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Hartmut Goldschmidt Sektion Multiples MyelomNationales Centrum für Tumorerkrankungen (NCT) und Medizinische Klinik V Im Neuenheimer Feld 410 69120 Heidelberg, Germany
Norway 2019
Multiple Myeloma – Therapy and Clinical Trials
CONFLICT OF INTEREST DISCLOSURES
2
1 Introduction
4
Myeloma Clinical Characteristics§ Cancer of the plasma cells
§ 10% of all hematologicalmalignancies1
§ Europe: 38,900 new cases each year2
§ Median age: 70 yrs (EU)1
§ 5-year survival rate: 40-50%2
§ Newer treatments (Pis, IMiDs and Antibodies) have achieved significant improvement in OS but MM remains incurable in most patients
↑ circulating abnormal serum proteins
Abnormal plasma cells
Genetic and molecular defects
Produce
1) Moreau P et al. Ann Oncol. 2013 Oct;24 Suppl 6:vi133-7. Steliarova-Foucher E et al. European Network of Cancer Registries, International Agency for Research on Cancer. Available from http://eco.iarc.fr, accessed on 19/Nov/2015. 2) Cancer Research UK, www.cancerresearchuk.org/health-professional/cancer-statistics/statistics-by-cancer-type/myeloma/survival#heading-Zero, Accessed 19/Nov/2015.
Adapted from Durie 1992, IMF Myeloma Booklet
MGUS or smoldering myeloma
AsymptomaticSymptomatic or Biomarker
ACTIVE MYELOMA
M-p
rote
in (g
/L)
20
50
100
1. RELAPSE
2. RELAPSE
REFRACTORY RELAPSE
First-line therapy
Plateau remission
Second-line therapy
Third-line therapy
Cure
The Multiple Myeloma Patient Journey
J. Hillengaß et al., J Cancer Res Clin Oncol. 2013
Multiple Myeloma – Heidelberg Center20 Years ABSCT (n = 1486 pts)
0.0
0.2
0.4
0.6
0.8
1.0
Overall survival of patientswith autologous stem cell transplantations in Heidelberg (since 9.6.1992)
Years from 1st autologous stem cell transplantation
Ove
rall
surv
ival
0.0 3.5 5.0 10.0 15.0
until 1999
2000 to 2006
from 2007
Usmani et al. Blood Cancer J. 2018
Cure Fraction NDMM – IMW Project 7,291 Pts.GMMG HD3 Pts. Included
Bart Barlogie: MM Control or Cure?
2 New Definitions
Monoclonal Gammopathy of undetermined
Significance(MGUS)
smoldering myeloma
MultipleMyeloma
Monoclonal Gammopathy of undetermined Significance
(MGUS)
EarlyMyeloma
klonale Plasmazellen im Kochenmark
<10% >10% >10%
monoklonales Protein <30g/l >30g/l >30g/l
Endorganschädigung Nein Nein Ja
Electrophoresis in MGUS, SMM and Myeloma
Multiple Myeloma
Dr. Solly und Dr. Birkett, St. Guy´s Hospital, London, 1844
Whole Body CT is the Standard since 10 years
Wolf et al., Eur J Radiol. 2014
Hillengaß et al, JCO, 2010
Progression Risk à Symptomatic MM
Time since MRI (months)
Smoldering Myeloma – MRI
Merz et al, Leukemia 2014
Progression Risk à Symptomatic MM
SMM – Dynamics of Focal Lesions
Whole-body diffusion-weighted imaging FDG-PET Whole-body MRI
Hillengass et al., 4th Heidelberg Myeloma Workshop 2013
Imaging – Strategy Heidelberg
By courtesy of Hillengaß
3 Treatment of the Myeloma Disease
Patient with“Active Disease”
Transplantation No Transplantation
Age up to 70/75‘Normal’ Organ Functions
Stem Cells Patient’s Preference
Advanced AgeMultimorbidity
Inadequate Stem CellsPatient’s Preference
Adapted from Ludwig 2009; Post ASH-Slides
Multiple Myeloma: First Line Treatment
Improving the Response Quality / Increasing CR
Induction Mel 200 Mel 200 MaintenanceConsolidation
Transplant Eligible
Not Transplant Eligible
Induction Long term treatment
Palliation
Chronic illness Cure?
1950–1960s
SteroidsRTXMP
1970–1980s
ALLOASCTHDCVADSteroidsRTXMP
1990s
ASCTHDCVAD
ThalidomideBPs
Mini-ALLO
SteroidsRTXMP
2000s
PLDLenalidomideBortezomib
SteroidsRTXMP
ASCTHDCVAD
ThalidomideBPs
Mini-ALLO
Approved and investigational treatments (2008–2016)1
Targets Agent examplesIMiDs PomalidomideProteasome Carfilzomib
Ixazomib*Monoclonal antibodies Elotuzumab
DaratumumabHDAC PanobinostatAkt PerifosineXBP-1 XBP-1 peptideNitric oxide JSKMuc-1 NM3MEK AZD6244NF-κB NPI1387Bispecific AB MultipleCART-Cells Multiplep38MAPK SCIO469Telomerase GRN 163LNatural products EGCG*Ixazomib is approved for treatment of multiple myeloma in the US but is not yet licensed for use in Europe.
CHMP positive opinion recommends the granting of a conditional marketing authorisation for ixazomib.2ALLO, allogeneic stem cell transplant; ASCT, autologous stem cell transplant; BP, bisphosphonate; CHMP, Committee for Medicinal Products for Human Use; EGCG, epigallocatechin gallate; HDAC, histone deacetylase; HDC, high-dose chemotherapy; MAPK, mitogen-activated protein kinase; MEK, MAPK/ERK kinase; MP, melphalan, prednisone; NF-κB, nuclear factor kappa B; PKC, protein kinase C; PLD, pegylated liposomal doxorubicin; RTX, radiotherapy; STAT3, signal transducer and activator of transcription 3; VAD, vincristine, Adriamycin (doxorubicin), dexamethasone; XBP-1, X-box binding protein 1.1. Naymagon L & Addul-Hay M. J Hematol Oncol 2016;9:52–72. 2. EMA 2016 CHMP positive opinion for Ninlaro. Available from: http://www.ema.europa.eu/ema/index.jsp?curl=pages/medicines/human/medicines/003844/smops/Positive/human_smop_000991.jsp&mid=WC0b01ac058001d127. Accessed October 2016. Diagram adapted from Munshi NC. Hematology 2008:297.
Evolving the Therapeutic Armamentarium
MM 2019 – Treatment Options NDMM No TPX • Rd (EMA approved - DGHO recommended – ESMO First Option)• VMP (EMA approved - DGHO recommended – ESMO First Option)• RVd (EMA approved - DGHO recommended - ESMO First Option)
• D-VMP (EMA approved)
• MPT (EMA approved – ESMO Second Option)• MPR-R (EMA approved)• BP (EMA approved* – ESMO Third Option)
• VCD (not EMA approved - DGHO recommended - ESMO Second Option) • VD (not EMA approved)
adaptiert nach:Moreau et al., Ann Oncol 2017Onkopedia Leitlinien „Multiples Myelom“, April 2018
*: historic for patientswith PNP
}Keine DGHO-Empfehlung & geringfügige Verwendung in Deutschland
Direct comparison between trials is not intended and should not be inferred. a ITT population.
Overview of mPFS in recent phase 3 trials in transplant-ineligible NDMM
1. Velcade [SmPC]. Beerse, Belgium. Janssen-Cilag International; 2014. 2. Dimopoulos M, et al. Blood. 2018;132:156. Presented at ASH 2018. 3. Rajkumar SV, et al. Lancet Oncol. 2010;11:29-37. 4. Facon T, et al. Blood. 2018;131:301-10. 5. REVLIMID [SmPC]. Utrecht, Netherlands. Celgene Europe BV; 2019. 6. Facon T, et al. Blood. 2018;132:LBA-2. Presented at ASH 2018. 7. O’Donnell EK, et al. Br J Haematol. 2018;182:222-30.
IMiD-free IMiD-foundation
NR; Estimate based on HR 0.56NR;
estimate based on HR 0.43
Med
ian
PFS
Median PFS estimates calculated
by dividing the median PFS of the comparator by the
HR
a
Selected Induction Regimens and Response in MM
VAD1
VD2RD3
Rd3PAD4
VTD5
VCD5
RVD6
CarRD7
CarCyD8
IRD9
CyRVD10
Patie
nts
resp
ondi
ng (%
)
Adapted, Stewart et al. Blood 2009. Courtesy of Dr. P. McCarthy. ASH Educational 2013. 1. Lokhorst HM, et al. Haematologica. 2008;93:124-7. 2. Harousseau JL, et al 2010 J Clin Oncol 28:4621-4629. 3. Rajkumar SV, et al Lancet Oncol 2010; 11: 29–37. 4. Sonneveld P, et al J Clin Oncol 2012; 30:2946-55. 5.
Moreau, P et al. Blood. 2015;126:[abstract 393]. 6. Richardson et al. Blood 2010;116:679-686. 7. Jakubowiak AJ, et al Blood. 2012 30;120:1801-9. 8. Palumbo A, et al. Blood. 2012;120:[abstract 730]. 9. Kumar S, et al . Blood. 2012;120:[abstract 332]. 10. Kumar S, et al. Blood. 2012; 119: 4375-82.
This slide is provided for ease of viewing information from multiple trials. Direct comparison between trials is not intended and should not be inferred.
50
100
The Patient: Frail versus Fit
Which Dose? Which of the New Drug(s)?
Adapted from Facon/Salwender; IMW 2012
carefully evaluatethe patient clinically!
Long Term Outcome - Discontinuation
Antonio Palumbo et al. Blood 2015
Long Term Outcome - Overall Survival
Antonio Palumbo et al. Blood 2015
Recommended Starting Dose and Dose Adjustments According to Age Groups and Vulnerability Status
* Risk factors; age> 75 years, frailty, comorbidities (cardiac, pulmonary, hepatic, renal); ** Dose also adapted according to renal function.
Agent No RiskFactors*
At least 1 RiskFactor
At least 1 Risk Factor (+ grade 3/4
non-haem AE)Dexamethasone(mg/day, Weekly)
40 20 10 (or prednisone)
Melphalan(mg/kg, Days 1-4)
0.25 0.18 0.13
Thalidomide(mg/Day)
100 50 50 qod
Lenalidomide**(mg/Day, Days 1-21)
25 15 10
Bortezomib(mg/m2, Weekly, s.c.)
1.3 1.0 0.7
Adapted from Palumbo A, et al. Blood. 2011;118:4519-29.
4Role of Autologous Blood Stem Cell Transplantation in 2019
n=402Rd (four 28-d cycles)Lenalidomide 25 mg/d, d1-21Low-dose dex40mg/d, d 1,8,15,22
RANDOMIZE
n=202MPR (six 28-d cycles)Melphalan 0.18 mg/kg/d, d 1-4Prednisone 2 mg/kg/d, d 1-4Len 10 mg/d, d 1-21
n=200MEL 200Tandem Mel 200mg /m2 plus stem cell support
Induction Consolidation
Primary end point: PFS
RANDOMIZE
No maintenance
MaintenanceLen 10 mg/d, d 1-2128-d course until relapse
Maintenance
Boccadoro et al. J Clin Oncol 2011;29 (suppl) (Abstract 8020); poster presentation at ASCO 2011Palumbo et al. Haematologica 2011;96(s2):214 (Abstract 508); oral presentation at EHA 2011
Phase 3: MPR versus Tandem ASCT
PFS and 4-Year OS from the Start of Consolidation Therapy
Palumbo et al. NEJM 2014)
IFM/DFCI 2009 Trial: Role of MRD
P-value (trend) : p<0.0001
<10-6
[10-6;10-5[
[10-5;10-4[
>=10-4
0.2
0.3
0.4
0.5
0.6
0.7
0.8
0.9
1.0
Patie
nts w
ithou
t pro
gres
sion
(%)
79 79(0) 70(9) 59(11) 50(9) 38(11) 28(6) 6(9) 0(3)[10-4;10-3[49 49(0) 47(2) 45(2) 43(2) 34(7) 22(4) 8(6) 2(0)[10-5;10-4[31 31(0) 30(1) 28(2) 27(0) 22(4) 17(1) 8(2) 4(1)[10-6;10-5[87 87(0) 87(0) 85(2) 83(2) 74(6) 54(4) 31(3) 8(0)<10-6
N at risk(events)
06
1218
2430
3642
48
Months since randomization
MRD at pre-maintenance
Herve Avet-Loiseau, ASH, 2015
M. Merz et al., Ann Oncol 2014
ABSCT: Age is not a Predictive Factor
Merz et al., Eur J Cancer. 2016
Impact of Age on Outcome after ASCT
Studies in Myeloma – GMMG Trials5
GMMG IIT-Studies
MGUS oderSmoldering Myeloma
AKTIVES MYELOM
M-P
rote
in (g
/L)
20
50
100
1. REZIDIV
2. REZIDIV
ERSTLINIEN-THERAPIE
PlateauRemission
ZWEITLINIEN-THERAPIE
DRITTLINIEN-THERAPIE
Cure
ReLApsE
PERSPECTIVEHD6 BPV
CONCEPT
BIRMA
GMMG studies active
GMMG studies in preparation
GMMG studies currently analysed
3.++ REZIDIV
MM5
DANTE
HD7
VCD-Dara
HD8
Randomization
MM Stage II or III, Age 18–65
CAD + GCSF
3 x VAD
CAD + GCSF
3 x PAD
MEL 200 + PBSCT
In GMMG 2nd
MEL 200 + PBSCT
MEL 200 + PBSCT
In GMMG 2nd
MEL 200 + PBSCT
Thalidomidemaintenance50 mg/day for 2 years
Allogeneic Tx
Bortezomib Maintenance1.3 mg/m2 / 2 weeks for 2 years
HOVON 65/GMMGHD4 Trial design
Bortezomib 1.3 mg/m2i.v., 2x/w
Doxorubicin 9 mg/m2
Dexameth 40 mg
Goldschmidt et al. Leukemia 2017
A: VADB: PADCox LR Stratified P =0.001
N414413
F324300
A: VADB: PAD
10 Nov 2015
At risk:414413
202240
101123
4977
1830
A: VAD
B: PAD
0
25
50
75
100
Cum
ulat
ive
perc
enta
ge
months0 24 48 72 96
Randomization armProgression free survival
HOVON 65/GMMGHD4 Primary endpoint PFS by treatment arm
PFS at 96m: 17% vs 10%HR:0.77, 95% confidence interval (CI) = 0.65-0.90; P = 0.001
Sonneveld et al. ASH Abstract 27,2015
no del(17p)del(17p)Cox LR P <.001
N15922
D6920
no del(17p)
del(17p)
10 Nov 2015
At risk:15922
13312
105
4
822
302
no del(17p)
del(17p)0
25
50
75
100
Cum
ulat
ive
perc
enta
ge
months0 24 48 72 96
17p13- [FISH*] (arm A:VAD)Overall survival
no del(17p)del(17p)Cox LR P =0.53
N15317
D648
no del(17p)
del(17p)
10 Nov 2015
At risk:15317
12812
10612
888
372
no del(17p)
del(17p)
0
25
50
75
100
Cum
ulat
ive
perc
enta
ge
months0 24 48 72 96
17p13- [FISH*] (arm B:PAD)Overall survival
HOVON 65/GMMGHD4: OS by Treatment Arm Subgroup with del(17/17p)
VAD PAD
p<0.001 p=0.5
Goldschmidt et al., Leukemia 2017
38
GMMG-CONCEPT-Trial
GMMG-HD7 Trial
R1
3 x RVd+ Isatuximab
(3 x 6 weeks)
Arm IA
Arm IB
Lenalidomide(36 months)
Induction Maintenance
Standard therapy (without study-specific
therapeutical intervention)
MEL
200
MO
B
(MEL
200
)*
* decision for 2nd high dose therapy response-adapted (in case no CR)** Lenalidomide/Isatuximab for 36 months (thereafter, continuation of lenalidomide recommended untilPD)
Lenalidomide + Isatuximab **
(36 months)
3 x RVd(3 x 6 weeks)
Modified trial design (19-Jan-2018)
R2
R1 = 1st randomization (at study inclusion); R2 = 2nd randomization (prior to maintenance)
Arm IIA
Arm IIB
Biobanking in HD7 - Time Points For Sampling
1st Y 2nd Y 3rd Y
Tumour Load PeripheralImmune Phenotype
Tumour Genetics
Tumour Heterogeneity
Germline Control
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune Phenotype
MRD ID
Microenvironment
MicroenvironmentBiopsy
BM
BM Sort
Focal L.
PB
Serum
Spit
Tumour Load PeripheralImmune Phenotype
Tumour Heterogeneity
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune PhenotypeMRD
Microenvironment
Tumour Load PeripheralImmune Phenotype
Tumour Heterogeneity
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune PhenotypeMRD
Microenvironment
Tumour Load PeripheralImmune Phenotype
Tumour Heterogeneity
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune PhenotypeMRD
Microenvironment
Tumour Load PeripheralImmune Phenotype
Tumour Heterogeneity
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune PhenotypeMRD
Microenvironment
Tumour Load PeripheralImmune Phenotype
Tumour Heterogeneity
Liquid BiopsyLiquid Biopsy
Immune Phenotype
Tumour GeneticsTumour HeterogeneityTumour MicroenvironmentImmune PhenotypeGenetic Heterogeneity
Immune PhenotypeMRD
Microenvironment
Flexible Time Points: PD, suspected CR
6 Translational Research Activities
MM-Research Lab Heidelberg: Sampling Strategies
KM-Aspirat
Ficoll
WBMLyse
MNC
MACS CD138+MMC
MSCOB
aCGH
mRNA
GEP
DNA
iFISH
Zellen mRNA
RNA-SeqDNA-Seq
DNA
FACS
CD14
CD15
TCs
OC31.03.2014n = 4325
KM-Ausstrich Medikamenten-Testung
DNA/RNA
D. Hose, Myeloma Research Lab Heidelberg
• MRD modality and sensitivity of detection
• Increasingly sensitive laboratory techniques
Sherrod et al., BMT, 2015
Methods to Measure MRD
IFM/DFCI 2009 Trial
P-value (trend) : p<0.0001
<10-6
[10-6;10-5[
[10-5;10-4[
>=10-4
0.2
0.3
0.4
0.5
0.6
0.7
0.8
0.9
1.0
Patie
nts w
ithou
t pro
gres
sion
(%)
79 79(0) 70(9) 59(11) 50(9) 38(11) 28(6) 6(9) 0(3)[10-4;10-3[49 49(0) 47(2) 45(2) 43(2) 34(7) 22(4) 8(6) 2(0)[10-5;10-4[31 31(0) 30(1) 28(2) 27(0) 22(4) 17(1) 8(2) 4(1)[10-6;10-5[87 87(0) 87(0) 85(2) 83(2) 74(6) 54(4) 31(3) 8(0)<10-6
N at risk(events)
06
1218
2430
3642
48
Months since randomization
MRD at pre-maintenance
Herve Avet-Loiseau, ASH, 2015
Results
I. CTCs as surrogate for BM MRD assessment
§ Presence of CTCs predicts MRD-positivity in BM with high specificity.
Scatter plot for correlation between the number of tumor cells in BM vs. the number
of circulation tumor cells
shades of gray: cut off 10-5, cut off 10-6.
Circulating Tumor Cells as a Surrogate Marker
St. Huhn, ASH 2017,Poster Monday, Poster 4359
symptomatic MM 1st line treatment
18-70 years
3 x PAd
stem cell mobilisation (CAD+G-CSF) + leukapheresis
3 x VCD
first ASCT (melphalan 200 mg/m2)
second ASCT (melphalan 200 mg/m2) (if no nCR/CR)
2 x Lenalidomide
Randomization
Lenalidomide for 2 years
A1
Lenalidomide if no CR
B1
Lenalidomide for 2 years
A2
Lenalidomide if no CR
B2
A1 + B1 A2 + B2
1) 1)
1) High Risk Patients, optional in Phase II trial
Standard intensification according to local protocol
(GMMG standard)
GMMG MM5 trial in newly diagnosed Multiple Myeloma to evaluate PAd vs VCD induction prior to HDT followed by Lenalidomide consolidation and maintenance – final analysis on induction therapy
Hartmut Goldschmidt1, Jan Duerig2, Uta Bertsch1, Christina Kunz3, Thomas Hielscher3, Elias K. Loos1, Mathias Haenel2, Igor W. Blau2, Dirk Hose1, Anna Jauch1, Baerbel Schurich1, Kai Neben2, Anja Seckinger1, Barbara Huegle-Doerr1, Maximilian Merz1, Markus Munder2, Hans-Walter Lindemann2, Matthias Zeis2, Christian Gerecke2, Ingo G. H. Schmidt-Wolf2, Katja Weisel2, Christof Scheid2, Hans Salwender2
1German-Speaking Myeloma Multicenter Group (GMMG) and University Hospital Heidelberg, Germany, 2GMMG, Germany, 3Division of Biostatistics, German Cancer Research Center Heidelberg, Germany
GMMG MM5 Trial
Conclusions
Final analysis on induction
The MM5 phase III trial of the German-Speaking Myeloma Multicenter Group (GMMG) was designed to address two independent primary objectives: 1. Demonstration of non-inferiority of VCD (bortezomib, cyclophosphamide, dexamethasone) induction compared to PAd (bortezomib, adriamycin, dexamethasone) induction therapy with respect to response rate (very good partial response (VGPR) or better). 2. Determination of the best of four treatment strategies with respect to progression-free survival (PFS). The four treatment strategies are defined by PAd vs. VCD induction treatment, high dose melphalan followed by autologous stem cell transplantation and maintenance treatment with lenalidomide for 2 years vs. lenalidomide until complete response (CR) (figure 1). During the induction phase the patients are treated with 3 cycles of either PAd or VCD. PAd was dosed as bortezomib 1.3 mg/m2, days 1, 4, 8, 11, doxorubicin 9 mg/m2, days 1-4, dexamethasone 20 mg, days 1-4, 9-12, 17-20 (repeated every 28 days). VCD consisted of bortezomib 1.3 mg/m2, days 1, 4, 8, 11, cyclophosphamide 900 mg/m2 day 1, dexamethasone 40 mg, days 1-2, 4-5, 8-9, 11-12 (repeated every 21 days). The route of administration for bortezomib was changed from intravenously to subcutaneously in all study arms by a protocol amendment in February 2012 after inclusion of 314 patients.
Final analysis with respect to response rates after induction treatment and a safety analysis were done after recruitment of 504 patients (figure 2) as described in the protocol. Responses were assessed according to the response criteria of the International Myeloma Working Group (IMWG). The primary endpoint was the proportion of patients with at least very good partial response to treatment after induction therapy in each treatment arm (VGPR or better).
The proportion of patients with any adverse event was comparable in PAd vs. VCD (61.3% vs. 64.0%, p=0.58), but more serious adverse events (SAEs) were observed during PAd induction (32.7% vs. 24.0%, p=0.04). VCD led to a significantly higher proportion of leukocytopenia and neutropenia CTCAE grade 3 and 4 (PAd 11.3% vs. VCD 35.2%, p=<0.001). The number of infections (≥ CTCAE grade 2) and infection-related SAE was similar (PAd 24.6% vs. VCD 22.4% for AE, p=0.60 and PAd 12.9% vs. VCD 10.8% for SAE, p=0.49). Compared to the infection rate (AE ≥ CTCAE grade 2) of 49% during PAD (dexamethasone 40 mg on days 1-4, 9-12, 17-20) in the HOVON65/GMMG-HD4-trial, a reduction in MM5 during induction was observed. Preliminary data (412 patients) of numbers of collected CD34+ stem cells were comparable (PAd median 9.8x106 vs. VCD median 9.4x106 kg bodyweight, p=0.15). In the PAd arm more deaths were observed compared to the VCD arm (5 vs 1).
Both induction regimens in the current GMMG-MM5 trial show relevant efficacy after three cycles and a non-inferiority of VCD compared to PAd was found. PAd and VCD are well tolerated with more than 90% of the patients receiving all planned induction cycles. In conclusion, VCD was found to be a valid alternative to PAd with comparable efficacy and a favourable toxicity profile.
Table 1: Patient baseline characteristics
Figure 3: Response rates after induction PAd or VCD induction therapy.
Table 2: Toxicity during induction
In the PAd group 91.2% and in the VCD group 96.0% of the patients completed three planned induction cycles. Applied total bortezomib dose over all three cycles was comparable in both, PAd and VCD arms. Response rates were similar in both induction regimens (PAd vs. VCD) with 34.3% vs. 37.0% of patients achieving VGPR or better. Non-inferiority of VCD compared to PAd was shown (one-sided p=0.0013). Similar results were obtained in the PP analysis. CR rates were 4.4% and 8.4% (PAd vs. VCD) and 21.1% and 22.3% (PAd vs. VCD) for near complete response (nCR) or better. Partial response (PR) or better was reached in 72.1% vs. 78.1% of the patients (PAd vs. VCD) (figure 3).
Results
Figure 2: Consort diagram
Patients treated with PAd or VCD were equally distributed for ISS and Durie-Salmon disease stage, kidney function and the high-risk cytogenetic abnormalities deletion (17p), translocation t(4;14) and gain 1q21 (>3 copies). There were significant differences in patient age and distribution of WHO performance status (table 1).
Patients not receiving allocated intervention due
to: - myocardial infarction prior
to therapy (n = 1) - death (n = 1)
Patients not receiving allocated intervention due
to: - non-compliance (n = 1) - withdrawal of consent
(n = 2)
One patient excluded from ITT (due to unconfirmed
diagnosis of multiple myeloma requiring systemic
therapy) received VCD therapy and was included in
safety analysis
Excluded from PP analysis - incomplete induction
therapy (n = 5) - missing response assessment (n = 3)
- one patient not ITT not PP but Safety (see above)
Excluded from PP analysis - incomplete induction
therapy for reasons other than PD (n = 9)
- missing response assessment (n = 6)
- randomized PAd and treated VCD (n = 1)
Randomized (n = 504)
Two patients were excluded from ITT due to unconfirmed diagnosis of multiple myeloma
requiring systemic therapy
PAd (n = 251)
Received allocated
intervention (n = 248)
randomized PAd and treated VCD (n = 1)
VCD (n = 251)
Received allocated
intervention (n = 249)
3 cycles n = 234 2 cycles n = 10 1 cycle n = 5
3 cycles n = 244 2 cycles n = 4 1 cycle n = 1
ITT n = 251 Per-Protocol n = 233 Safety n = 249
ITT n = 251 Per-Protocol n = 240 Safety n = 249
Baseline characteristics
Figure 1: Flow sheet GMMG MM5 Trial
CR nCR PR MR SD PD
PAd
VCD
Perc
ent (
%)
0
10
20
30
40
Response rates (ITT) VGPR missing
Characteristic PAd VCD P value No of patients % in PAd arm no of patients % in VCD arm
Sex (male / female) 147 / 104 58.6 / 41.4 153 / 98 61.0 / 39.0 0.65
Age in years (median, range) 59.4 (37 - 70) 58.7 (33 - 70) 0.04
Salmon and Durie stage (IA-IIB / IIIA-IIIB) 27 / 224 10.8 / 88.2 30 / 221 12.0 / 88.0 0.78
ISS stage (I / II / III) 99 / 80 / 72 39.4 / 31.9 / 28.7 94 / 82 / 75 37.5 / 32.7 / 29.9 0.91
WHO performance status (0-1 / 2-3 / unknown) 215 / 30 / 6 85.7 / 11.9 / 2.4 230 / 21 / 0 91.6 / 8.4 / 0.0 0.01
LDH above ULN 46 18.4 44 17.5 0.82
Calcium elevation 40 15.9 31 12.3 0.31
Renal insufficiency 38 15.1 39 15.5 1.00
Anemia 124 49.4 138 55.0 0.25
Bone disease 229 91.2 223 88.8 0.46
High-risk cytogenetics (del 17p / t (4;14) / gain 1q21)
61 (26 / 25 / 25)
28.5 (12.0 / 11.6 / 11.7)
53 (23 / 22 / 19)
25.0 (10.4 / 10.1 / 8.9) 0.44
Characteristic PAd VCD P value No of patients % in PAd arm No of patients % in VCD arm
AE ≥ 3º (or ≥ 2º for infections, cardiac disorders, PNP and
thromboembolic events) 152 61.3 160 64.0 0.58
Any SAE 81 32.7 60 24.0 0.04
Leukocyto-/Neutropenia ≥ 3º 28 11.3 88 35.2 <0.01
AE Infections and Infestations ≥ 2º 61 24.6 56 22.4 0.60
SAE Infections and Infestations ≥ 2º 32 12.9 27 10.8 0.49
Disclosures: The GMMG MM5 Trial (EudraCT no. 2010-019173-16) is supported by grants from Janssen-Cilag, Celgene, Chugai and The Binding Site. Disclosures: Goldschmidt: Celgene: Consultancy, Honoraria, Research Funding; Chugai: Research Funding; Janssen Cilag: Consultancy, Honoraria, Research Funding. Duerig: Janssen Cilag: Honoraria; Celgene: Honoraria. Schmidt-Wolf: Janssen Cilag: Honoraria; Novartis: Honoraria. Weisel: Janssen Cilag: Consultancy, Honoraria; Celgene: Consultancy, Honoraria, Research Funding. Scheid: Janssen Cilag: Honoraria; Celgene: Honoraria; Novartis: Honoraria. Salwender: Janssen Cilag: Honoraria; Celgene: Honoraria. All other authors declared no potential conflict of interest.
Results
II. Prognostic value of CTCs assessment.
§ CTCs after IT are associated with poor PFS
§ MRD - positivity & CTCs after ASCT are associated with poor OS
Kaplan-Meier plots and corresponding p-values for CTC/MRD - negativity and OS/PFS.
IT induction therapy, ASCT high dose Melphalan and autologous stem cell transplantation
Circulating Tumor Cells as a Surrogate Marker
St. Huhn, ASH 2017, Poster Monday, Poster 4359
symptomatic MM 1st line treatment
18-70 years
3 x PAd
stem cell mobilisation (CAD+G-CSF) + leukapheresis
3 x VCD
first ASCT (melphalan 200 mg/m2)
second ASCT (melphalan 200 mg/m2) (if no nCR/CR)
2 x Lenalidomide
Randomization
Lenalidomide for 2 years
A1
Lenalidomide if no CR
B1
Lenalidomide for 2 years
A2
Lenalidomide if no CR
B2
A1 + B1 A2 + B2
1) 1)
1) High Risk Patients, optional in Phase II trial
Standard intensification according to local protocol
(GMMG standard)
GMMG MM5 trial in newly diagnosed Multiple Myeloma to evaluate PAd vs VCD induction prior to HDT followed by Lenalidomide consolidation and maintenance – final analysis on induction therapy
Hartmut Goldschmidt1, Jan Duerig2, Uta Bertsch1, Christina Kunz3, Thomas Hielscher3, Elias K. Loos1, Mathias Haenel2, Igor W. Blau2, Dirk Hose1, Anna Jauch1, Baerbel Schurich1, Kai Neben2, Anja Seckinger1, Barbara Huegle-Doerr1, Maximilian Merz1, Markus Munder2, Hans-Walter Lindemann2, Matthias Zeis2, Christian Gerecke2, Ingo G. H. Schmidt-Wolf2, Katja Weisel2, Christof Scheid2, Hans Salwender2
1German-Speaking Myeloma Multicenter Group (GMMG) and University Hospital Heidelberg, Germany, 2GMMG, Germany, 3Division of Biostatistics, German Cancer Research Center Heidelberg, Germany
GMMG MM5 Trial
Conclusions
Final analysis on induction
The MM5 phase III trial of the German-Speaking Myeloma Multicenter Group (GMMG) was designed to address two independent primary objectives: 1. Demonstration of non-inferiority of VCD (bortezomib, cyclophosphamide, dexamethasone) induction compared to PAd (bortezomib, adriamycin, dexamethasone) induction therapy with respect to response rate (very good partial response (VGPR) or better). 2. Determination of the best of four treatment strategies with respect to progression-free survival (PFS). The four treatment strategies are defined by PAd vs. VCD induction treatment, high dose melphalan followed by autologous stem cell transplantation and maintenance treatment with lenalidomide for 2 years vs. lenalidomide until complete response (CR) (figure 1). During the induction phase the patients are treated with 3 cycles of either PAd or VCD. PAd was dosed as bortezomib 1.3 mg/m2, days 1, 4, 8, 11, doxorubicin 9 mg/m2, days 1-4, dexamethasone 20 mg, days 1-4, 9-12, 17-20 (repeated every 28 days). VCD consisted of bortezomib 1.3 mg/m2, days 1, 4, 8, 11, cyclophosphamide 900 mg/m2 day 1, dexamethasone 40 mg, days 1-2, 4-5, 8-9, 11-12 (repeated every 21 days). The route of administration for bortezomib was changed from intravenously to subcutaneously in all study arms by a protocol amendment in February 2012 after inclusion of 314 patients.
Final analysis with respect to response rates after induction treatment and a safety analysis were done after recruitment of 504 patients (figure 2) as described in the protocol. Responses were assessed according to the response criteria of the International Myeloma Working Group (IMWG). The primary endpoint was the proportion of patients with at least very good partial response to treatment after induction therapy in each treatment arm (VGPR or better).
The proportion of patients with any adverse event was comparable in PAd vs. VCD (61.3% vs. 64.0%, p=0.58), but more serious adverse events (SAEs) were observed during PAd induction (32.7% vs. 24.0%, p=0.04). VCD led to a significantly higher proportion of leukocytopenia and neutropenia CTCAE grade 3 and 4 (PAd 11.3% vs. VCD 35.2%, p=<0.001). The number of infections (≥ CTCAE grade 2) and infection-related SAE was similar (PAd 24.6% vs. VCD 22.4% for AE, p=0.60 and PAd 12.9% vs. VCD 10.8% for SAE, p=0.49). Compared to the infection rate (AE ≥ CTCAE grade 2) of 49% during PAD (dexamethasone 40 mg on days 1-4, 9-12, 17-20) in the HOVON65/GMMG-HD4-trial, a reduction in MM5 during induction was observed. Preliminary data (412 patients) of numbers of collected CD34+ stem cells were comparable (PAd median 9.8x106 vs. VCD median 9.4x106 kg bodyweight, p=0.15). In the PAd arm more deaths were observed compared to the VCD arm (5 vs 1).
Both induction regimens in the current GMMG-MM5 trial show relevant efficacy after three cycles and a non-inferiority of VCD compared to PAd was found. PAd and VCD are well tolerated with more than 90% of the patients receiving all planned induction cycles. In conclusion, VCD was found to be a valid alternative to PAd with comparable efficacy and a favourable toxicity profile.
Table 1: Patient baseline characteristics
Figure 3: Response rates after induction PAd or VCD induction therapy.
Table 2: Toxicity during induction
In the PAd group 91.2% and in the VCD group 96.0% of the patients completed three planned induction cycles. Applied total bortezomib dose over all three cycles was comparable in both, PAd and VCD arms. Response rates were similar in both induction regimens (PAd vs. VCD) with 34.3% vs. 37.0% of patients achieving VGPR or better. Non-inferiority of VCD compared to PAd was shown (one-sided p=0.0013). Similar results were obtained in the PP analysis. CR rates were 4.4% and 8.4% (PAd vs. VCD) and 21.1% and 22.3% (PAd vs. VCD) for near complete response (nCR) or better. Partial response (PR) or better was reached in 72.1% vs. 78.1% of the patients (PAd vs. VCD) (figure 3).
Results
Figure 2: Consort diagram
Patients treated with PAd or VCD were equally distributed for ISS and Durie-Salmon disease stage, kidney function and the high-risk cytogenetic abnormalities deletion (17p), translocation t(4;14) and gain 1q21 (>3 copies). There were significant differences in patient age and distribution of WHO performance status (table 1).
Patients not receiving allocated intervention due
to: - myocardial infarction prior
to therapy (n = 1) - death (n = 1)
Patients not receiving allocated intervention due
to: - non-compliance (n = 1) - withdrawal of consent
(n = 2)
One patient excluded from ITT (due to unconfirmed
diagnosis of multiple myeloma requiring systemic
therapy) received VCD therapy and was included in
safety analysis
Excluded from PP analysis - incomplete induction
therapy (n = 5) - missing response assessment (n = 3)
- one patient not ITT not PP but Safety (see above)
Excluded from PP analysis - incomplete induction
therapy for reasons other than PD (n = 9)
- missing response assessment (n = 6)
- randomized PAd and treated VCD (n = 1)
Randomized (n = 504)
Two patients were excluded from ITT due to unconfirmed diagnosis of multiple myeloma
requiring systemic therapy
PAd (n = 251)
Received allocated
intervention (n = 248)
randomized PAd and treated VCD (n = 1)
VCD (n = 251)
Received allocated
intervention (n = 249)
3 cycles n = 234 2 cycles n = 10 1 cycle n = 5
3 cycles n = 244 2 cycles n = 4 1 cycle n = 1
ITT n = 251 Per-Protocol n = 233 Safety n = 249
ITT n = 251 Per-Protocol n = 240 Safety n = 249
Baseline characteristics
Figure 1: Flow sheet GMMG MM5 Trial
CR nCR PR MR SD PD
PAd
VCD
Perc
ent (
%)
0
10
20
30
40
Response rates (ITT) VGPR missing
Characteristic PAd VCD P value No of patients % in PAd arm no of patients % in VCD arm
Sex (male / female) 147 / 104 58.6 / 41.4 153 / 98 61.0 / 39.0 0.65
Age in years (median, range) 59.4 (37 - 70) 58.7 (33 - 70) 0.04
Salmon and Durie stage (IA-IIB / IIIA-IIIB) 27 / 224 10.8 / 88.2 30 / 221 12.0 / 88.0 0.78
ISS stage (I / II / III) 99 / 80 / 72 39.4 / 31.9 / 28.7 94 / 82 / 75 37.5 / 32.7 / 29.9 0.91
WHO performance status (0-1 / 2-3 / unknown) 215 / 30 / 6 85.7 / 11.9 / 2.4 230 / 21 / 0 91.6 / 8.4 / 0.0 0.01
LDH above ULN 46 18.4 44 17.5 0.82
Calcium elevation 40 15.9 31 12.3 0.31
Renal insufficiency 38 15.1 39 15.5 1.00
Anemia 124 49.4 138 55.0 0.25
Bone disease 229 91.2 223 88.8 0.46
High-risk cytogenetics (del 17p / t (4;14) / gain 1q21)
61 (26 / 25 / 25)
28.5 (12.0 / 11.6 / 11.7)
53 (23 / 22 / 19)
25.0 (10.4 / 10.1 / 8.9) 0.44
Characteristic PAd VCD P value No of patients % in PAd arm No of patients % in VCD arm
AE ≥ 3º (or ≥ 2º for infections, cardiac disorders, PNP and
thromboembolic events) 152 61.3 160 64.0 0.58
Any SAE 81 32.7 60 24.0 0.04
Leukocyto-/Neutropenia ≥ 3º 28 11.3 88 35.2 <0.01
AE Infections and Infestations ≥ 2º 61 24.6 56 22.4 0.60
SAE Infections and Infestations ≥ 2º 32 12.9 27 10.8 0.49
Disclosures: The GMMG MM5 Trial (EudraCT no. 2010-019173-16) is supported by grants from Janssen-Cilag, Celgene, Chugai and The Binding Site. Disclosures: Goldschmidt: Celgene: Consultancy, Honoraria, Research Funding; Chugai: Research Funding; Janssen Cilag: Consultancy, Honoraria, Research Funding. Duerig: Janssen Cilag: Honoraria; Celgene: Honoraria. Schmidt-Wolf: Janssen Cilag: Honoraria; Novartis: Honoraria. Weisel: Janssen Cilag: Consultancy, Honoraria; Celgene: Consultancy, Honoraria, Research Funding. Scheid: Janssen Cilag: Honoraria; Celgene: Honoraria; Novartis: Honoraria. Salwender: Janssen Cilag: Honoraria; Celgene: Honoraria. All other authors declared no potential conflict of interest.
0 1-10 11-20 > 200
10
20
30
40
50
60
1. MRI2. MRI
Number of focal lesions
Num
ber o
f pat
ient
s
Hillengass et al., Haematolgica 2012
Whole Body - MRI in MM (n=100):Comparison: Start of Therapy – After ASCT
wikipedia
Paul Ehrlich 1854 - 2015
Quelle: Trillium Immunologie 2018; 2(4) – Eine kurze Zeitreise Von Ehrlichs Seitenkette bis zur Entdeckung der Plasmazelle – Autoren: S.R. Schulz, H-M Jäck, K. Pracht
Paul Ehrlich Nobel Prize 1908
FGFR3
CD40
SLAMF7/CS1
CD138
Anti-CD56anti-CD40 PRO-001 or Chir-258HuLuc63anti-CD138-DM1Anti-IGF1RBevacizumab
IGF1R
VEGFR
BMSC
Growth FactorsIL-6RANKLVEGFIGF-1SDF-1aBAFF, APRIL
MM cell
C56
CD38
VCAM-1Fibronectin
ICAM-1 LFA-1MUC-1VLA-4
Adhesion
Raab et al., Lancet 2009
Targets for MCAB Therapy in MMCell Surface Targets
BCMA
Surface Antigens on Clonal Plasma Cells
a Approved by the FDA and EMA.BCMA, B-cell maturation antigen; IL-6, interleukin-6; PD-L1, programmed cell death-ligand; RANKL, receptor activator of nuclear factor kappa-Β ligand.
Bhatnagar V, et al. Oncologist. 2017;22:1347-53. Gormley NJ, et al. Clin Cancer Res. 2017;23:6759-63. Jelinek T, et al. Front Immunol. 2018;9:2431. Moreno L, et al. Clin Cancer Res. 2019;25:3176-87.
Raab MS, et al. Blood. 2016;128:1152. Rawstron AC, et al. Haematologica. 2008;93:431-8.
CD38
SLAMF-7
PD-L1
BCMA
CD138
CD56
CD28
Daratumumaba,Isatuximab, MOR202
Elotuzumaba
Durvalumab
CD40
CD137
IL-6a
RANKLa
Kappa light chain
CAR T cell targets
BCMA: A Good Target
APRIL, a proliferation-inducing ligand; BAFF-R, B-cell activating factor receptor; GC, germinal centre; LN, lymph node; MGUS, monoclonal gammopathy of unknown significance; sBCMA, soluble BCMA; TACI, transmembrane activator and CAML interactor.
Cho SF, et al. Front Immunol. 2018;9:1821. Moreaux J, et al. Blood. 2004;103:3148-57. Sanchez E, et al. Br J Haematol. 2012;158:727-38.
-
BCMAImmunoglobulin
BM LN BM, LN
Pro-B Pre-B Transitional Naive GC B Memory Plasmablast PC
Short-lived PC
Long-lived PC MM BCMATACIBAFF-R
• BCMA is an antigen expressed specifically on PCs and myeloma cells– higher expression in myeloma cells than normal PCs– key role in B-cell maturation and differentiation– promotes myeloma cell growth, chemoresistance, and
immunosuppression in the BM microenvironment
• Expression of BCMA increases as the disease progresses from MGUS to advanced myeloma
53
Phase 1 Phase 2 Phase 3Preclinical
GSK2857916 (GSK)BCMA ADC
CART BCMA (Penn/Novartis)4-1BB costim & human scFv
FCARH143 (Fred Hutch/Juno/NCI)CD28 costim & murine scFv
bb2121 (bluebird/Celgene)4-1BB costim & murine scFv
AMG 420** (Amgen)BCMA x CD3 BiTE
BCMA T cell antigen coupler(Triumvira)
CC-93269*(Celgene)BCMAxCD3 T cell engager
PF-06863135(Pfizer)BCMAxCD3 bispecific
P-BCMA-101 (Poseida)Centryin-based CART
CART BCMA (Cellectis/Pfizer)allogenic CART cells
AFM26 (Affimed)BCMAxCD16A
BCMA ADC (Celgene/Sutro)
HDP-101 (Heidelberg Pharma)anti-BCMA ADC
JCARH125(Juno/Celgene)CAR-T
KITE-585 (Kite)CD28 costim & human scFV CAR-T
BCMAxPD-L1 bispecific (Immune Pharmaceuticals)
Phase 1 Ph 2
Preclinical
* acquired via EngMab acquisition (formerly called EM901)** acquired from Boehringer (formerly called BI 836909)^ Also in development in combination with Unum’s ACTR087
Update presented at AACR
First look at AACR
No updates at AACR
SEA-BCMA^Seattle Geneticsanti-BCMA mAb
AMG 701(Amgen)anti-BCMA HLE BiTE
Allogeneic BCMA CAR-T(CRISPR)
ET140(Juno/Eureka/MSKCC)4-1BB costim anti-CAR-T
bb21217 (bluebird/Celgene)4-1BB costim anti-CAR-T
AUTO2(Autolus)Anti-APRIL CAR-T
BION-1301(Aduro)Anti-APRIL mAb
ACTR087(Unum)Antibody-coupled T-cell receptor
BCMA Key Candidates in Development
Overview about BCMA Trials 5/2018 24 Trials 8/2019 46 Trials
Combination of linical Parameters with Omics and Imaging Data => “Systems Medicine”
Germline Tumor
Sequencing
Expression
Genetic Variation Prognosis
? ?
? ?
?
Clinical Parameters
Cytogenetics
ImagingImmune Oncology
Minimal Residual Disease
Induction6 Cycles Ab-VRd
HD+A
SCT
CR and
MRD neg
Immunotreatment
MaintenanceAb-R
For up to 2 years
Immunotreatment
MRDneg
Loss of
MRD-
Add on
yes
If≤V
GPR
HD+A
SCT
Every 6 months
R
MaintenanceAb-R
6 Months
MRD pos
MaintenanceAb-R
until PD
?
PD
Add onGMMG HD8 Proposal NDMM up to 70 Years
75%
Immunotreatment
PD
100%
50%
50%
875
328
R
STOP
MaintenanceAb-R
until PD
Ab-RVD vs. Ab-RVD liteAb-KRD
„Thank You“ to the Heidelberg Myeloma Team and the GMMG Study Group
Thank You for Your Attention