyte and oligodendrocyte differentiation of NPCs Astrocyte differentiation Oligodendrocyte differentiation O4 17

NPC Reporter lines and constructs DCXp-GFP: Mature neuron reporter line Stop codon ZFN cutting ATCC No. ACS-5005 ACS-5006 ACS-5007 Designation DCXp-GFP Neural Progenitor Cells, Human, Normal Origin: XCL-1 hipscs GFAP-Nanoluc-Halotag Neural Progenitor Cells, Human, Normal Origin: XCL-1 hipscs MAP2-Nanoluc-Halotag Neural Progenitor Cells, Human, Normal Origin: XCL-1 hipscs DCX ORF P2A GFP GFAP-Nanoluc-Halotag: Astrocyte reporter line MAP2-Nanoluc-Halotag: Early neuron reporter line 18

NPC marker expression in reporter NPC lines DCXp-GFP GFAP-Nanoluc-Halotag MAP2-Nanoluc-Halotag Nestin + DAPI Pax-6 + DAPI Tra-I-60 + DAPI 19

Dopaminergic neuron differentiation of NPC reporter lines MAP2-Nanoluc-Halotag DCXp-GFP GFAP-Nanoluc-Halotag 20

Expression of the luciferase reporter during dopaminergic neuron or astrocyte differentiation Luciferase secretion during dopaminergic neuron differentiation of MAP2-Nanoluc- Halotag NPCs MAP2-Nanoluc-Halotag Luciferase secretion during astrocyte differentiation of GFAP-Nanoluc-Halotag NPCs 21

Expression of the GFP or Halotag reporter during dopaminergic neuron or astrocyte differentiation GFAP-Nanoluc- Halotag (ICC) MAP2-Nanoluc- Halotag (ICC) DCX-GFP (Live imaging) MAP2 Halotag MAP2+Halotag 22

Development of ATCC NPC growth media ATCC NPC growth media Accumulative PDLs 20 18 16 14 12 10 8 6 4 2 0 3 4 5 6 7 8 9 10 11 12 13 Company B NPC growth media Accumulative PDLs 20 18 16 14 12 10 8 6 4 2 0 3 4 5 6 7 8 9 10 11 12 13 P7; Day 3 Passage # 23

Marker expression and astrocyte differentiation of NPCs cultured in ATCC growth media Astrocytes NPCs (P3) Nestin + DAPI Pax-6 + DAPI Tra-I-60 + DAPI GFAP GFAP + DAPI Phase 24

Development of ATCC dopaminergic neuron differentiation media (ATCC ACS-3004 ) Company A NPC growth media ATCC NPC growth media TH TH + DAPI Tuj1 + DAPI 25

Overview Introduction Neural differentiation Neural progenitor cells (NPCs) Expanding and differentiating neural progenitors Fibroblast- and CD34 + -derived NPCs Lineage-specific GFP or NanoLuc -HaloTag Reporter NPCs The advantages of our complete NPC system ATCC NPC availability and summary 26

ATCC initial NPC offerings ATCC No. Designation Availability ACS-3003 Neural Progenitor Cell Growth Kit Late 2015 ACS-3004 Dopaminergic Differentiation Kit Late 2015 ACS-5001 ACS-5003 ACS-5004 ACS-5005 ACS-5006 ACS-5007 Neural Progenitor Cells, Parkinson s Origin: ATCC-DYS0530 (ACS-1013 ) hipscs Neural Progenitor Cells, Normal Origin: ATCC-BXS0117 (ACS-1031 ) hipscs Neural Progenitor Cells, Normal Origin: ATCC-BYS0112 (ACS-1026 ) hipscs DCXp-GFP Neural Progenitor Cells, Normal Origin: XCL-1 hipscs GFAP-Nanoluc-Halotag Neural Progenitor Cells, Normal Origin: XCL-1 hipscs MAP2-Nanoluc-Halotag Neural Progenitor Cells, Normal Origin: XCL-1 hipscs In development Late 2015 Late 2015 Late 2015 Late 2015 Late 2015 27

Summary Developed a process enabling generation of unlimited supply of neural progenitor cells Optimized culture conditions for the expansion and tri-lineage differentiation of NPCs Starting ipsc lines played an important role in morphology, proliferative capacity, and differentiation potential of NPCs CD34 + -derived NPCs exhibited a better proliferative capacity and greater efficiency of tri-lineage differentiation Three gene-edited NPC reporter lines expressed GFP, NanoLuc, or HaloTag during lineage specific differentiation ATCC complete solution of NPC products including NPCs and culture media provides a powerful tool for disease modeling and drug screening 28

Acknowledgments Project team: Leelamma Jacob, M.S., Ph.D. Michelle Spencer, M.S. Dezhong Yin, Ph.D. Trademarks NanoLuc -HaloTag are registered trademarks of the Promega Corporation 29

Thank you Questions?