Blastocentesis: innovation in embryo biopsy

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Blastocentesis: innovation in embryo biopsy L. Gianaroli, MC Magli, A. Pomante, AP Ferraretti S.I.S.Me.R. Reproductive Medicine Unit, Bologna, Italy Bologna, 8-11 May 2016 www.iiarg.com www.sismer.it 2013 2014 2014 2015 2016 1

DETECTION OF DNA IN THE BLASTOCOELIC FLUID 95/116 (82%) 39/51 (76.5%) 2013 2014 2014 2015 2016 4/5(80%) 60/96(63%) 8/11 (72.7%) DETECTION OF DNA IN THE BLASTOCOELIC FLUID TOT: 206 2013-2016 S.I.S.Me.R. data 2

DETECTION OF DNA IN THE BLASTOCOELIC FLUID Our experience throughout time on 206 BFs Last 149 BFs % Time of biopsy? Blastocyst morphology? DETECTION OF DNA IN THE BLASTOCOELIC FLUID Strong 3 DNA Amplification Weak 2 Early blastocysts Expanding blastocysts Expanded blastocysts Failed 1 90 100110120130 Hours post ICSI 140 150160170180 10 14 26 22 18 Blasticyst Morphology 30 Expanded Day 5 blastocysts have the highest chances of having DNA in the BF 3

1. BF aspiration COLLECTION PROCEDURE Gianaroli et al., Fert Ster, 2014 2. BF aspiration 2,5µl Zhang et al., J Assist Reprod Genet, 2016 THE BLASTOCOELIC FLUID Where does this DNA come from? Direct sequencing of 3 pooled blastocoelic fluids FRAGMENTS LENGTH 160-220 bp 300-400 bp DNA FRAGMENTS LENGTH SIMILAR TO CIRCULATING PLASMA DNA TYPICAL LENGHT OF APOPTOTIC FRAGMENTS Zhang et al., J Assist Reprod Genet, 2016 4

THE BLASTOCOELIC FLUID WGA COVERAGE (SurePlex DNA Amplification System) Chromosome density plots of mapped sequencing reads from 8 blastomeres Chromosome density plots of mapped sequencing reads from 8 corresponding Blastocoel fluids Density pattern similar within each group and between the two groups Even if BF DNA is highly fragmented, it is possible to generate a WGA product similar to that of cells with an intact genome Zhang et al., J Assist Reprod Genet, 2016 CONCORDANCE STUDY 105 BFs 5

CONCORDANCE STUDY Indicators 1.Ploidy condition Correspondence in terms of euploidy/aneuploidy (Transferrable/Not Transferrable) FULL PARTIAL NULL 2.Chromosome concordance Percentage of correspondence of all studied chromosomes between the different stages of the analyzed embryos. CONCORDANCE STUDY CONCORDANCE PER SAMPLE Polar bodies(n=35) 80 60 % 40 20 0 77 20 3 Blastomeres (n=70) 64.3 22.8 12.9 Trophectoderm (n=98*) PB Vs BF EB Vs BF TE Vs BF 79.4 16.5 4.1 Blastocoelic fluid (n=105) Total concordance Partial concordance No concordance 2 sample failed amplification 5 embryos were transferred 6

CONCORDANCE STUDY PLOIDY CONCORDANCE Polar bodies(n=35) Blastomeres (n=70) Trophectoderm (n=98*) Blastocoelic fluid (n=105) 64.3 79.4 % 3 97% 85.8% 95.9% CONCORDANCE OF PLOIDY 22.8 12.9 16.5 4.1 CONDITION PB Vs BF EB Vs BF TE Vs BF 2 sample failed amplification 5 embryos were transferred Pb1: gain 8 Pb2: gain 15, 22 Full concordance PBs vs. BF Blastocoelic Fluid: loss 8, 15, 22 7

Blastocoelic Fluid: loss 21 Full concordance TE vs. BF Trophectoderm: loss 21 CONCORDANCE STUDY 9 DISCORDANT CASES BLASTOMERES VS BF: ID sample DAY 3 DAY 5/6 morphology Chromosomal status morphology TE Chromosomal status BF Chromosomal status 68 10c1-2p Bl1 NR euploid 206 8c1 Xp22.3->Xq21.31 Bl 3,1,1 ET euploid 192 8c1 +9 Bl 2,1,1-9 euploid 225 10c2f1 +5,6 Bl 2,2,2 +10,-6 euploid 258 8c1 +9 Bl 3,0,3 euploid euploid 240 8c1 +12,19 Bl 3,1,2 euploid euploid 232 8c1 +15,17-1,14,X Bl 3,1,1 euploid euploid 263 8c1-1,9 Bl 3,1,1 euploid euploid 271 7c2 -Y Bl 3,1,1 euploid euploid 8

Ploidy discordance Blastomere vs. BF Blastomere: gain 9 Blastocoelic Fluid: euploid Ploidy discordance TE vs. BF Mosaicism? Trophectoderm: loss 9 Embryo: loss 9 CONCORDANCE STUDY CONCORDANCE PER CHROMOSOME Polar bodies(n=35) Blastomeres (n=70) Trophectoderm (n=98*) Blastocoelic fluid (n=105) 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% 98.2% 96.2% 98.4% PB Vs BF EB Vs BF TE Vs BF 791/805 1617/1680 2314/2352 2 sample failed amplification 5 embryos were transferred 9

DOUBLE TROPHECTODERM BIOPSIES DOUBLE TE BIOPSY 14 blastocysts D3 aneuploidy BF collection Double trophectoderm biospy Whole embryo analysis 12 10 8 6 4 2 0 11 TE1 vs TE2 1 total concordance partial concordance no concordance In 1 case the ploidy condition was confirmed but the number of aneuploid chromosomes was different 2 In 2 cases the ploidy condition was different 10

DOUBLE TE BIOPSY TE1: euploid TE2: +20, -13q Only TE2 and BF confirmed the ploidy condition of the embryo BF: +13q Embryo: -13 DOUBLE TE BIOPSY TE1: euploid (mosaic 21?) TE2: +2,11-8 TE1 and BF showed the same profile of the whole embryo BF: euploid (mosaic 21?) Embryo: euploid (mosaic 21?) 11

DOUBLE BF BIOPSY DOUBLE BF COLLECTION 1 ST BF collection 12

DOUBLE BF COLLECTION 6 hours later DOUBLE BF COLLECTION 2 nd BF collection 13

DOUBLE BF COLLECTION Day 3 biopsy 1 st BF 2 nd BF TE biopsy DNA AMPLIFICATION array-cgh DOUBLE BF COLLECTION RESULTS: All the analyzed samples gave the same result for both BF biopsies ID SAMPLE DAY 3 BIOPSY 1 st BF 2 nd BF TE biopsy 2 -Y euploid euploid euploid 3 +19,22 +19,22 +19,22 +19,22 8 +16,18 +16,18 +16,18 +16,18 14

DOUBLE BF COLLECTION RESULTS Blastomere: +16,18 1 st BF: +16,18 All samples showed the same profile Higher level of mosaicism in TE 2 nd BF: +16,18 TE: +16,18 BLASTOCOELIC FLUID: WHAT ABOUT PGD? Translocations Monogenic diseases 15

PGD FOR TRANSLOCATIONS 105 BLASTOCYSTS (2013-2015) 17 BLASTOCYSTS 6 COUPLES TRANSLOCATION CARRIERS 6 COUPLES NORMAL KARYOTYPE 12 COUPLES INCIDENCE OF DE NOVO SEGMENTAL ABNORMALITIES: 8/77 (10.4%) Segmental abnormality in translocation carriers 46 XX,t(3;8)(p25;q12) Blastomere: gain 8q21.3-8q24.3, loss 3p25.3-3p26.3 Ploidy conordance EB vs. BF BF: gain 8q21.3-8q24.3, loss 3p25.3-3p26.3 16

De novo segmental abnormality PB1 Blastocoele PB2-4q -4q Trophectoderm -4q, -16 Embryo -4q, -16-4q, -16 DETECTION OF SEGMENTAL ABNORMALITY In all analyzed cases the segmental abnormality was detected Blastocoelic fluids (n=17) n=3 n=14 n=17 n=17 15 10 5 17 16 17 0 17

Patient: 46XX,t(5;10)(q13;p12). DETECTION OF SEGMENTAL ABNORMALITY DISCORDANT CASE Blastomere Blastocoele 10p11.23-10q26.3 Trophectoderm TE discordant with the other samples of the same embryo Embryo Magli et al, FertSter2016 BLASTOCOELIC FLUID: WHAT ABOUT PGD? Translocation Monogenic diseases 18

PGD FOR MONOGENIC DISEASES 41,210 genes co-detected in both the BF and blastomere samples suggesting similar gene coverage after WGA BF WGA product contained sequences of the majority of known genes and, specifically, disease genes, which are commonly the subject of different single gene PGD cases. Zhang et al., J Assist Reprod Genet, 2016 PCR validation of randomly selected genes in WGA products from 5 BF samples PGD FOR MONOGENIC DESEASES The majority of samples showed a PCR fragment of the expected size for the ten tested genes 42/50 POSITIVE RESULT FOR TESTED GENES (84%) 19

PGD FOR MONOGENIC DISEASES CASE REPORT NORMAL CARRIER Blastocentesis + TE biopsy PGD PGD for SCIDX1(c.374insA Mutation in IL2RG Gene) The PGD lab was blinded on the origin of the samples PGD FOR MONOGENIC DISEASES CASE REPORT In all cases BF gave the same result of trophectoderm biopsy DXS 1216 DXS 8031 IL2RG Mutation DXS 559 DXS 8079 DXS 8066 DXS 8060 DXYS 1223 DXYS 1071 Genotype BF 121 157 N 137/133 99 121/123 130/132 134/144 122/120 Normal Female TE 121 157 N 137/133 99 121/123 130/132 134/144 122/120 Normal Female BF 123 148 c.374insa 140 95 119 128 124/144 118/120 Affected Male TE 123 148 c.374insa 140 95 119 128 124/144 118/120 Affected Male BF FA FA c.374insa FA 99 121/123 130/132 FA FA No result TE FA FA FA FA FA FA FA FA FA No result BF 121/123 157/148 N/c.374insA 133/140 99/95 121/119 130/128 133/144 122/120 Carrier Female TE 121/123 ADO/148 N/c.374insA 133/140 99/95 121/119 130/128 133/144 122/120 Carrier Female MALE 121 157 N 137 99 121 130 133/124 122/118 FEMALE 121/123 157/148 N/c.374insA 133/140 99/95 123/119 132/128 133/144 118/120 20

IS BLASTOCENTESIS A SAFE PROCEDURE? COLLAPSING OF BLASTOCYSTS BEFORE VITRIFICATION 37 couples Blastocentesis 47 blastocysts per se does not affect embryo viability VITRIFICATION 100% 80% 60% 40% 20% 0% THAWING EMBRYO TRANSFER 100% 100% Survival Rate SURVIVED NOT SURVIVED 80% 60% 40% 20% 0% 24 PREGNANCIES (19 ongoing) 65% Pregnancy Rate 21

RESULTS No Blastocentesis Blastocentesis Improvement in frozen embryo transfer outcome (better implantation, pregnancy, and delivery rates) when expanded blastocysts undergo artificial shrinkage prior to vitrification. No difference in the mean age, survival rate and mean transferred blastocysts Significantly higher implantation rate, pregnancy rate and delivery rate in Artificial Shrinkage group 22

CAN BLASTOCOELIC FLUID BE USED FOR GRADING OF EMBRYOS? CASE REPORT Oocyte pick up 10 oocytes IVF PREGNANCY 5 blastocysts BLASTOCENTESIS Chromosomal analysis of BF (onlywhenthereisan array available in a PGS series) Vitrification Thawing Only1 EuploidBF ET 23

CONCLUSIONS DNA can be detected in the majority of Blastocoelic fluids (best performance on Day-5 expanded blastocysts) The DNA in the Blastocoelic Fluid is highly representative of the blastocyst chromosomal status (95.5% of cases) Blastocentesis is less invasive for the embryo Blastocentesis is more convenient for the lab Blastocentesis could be ethically more acceptable Segmental abnormalities can be detected in Blastocoelic fluid possible use of bastocentesis for PGD for translocations. PGD for monogenic deseases BF analysis can be used for grading of embryos The Blastocoelic Fluid can be an alternative source of DNA for preimplantation genetic testing 24