The bone marrow microenvironment in myeloid malignancies€¦ · 12 c a p i l l a r i e s (n o r m...
Transcript of The bone marrow microenvironment in myeloid malignancies€¦ · 12 c a p i l l a r i e s (n o r m...
HSC
Progenitors
MSC
Lectures in Cancer Biology and Medicine
Sunday 2nd April 2020
The bone marrow microenvironment in myeloid malignancies
Simón Méndez-Ferrer, PhD
Department of Haematology
WT-MRC Cambridge Stem Cell Institute
University of Cambridge and NHS Blood and Transplant
Deininger, Tyner and Solary. Nat Rev Cancer 2017
5-155
ageing
premalignancy
malignancy
The role of the HSC
microenvironment
during:
A continuum in the myeloid malignancies
Two anatomical HSC niches in the bone marrow: central and endosteal
Mendez-Ferrer S et al. Nat Rev Cancer 2020
Nes-GFPhi NG2+
BMSC
HSC
increased:central niche
noradrenergic fibres
capillaries with Nes-GFP+ BMSCs
HSC proliferation
myelopoiesis
EC
reduced:endosteal niche
transition zone vessels and arterioles
HSC quiescence and self-renewal
resistance to genotoxic stress
regenerative haematopoiesis
lymphopoiesis
oste
ob
las
ts
sinusoid
sinusoid
transition zone
vesseleeee
arterioleeeeeeleleleeeaaaaaararaaaaaaa
capillary
Nes-GFP+
BMSC
osteo
blast
s
HSCH
EC
capillary
capillary
Nes-GFP+
BMSC
Increased central niches and reduced endosteal niches promote myeloid expansion during ageing
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
adult old
Reduction of endosteal niches and expansion of non-endosteal niches during normal ageing
CD31
EMCN youn
gold
0
10
20
30
EM
NC
hi C
D31
hi v
essels
(rela
tive t
o b
one length
) **
TZVs sinusoids
youn
gold
0.0
0.1
0.2
0.3
CD
31
lo E
MC
Nlo s
inusoid
s
(rela
tive t
o B
M a
rea)
youn
gold
0
5
10
15
20
25
CD
31
hi E
MC
N- capill
aries
(x10
-6;
rela
tive t
o B
M a
rea) ***
youn
gold
0
2
4
6
8
CD
31
hi E
MC
N- art
eriole
s
(x10
-6;
rela
tive t
o B
M a
rea) *
arterioles capillaries
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
adult old
Nes-GFP
CD31
EMCN
adult old
0.0
0.5
1.0
1.5
2.0
Nes-G
FP
+ c
ells
(% C
D45
- C
D31
- Ter1
19
- cells
)
e e n-e n-e
*
BMSCs
TH
Nes-GFP
CD31
TH
Contraction of endosteal niches and expansion of non-endosteal niches during normal ageing
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
Increased noradrenergic innervation of BM promotes MKpoiesis during ageing
Nes-GFP
CD31
TH
oldadult
youn
gol
d0.0
0.5
1.0
1.5
2.0
tyro
sin
e h
ydro
xyla
se +
are
a (
norm
alis
ed) *
youn
gol
d0
1
2
3**
skull tibia ****
0
500
1000
1500
2000
2500
pla
tele
ts p
er
ml o
f blo
od
(x10
4)
WT WT DKO DKO
oldadult
b2-b3-AR
** **
Pla
tele
ts p
er
ml o
f b
loo
d
(x1
06)
oldadult
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
b2-AR triggers IL6 release by the microenvironment to drive MKpoiesis during ageing
0
5
10
15
20
25
CD
41
+ c
ells
(%
LS
K)
WT b2
primary
**
AR KO
CD41+LS
K
0
5
10
15
donor
WT b2
recipient
WT b2
0
1 0
2 0
3 0
CD
41
+c
ell
s
(% C
D4
5.1
+L
SK
)
***
vehicle
b2-AR ag.
CD6
1
IL6 KO
CD41 CD42
DAPI
WT b2-AR KO
0
50
100
150
b3WT AR KO b2
***
CD
41
+C
D4
2+
meg
a-
ka
ryocyte
s p
er
mm
2
0
20
40
60
80
100
120
CD41
+ CD42
+ ce
lls p
er m
m2 *
WT b2 KO IL6 KO
0
5
10
15
20
25
IL-6
(pg p
er
ml) in B
ME
CF
WT b2AR KO
*
0
200
400
600
800
1000
1200
CD
41
+ L
SK
cells
AR ag. b2- b2-
IL6+/+ IL6-/-
**
ns
IL6 protein IL6 mRNA myeloid culture
+ + --PKAi - - + +
*ns
0
1
2
3
IL6 m
RN
A (
fold
)
b2-AR ag.
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
Reduced b3-AR-NO expands central niches and increases MKpoiesis during ageing
0
20
40
60
CD150lo/-
CD41- HSCs (%)
0
20
40
60
CD150lo/-
CD41- HSCs (%)
0
20
40
60
80
CD
150
lo/-C
D41
- H
SC
s (
%)
0
20
40
60
80
CD
150
lo/-C
D41
- H
SC
s (
%)
*
b3AR ag - b3-
DMSO L-VINO
0
200
400
600
800
Vw
f-eG
FP
- H
SC
s
*
WT b3 KO0
2
4
6
8
nitra
tes (
mM
) in
BM
EC
F
*
0.0
0.5
1.0
1.5
Nos1 m
RN
A (
fold
)
*
WT b3 KOWT b3 KO WT b3 KO WT b3 KO
primary recipient donor
p = 0.05
WT β3 Nos10
5
10
15
20
25
transitio
n z
one
vessels
(norm
aliz
ed) ***
p = 0.05
KO WT β3 Nos10
3
6
9
12
capill
aries (
norm
aliz
ed)
*****
KO 0
200
400
600
800
1000
1200
PLA
pla
tele
ts p
er
mm
3(x
10
3)
0
10
20
30
40
50
60
70
80
90
LYM MON NEU
WB
Cs (
%)
*
*
*
*
WT Nos1-/-
Eriksson, M. et al. Nature 423, 293-298 (2003)
De Sandre-Giovannoli, A. et al. Science 300, 2055 (2003)
Premature ageing in Hutchinson-Gilford progeria syndrome
Lymphoid deficiency and myeloid skewing during premature ageing …
***
0
200
400
600
800
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1200
1400
1600
PLA
pla
tele
ts p
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mm
3(x
10
3)
**
***
***
0
10
20
30
40
50
60
70
80
NEU LYM MON EOS BAS
WB
Cs (
%)
WBCs
WT
progeroid
0
5
10
15
20
25
CD
3+ c
ells
(%)
0
20
40
60
B220
+ c
ells
(% )
0
10
20
30
CD
11b
+ c
ells
(%)
****
0
200
400
600
800
1000
1200
1400
1600
PLA
pla
tele
ts p
er
mm
3(x
10
3)
0
10
20
30
40
50
60
70
80
NEU LYM MON EOS BAS
WB
Cs (
%)
... is NOT haematopoietic cell-autonomous
0
10
20
30
40
CD
3+ c
ells
(% d
onor
cells
)
0
10
20
30
40
50
B220
+ c
ells
(% d
onor
cells
)
0
10
20
30
CD
11b
+ c
ells
(% d
onor
cells
)
myeloid skewing increased platelets
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
WT progeroid
0
5
10
15
20
25
IL1β
(pg p
er
ml) in
BM
EC
F
0
20
40
60
80
IL1
a (pg p
er
ml) in B
ME
CF *
0
2
4
6
IL6
(pg p
er
ml) in B
ME
CF *
0
2
4
6
8
IFNγ (
pg p
er
ml) in B
ME
CF **
p = 0.06
0.0
0.5
1.0
1.5
2.0
IL3
(pg p
er
ml) in B
ME
CF
p = 0.09
Similar myelopoietic cytokines increase in BM during physiological/premature ageing
physiological
aging
progeria
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
β3-AR agonist improves lineage skewing and HSC numbers in progeria
WT progeroid, vehicle progeroid, b3-AR agonist
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
Summary (I): premature/physiological niche ageing promotes myeloid expansion
IL6
β2-AR
NO
distance
non-endosteal niches
Mk
LT-HSC
myeloid skewing
megakaryocyte
differentiation
β3-AR
TZVs
endosteal niches
Ly-HSC My-HSC
β3-AR signalling β2-AR signalling
capillary
arteriole
sinusoid
BMSC
MkP
NOS1
X
Hou F-H & Ho K-Y
▪ Reduction of endosteal BM and expansionofnon-endosteal BM occurs with age
▪ β2-AR overriding β3-AR promotesmyeloid expansion during normal aging
▪ Premature HSC aging inprogeria can beimproved by targeting themicroenvironment
▪ β2/β3-ARs exhibit opposite and niche-dependent regulation of myelopoiesis
Ho Y-H et al. 2019 Cell Stem Cell 25:407-18
Deininger, Tyner and Solary. Nat Rev Cancer 2017
5-155
ageing
premalignancy
malignancy
The role of the HSC
microenvironment
during:
A continuum in the myeloid malignancies
Two non-mutually exclusive contributions for haematopoietic niches to leukaemia:
1. The acquisition of mutations or functional alterations by
niche cells that predispose for malignancy development
2. Niche remodelling by transformed haematopoietic cells
that facilitates disease manifestation and/or progression
The transformed niche
RARg deficiency in microenvironment causes MPN
Walkley CR, ..., Purton LE. Cell 129(6):1097-1110 (2007)
Combined retinoblastoma deletion in microenvironment
and myeloid cells causes MPN
Walkley CR, ..., Orkin SH. Cell 129(6):1097-1110 (2007)
Microenvironmental Notch inhibition causes
reversible, non-transplantable MPN
Kim YW, ..., Kong YY. Blood 112(12):4628-38 (2008)
Endothelial-specific Rbpj deletion can induce MPN-like disease
Wang L, Carlesso N et al. Cell Stem Cell 15(1):51-65 (2014)
Ptpn11E76K/+ mutation in nestin+ BMSPs aberrantly
activates neighbouring WT HSCs, inducing JMML
Dong L, ..., Qu CK. Nature 2016;539:304-8
Reduced Sipa1 expression in BM microenvironment
triggers MPN/MDS-like disease
granulocytes
Xiao P, ..., Qian H. Blood Adv. 2018;2:534-48
BMSCs
mR
NA
Niche alterations in mouse models predispose to haematological malignancies
Mendez-Ferrer S et al. Nat Rev Cancer 2020
Two non-mutually exclusive contributions for haematopoietic niches to leukaemia:
1. The acquisition of mutations or functional alterations by
niche cells that predispose for malignancy development
2. Niche remodelling by transformed haematopoietic cells
that facilitates disease manifestation and/or progression
The transformed niche
2.1. Niche stromal cell reprogramming
2.2. Inflammation
2.3. Hypoxia and Angiogenesis
2.4. Activation of survival pathways
2.5. Protection from excessive ROS (metabolic reprogramming)
2.6. Immunosuppression
2.7. Therapeutic resistance
MPNs were initially thought to be solely driven by mutated HSCs
Mughal TI, ...,Van Etten RA. Leuk Lymphoma 57(7):1517-26 (2016)
control human MPN
NESTIN
Reduction of BM nestin+ cells in human and murine MPN
0
2
4
6
8
10
**
mR
NA
(ra
tio
)
Control MPN
NESTIN
0
500
1000
1500
2000
2500
**
C JAK2-
V617F
BM Nestin-GFP+ cells
0
100
200
300
400
500
BM CFU-F
C JAK2-
V617F
**
JAK2-V617F
Control
Arranz L et al. Nature 2014;752:78-81
0
5
10
15
20
*Contro
l
(C)
JAK2-
V617F
Nestin
mR
NA
(fo
ld)
BM neuropathy precedes apoptosis of nestin+ cells in
MPN
Control
JAK2V617F
Nes-GFP GFA
P
TH
200 mm100 mm
Arranz L et al. Nature 2014;752:78-81
b3-AR agonist rescues nestin+ niches and improves myelofibrosis in mice and humans
Drexler B et al. Haematologica 2019Arranz L et al. Nature 2014; 512:78-81
β3-AR agonist
0
500
1000
1500
2000
2500
BM Nestin-GFP+ cells
*
veh β3 ag
vehicle b3-AR agonist before after
myelofibrosis nestin+ niches
Herlihy N, Harrison CN, McLornan DP 2019 Haematologica 104(4):639-641©2019 by Ferrata Storti Foundation
Exploitation of the neural-HSC niche axis to treat myeloproliferative neoplasms
BMSC-derived placental growth factor supports CML cells
Schmidtt T, ..., Carmeliet P. Cancer Cell 2011;19:740-53
Expansion of inflammatory osteoblasts in chronic
phase CML impairs normal haematopoiesis
Schepers K, ..., Passegué E. Cancer Cell 2013;13:285-99
Frisch BJ, ..., Calvi LM. Blood 2012;119:540-50
Functional osteoblast inhibition in blast crisis CML
Krause DS, ..., Scadden DT. Nat Med 19, 1513–7 (2013)
Parathormone signaling on osteoblasts has
opposite effects on CML and AML
CML AML
BM engraftment: Pre-LSC = HSC vs. LSC = GMP
Lane SW, ..., Williams DA. Blood 118(10):2849-56 (2011)
SNSMSC
OBsHSC KSL/prog
Lymphocytes
Myeloid cells
HEALTH
SNSMSC
HSC KSL/ProgLeukHSC
IL-1β
1
OBs
IL-6
3
KSL/Prog
OBs
LymphocytesMyeloid cells
IL-6
MPN
4
Model of stepwise microenvironment alterations in MPN
Leuk prog
LeukHSC
2
Myeloid cells
Mendez-Ferrer S et al. Cancer Cell 2015;27(5):611-3
Kfoury Y and Scadden DT. Cell Stem Cell 2015
Different waves of BMSCs with distinct functions
Mesenchymal stem cell (MSC)
Adipoblast
Skeletal precursor
Preosteoblast
Osterix
Fibroblastic
reticular cells
Stromal lineages
PPARγ
Haematopoietic
lineages
LT
HSC
MPP
MEPGMP
CMP
CLP
proTproB
A hierarchical regulation in the bone marrow?
Osteoblast
ST
HSC
nestin
Lepr-cre
Bone and cartilage are derived from lineage-restricted progenitors
(and not BMSCs)
Chan CKF et al. Cell 160:285-298 (2015)
Nestin+ cells do not differentiate into osteoblasts/fibroblasts in MPN
Nestin-creERT2;RCE JAK2V617FControl
200 µm
Arranz L, ..., Mendez-Ferrer S. Nature 2014;752:78-81
Nat Cell Biol
2017
Ding L, ..., Morrison SJ. Nature 481:457-62 (2012)
Cell
Stem
Cell
2014
Osteocyte
Preosteoblast Adipoblas
t
Adipocyte
Chondroblast
Chondrocyte
Skeletal
precursor
Mesenchymal
stem cell
(MSC)
Fibroblastic
reticular cells
Osteoblast
Lepr-cre targeted cells (postnatal BM expression)
Prx1-cre targeted cells (prenatal BM expression)
HSC
niche
factors
Tie2-cre
Constitutive Cre lines might be convenient to obtain strong
phenotypes but are not very informative of the cell of origin
Endothelial cell
Reduction of nestin+ cells and expansion of Gli1+ cells in PMF
PMF: nestin+ cells Gli1+ cells Gli1+ cells are Lepr-, but some are nestin+
Schneider RK, ..., Kramann R. Cell Stem Cell 20:785-800 (2017)
Chronic treatment with Gli1/2 inhibitor improves myelofibrosis in mice
Schneider RK, ..., Kramann R. Cell Stem Cell 20:785-800 (2017)
Monocyte-derived fibrocytes may originate myelofibroblasts
PMF: BMSCs Monocyte-derived fibrocytes
Chronic treatment with the fibrocyte inhibitor serum amyloid P (pentraxin-2)
improves myelofibrosis and survival in mice
Verstovsek S et al. J Exp Med 2016;213(9):1723-40
Monocyte-derived fibrocytes may originate myelofibroblasts
Maekawa T, ..., Kimura F. Leukemia 2017;31:2709-16
Angiocrine support of normal and malignant stem cells
Butler JM, Kobayashi H and Rafii S. Nat Rev Cancer 10(2):138-46 (2010)
Increased BM angiogenesis in MPNs
Boveri E, ..., Passamonti F. Br J Haematol 140(2):162-8 (2008)
PV ET
Pre-fibrotic
PMF
Fibrotic
PMF
Autocrine and paracrine effects of angiogenic factors
Kampen KR, ..., de Bont ES. Cell Mol Life Sci 70(8):1307-17 (2013)
BM microenvironment is hypoxic in myeloid malignancies
Rieger C and Fiegl M.Exp Hematol 44:578-82 (2016)
Hif1a loss accelerates FLT3ITD-induced MPN
Velasco-Hernandez T, Cammenga J et al. Leukemia 29:2366-74 (2015)
Hif1a and Hif2a support LSC survival in CML and AML
Zhang H et al. Blood 119:2595-2607
(2012)
Roualt-Pierre K, Bonnet D et al.
Cell Stem Cell 13(5):549-63 (2013)
Microenvironment alterations early during MPN development
Korn C and Mendez-Ferrer S. Blood 2017; 129(7):811-822
The BM microenvironment at intermediate MPN stage
Korn C and Mendez-Ferrer S. Blood 2017; 129(7):811-822
The BM microenvironment at late MPN stage
Korn C and Mendez-Ferrer S. Blood 2017; 129(7):811-822
BM niche remodelling favours disease progression in haematological malignancies
Mendez-Ferrer S et al. Nat Rev Cancer 2020
Contributions of the BM niche to survival and chemoresistance of malignant haematopoietic cells
Mendez-Ferrer S et al. Nat Rev Cancer 2020
External funding:
Collaborators Institution
Tony Green
University of CambridgeBrian Huntly
Adrien Hallou
Ben Simons
Alex Theoccarides Zurich University Hospital
Jürg Schwaller
Basel University HospitalRadek Skoda
Alexandar Tzankov
Claus Nerlov Oxford University
Cristina Lo Celso Imperial College, London
Dominique Bonnet Crick Institute, London
WT-MRC Cambridge Stem Cell Institute
Current lab members
Claire Fielding
Elodie Grockowiak
Ya-Hsuan Ho
Giuditta Corbizi Fattori
Antonio Rodriguez
Zijian Fang
Stephen Gadomski
Jun Zhang
Thomas McKerrell
Jane Cook
Acknowledgements
Previous lab members
Dorian Forte
Claudia Korn
Justyna Rak
Andres Garcia
Maria Garcia-Fernandez
Joan Isern
Lorena Arranz
Daniel Martin-Perez
Sandra Martin
Abel Sanchez-Aguilera
Carlos Lopez