LDLR oligonucleotides

The oligonucleotides found in the Hobbs et al, 1992 and Leitersdorf et al, 1990 paper are found on the gene map but many oligonucleotides have been published since. Some are listed in tables below:

Table 1: Hobbs et al, 1992; Hum Mutat 1:445. Marked on gene map.

Table 2: Leitersdorf et al, 1990; J Clin Invest 85:1014. Marked on gene map.

Table 3: Combination of Hobbs, Leitersdorf & Gudnason oligonucleotides which amplify at one PCR condition (Day et al, 1997; Hum Mutat 10:116). Marked on gene map.

Table 4: Lombardi et al, 1995; J Lipid Res 36:860. Oligonucleotide sequences for the amplification of LDLR using DGGE.

Table 5: Nissen et al, 1995; Hum Mutat 8:168. Oligonucleotide sequences for the amplification of LDLR using DGGE.

Table 6: Ekstrom et al, 1998, E J Clin Investig 28:740. Oligonucleotide sequences for the amplification of LDLR using DGGE.

Table 7: Heath et al, unpublished.

Table 1: Oligonucleotide sequences for the amplification of LDLR (Hobbs et al, 1992; Hum Mutat 1:445). Marked on gene map.

Region/

exon

Oligonucleotide sequence

(Sense & antisense, 5’ to 3’)

Size

(bp)

Promoter

FH1 GAG TGG GAA TCA GAG CTT CAC GGG T

FH20 CCA CGT CAT TTA CAG CAT TTC AAT G

155

Exon 1

FH2 ACT CCT CCC CCT GCT AGA AAC CTC A

FH21 TTC TGG CGC CTG GAG CAA GCC TTA C

234

Exon 2

FH3 CCT TTC TCC TTT TCC TCT CTC TCA G

FH22 AAA ATA AAT GCA TAT CAT GCC CAA A

172

Exon 3

FH4 TGA CAG TTC AAT CCT GTC TCT TCT G

FH23 ATA GCA AAG GCA GGG CCA CAC TTA C

176

Exon 4

(4A - 5’end)

4AF GTT GGG AGA CTT CAC ACG GTG ATG G

4AR ACT TAG GCA GTG GAA CTC GAA GGC C

355

Exon 4

(4B - 3’end)

4BF CCC CAG CTG TGG GCC TGC GAC AAC G

4BR GGG GGA GCC CAG GGA CAG GTG ATA G

267

Exon 5

FH5 CAA CAC ACT CTG TCC TGT TTT CCA G

FH24 GGA AAA CCA GAT GGC CAG CGC TCA C

173

Exon 6

FH6 TCC TTC CTC TCT CTG GCT CTC ACA G

FH25 GCA AGC CGC CTG CAC CGA GAC TCA C

174

Exon 7

FH7 AGT CTG CAT CCC TGG CCC TGC GCA G

FH26 AGG GCT CAG TCC ACC GGG GAA TCA C

169

Exon 8

FH8 CCA AGC CTC TTT CTC TCT CTT CCA G

FH27 CCA CCC GCC GCC TTC CCG TGC TCA C

175

Exon 9

FH9 TCC ATC GAC GGG TCC CCT CTG ACC C

FH28 AGC CCT CAT CTC ACC TGC GGG CCA A

271

Exon 10 (5’end)

FH10 AGA TGA GGG CTC CTG GTG CGA TGC C

FH29 GCC CTT GGT ATC CGC AAC AGA GAC A

202

Exon 10 (3’end)

FH11 GAT CCA CAG CAA CAT CTA CTG GAC C

FH30 AGC CCT CAG CGT CGT GGA TAC GCA C

162

Exon 11

FH12 CAG CTA TTC TCT GTC CTC CCA CCA G

FH31 TGG GAC GGC TGT CCT GCG AAC ATA C

168

Exon 12

FH13 GCA CGT GAC CTC TCC TTA TCC ACT T

FH32 CAC CTA AGT GCT TCG ATC TCG TAC G

209

Exon 13

FH14 GTC ATC TTC CTT GCT GCC TGT TTA G

FH33 GTT TCC ACA AGG AGG TTT CAA GGT T

217

Exon 14

FH15 CCT GAC TCC GCT TCT TCT GCC CCA G

FH34 CGC AGA AAC AAG GCG TGT GCC ACA C

202

Exon 15

FH16 GAA GGG CCT GCA GGC ACG TGG CAC T

FH35 GTG TGG TGG CGG GCC CAG TCT TTA C

246

Exon 16

FH17 CCT CAC TCT TGC TTC TCT CCT GCA G

FH36 CGC TGG GGG ACC GGC CCG CGC TTA C

127

Exon 17

FH18 TGA CAG AGC GTG CCT CTC CCT ACA G

FH37 GCT TTC TAG AGA GGG TCA CAC TCA C

207

Exon 18

FH19 TCC GCT GTT TAC CAT TTG TTG GCA G

FH37 AAT AAA ACA AGG CCG GCG AGG TCT C

135

PCR conditions: 1.5mM MgCl2.

Cycle conditions: (96oC 1min, 68oC 5min) x30.

 

 

Table 2: Oligonucleotide sequences for the amplification of LDLR (Leitersdorf et al, 1990; J Clin Invest 85:1014). Marked on gene map.

Region/

exon

Primer

Oligonucleotide sequence

(Sense & antisense, 5’ to 3’)

Size

(bp)

Cycle conditions

Prom

FH110

FH130

CAG CTC TTC ACC GGA GAC CC

ACC TGC TGT GTC CTA GCT GG

277

94(1),57(1),74 (1)

Exon 1

FH111

FH131

CAC ATT GAA ATG CTG TAA ATG ACG

CTA TTC TGG CGC CTG GAG CAA GCC

215

94(1),59(1),74 (2)

Exon 2

FH112

FH132

TTG AGA GAC CCT TTC TCC TTT TCC

GCA TAT CAT GCC CAA AGG GG

183

94(1),57(1),74 (1)

Exon 3

FH113

FH133

TTC CTT TGA GTG ACA GTT CAA TCC

GAT AGG CTC AAT AGC AAA GGC AGG

196

94(1),57(1),74 (1)

Exon 4

(5’end)

FH114

FH134

GTG GTC TCG GCC ATC CAT CC

AGC CAT CTT CGC AGT CGG GG

242

94(1),63 (1),74 (2)

Exon 4

(3’end)

FH115

FH135

CCC CCA GCT GTG GGC CTG CG

CGC CCC CAC CCT GCC CCG CC

237

94(1),66(1),74 (2)

Exon 5

FH116

FH136

AGA AAA TCA ACA CAC TCT GTC CTG

GGA AAA CCA GAT GGC CAG CG

180

94(1),58(1),74 (1)

Exon 6

FH117

FH137

TCC TCC TTC CTC TCT CTG GC

TCT GCA AGC CGC CTG CAC CG

179

94(1),56(1),74 (1)

Exon 7

FH118

FH138

GGC GAA GGG ATG GGT AGG GG

GTT GCC ATG TCA GGA AGC GC

236

94(1),57(1),74 (1)

Exon 8

FH119

FH139

CAT TGG GGA AGA GCC TCC CC

GCC TGC AAG GGG TGA GGC CG

220

94(1),64(1),74 (2)

Exon 9

FH129

FH140

CCC CTG ACC TCG CTC CCC GG

GCT GCA GGC AGG GGC GAC GC

224

94(1),63(1),74 (2)

Exon 10

FH121

FH141

ATG CCC TTC TCT CCT CCT GC

AGC CCT CAG CGT CGT GGA TA

278

94(1),58(1),74 (2)

Exon 11

FH122

FH142

TCC TCC CCC GCC CTC CAG CC

GCT GGG ACG GCT GTC CTG CG*

194

94(1),65(1),74 (2)

Exon 12

FH123

FH143

ACT GGC ATC AGC ACG TGA CC

CGT GTG TCT ATC CGG CCA CC

236

94(1),58(1),74 (2)

Exon 13

FH124

FH144

GTC ATC TTC CTT GCT GCC TG

TTC CAC AAG GAG GTT TCA AGG TTG GGG GGG

329

94(1),59(1),74 (3)

Exon 14

FH125

FH145

AAA TTT CTG GAA TCT TCT GG

GCA GAG AGA GGC TCA GGA GG

268

94(1),59(1),74 (5)

Exon 15

FH126

FH146

AGA AGA CGT TTA TTT ATT CTT TC

GTG TGG TGG CGG GCC CAG TCT TT

221

94(1),55(0.5),74 (1.5)

Exon 16

FH127

FH147

CCT TCC TTT AGA CCT GGG CC

CAT AGC GGG AGG CTG TGA CC

173

94(1),58(1),74 (2)

Exon 17

FH128

FH148

GGG TCT CTG GTC TCG GGC GC

GGC TCT GGC TTT CTA GAG AGG G

242

94(1),58(1),74 (2)

Exon 18

FH129

FH149

GCC TGT TTC CTG AGT GCT GG

TCT CAG GAA GGG TTC TGG GC

135

94(1),56(1),74 (2)

All PCR reactions consisted of 35 cycles and were completed by an extension of 10 min at 74oC.

* The first base in the 5’end is not on the gene map.

Table 3: Oligonucleotide sequences for the amplification of LDLR exons at one PCR condition. Marked on gene map.

Region/

exon

Oligonucleotide sequence

(Sense & antisense, 5’ to 3’)

Size

(bp)

Prom

FH110 CAG CTC TTC ACC GGA GAC CC

FH130 ACC TGC TGT GTC CTA GCT GG

277

Exon 1

FH2 ACT CCT CCC CCT GCT AGA AAC CTC A

FH131 CTA TTC TGG CGC CTG GAG CAA GCC

238

Exon 2

FH112 TTG AGA GAC CCT TTC TCC TTT TCC

FH132 GCA TAT CAT GCC CAA AGG GG

183

Exon 3

FH113 TTC CTT TGA GTG ACA GTT CAA TCC

FH133 GAT AGG CTC AAT AGC AAA GGC AGG

196

Exon 4

(5’end)

FH51 GGTCTCGGCCATCCATCCCTG

FH52 CTGTTGCACTGGAAGCTGGCGG

242

Exon 4

(mid)

FH53 AGACGAGGCCTCCTGCCCGGT

FH54 GAGCAGGGGCTACTGTCC

180

Exon 4

(3’end)

FH55 CGACTGCGAAGATGGCTCG

FH169 GGAACCCAGGGACAGGTGATAGGAC

235

Exon 5

FH116 AGA AAA TCA ACA CAC TCT GTC CTG

FH136 GGA AAA CCA GAT GGC CAG CG

180

Exon 6

FH117 TCC TCC TTC CTC TCT CTG GC

FH137 TCT GCA AGC CGC CTG CAC CG

179

Exon 7

FH118 GGC GAA GGG ATG GGT AGG GG

FH138 GTT GCC ATG TCA GGA AGC GC

236

Exon 8

FH119 CAT TGG GGA AGA GCC TCC CC

FH27 CCA CCC GCC GCC TTC CCG TGC TCA C

197

Exon 9

FH9 TCC ATC GAC GGG TCC CCT CTG ACC C

FH28 AGC CCT CAT CTC ACC TGC GGG CCA A

273

Exon 10

(5’end)

FH10 AGA TGA GGG CTC CTG GTG CGA TGC C

FH29 GCC CTT GGT ATC CGC AAC AGA GAC A

202

Exon 10

(3’end)

FH11 GAT CCA CAG CAA CAT CTA CTG GAC C

FH141 AGC CCT CAG CGT CGT GGA TA

163

Exon 11

FH12 CAG CTA TTC TCT GTC CTC CCA CCA G

FH142 GCT GGG ACG GCT GTC CTG CG*

171

Exon 12

FH13 GCA CGT GAC CTC TCC TTA TCC ACT T

FH32 CAC CTA AGT GCT TCG ATC TCG TAC G

211

Exon 13

FH124 GTC ATC TTC CTT GCT GCC TG

FH33 GTT TCC ACA AGG AGG TTT CAA GGT T

218

Exon 14

FH265 GAA TCT TCT GGT ATA GCT GAT

FH145 GCA GAG AGA GGC TCA GGA GG

288

Exon 15

FH16 GAA GGG CCT GCA GGC ACG TGG CAC T

FH146 GTG TGG TGG CGG GCC CAG TCT TT

247

Exon 16

FH127 CCT TCC TTT AGA CCT GGG CC

FH147 CAT AGC GGG AGG CTG TGA CC

173

Exon 17

FH128 GGG TCT CTG GTC TCG GGC GC

FH148 GGC TCT GGC TTT CTA GAG AGG G

242

Exon 18

FH129 GCC TGT TTC CTG AGT GCT GG

FH149 TCT CAG GAA GGG TTC TGG GC

135

Oligonucleotides FH2-FH33 (Hobbs et al, 1992; Hum Mutat 1:445), FH51-52 (Gudnason et al, 1994); FH53-54 (Gudnason PhD thesis, 1995); FH55 & FH169 (Gudnason et al, 1993); FH110-149 (Leitersdorf et al, 1990; J Clin Invest 85:1014). (AAAGTCGAC) has a SalI site attached to the 5’end of FH51. * The first base in the 5’end is not on the gene map.

These combination of primers amplify under one condition, 1.5mMgCl2 and cycle conditions of: 96oC 5min x 1, (96oC 1min, 57oC 1min, 72oC 1min) x35, 72oC 5min (Day et al, 1997; Hum Mutat 10:116-27 & Heath et al, 1999; Atherosclerosis 143:41-54).

 

Table 4: Oligonucleotide sequences for the amplification of LDLR using DGGE (Lombardi et al, 1995; J Lipid Res 36:860).

Region/

exon

Primer

Nucleotide

Oligonucleotide

(Sense & antisense, 5’ to 3’)

DMSO

(10% (v/v) (+/-) & MgCl2 (mM)

Denat

grad

(%)

Exon 1

B2772

A2773

-255® 67+25

gAAT GCT GTA AAT GAC GTG G

TTC TGG CGC CTG GAG CAA G

-

1.5

60-80

Exon 2

B3118

A3119

68-25® 190+35

gCCT TTC TCC TTT TCC TCT CTC TC

AAA ATA AAT GCA TAT CAT GCC CA

+

1.5

40-75

Exon 3

B3078

A3079

190-28® 313+26

gTGA CAG TTC AAT CCT GTC TCT TC

AAT AGC AAA GGC AGG GCC ACA CT

+

1.5

40-75

Exon 4

A2534

B2535

314-25® 694+31

TGG TCT CGG CCA TCC ATC C

gACG CCC CGC CCC CAC CCT G

+

1.0

50-80

Exon 5

A2536

B2537

695-26® 817+26

CAA CAC ACT CTG TCC TGTT*

gGGG AAA ACC AGA TGG CCA GC

+

1.5

50-75

Exon 6

B2668

A2669

818-25® 940+25

gTCC TTC CTC TCT CTG

GCA AGC CGC CTG CAC CGA G

+

1.5

40-70

Exon 7

B3120

A3121

941-25® 1060+24

gAGT CTG CAT CCC TGG CCC TGC GC

AGG GCT CAG TCC ACC GGG GAA TC

-

1.0

50-80

Exon 8

B2467

A2468

1061-24® 1186+25

gCCA AGC CTC TTT CTC

CCA CCC GCC GCC TTC CCG T

-

1.0

50-80

Exon 9

B1205

A1289

?® 1358+49

gGGC TGC AGG CAG GGG CGA CG

CTG ACC TCG CTC CCC GGA CC

+

1.0

50-70

Exon 10

A2715

B2716

1359-25® 1705+29

ATG CCC TTC TCT CCT CCT G*

gAGC CCT CAG CGT CGT GGA T

+

1.5

45-75

Exon 11

B2713

A2714

1587-25® 1705+29

gCAG CTA TTC TCT GTC

TGGC TGG GAC GGC TGT CCT

-

1.5

35-65

Exon 12

B2469

A2470

1706-25® 1845+24

gTCT CCT TAT CCA CTT

TTC GAT CTC GTA CGT AAG

-

1.5

35-75

Exon 13

B3122

A3123

1846-25® 1987+37

gGTC ATC TTC CTT GCT GCC TGT TT

GTT TCC ACA AGG AGG TTT CAA GG

-

1.5

35-70

Exon 14

B2717

A2718

1988-25® 2140+26

gCCT GAC TCC GCT TCT

ACG CAG AAA CAA GGC GTG T

-

1.5

40-70

Exon 15

A3124

B3125

2141-25® 2311+25

AGA AGA CGT TTA TTT ATT CTT TC

gGTG TGG TGG CGG GCC CAG TCT TT

-

1.5

40-80

Exon 16

B2770

A2771

2312-24® 2389+25

gCCT CAC TCT TGC TTC

CGC TGG GGG ACC GGC CCG C

-

1.5

55-80

Exon 17

B2768

A2769

2390-24® 2547+33

gTGA CAG AGC GTG CCT C

TGG CTT TCT AGA GAG GGT C

-

1.5

35-65

Exon 18

B2774

A2775

2548-24® 2627

gTCC GCT GTT TAC CAT T

TCT CAG GAA GGG TTC TGG G

-

1.5

50-80

GC Clamp (C2548) = g = CGC CCG CCG CGC GCC GCG CCC GTC CCG CCG CCG CC C GCC GCC GCC GCC CG. The underline represents the 15bp GC-rich sequence that acts as a linker which is labelled as a g at the 5’end of either the sense or antisense primer. The 15bp GC-rich sequence was further elongated to a 50bp GC-sequence in a second PCR reaction, using primer C2548.

* In reverse oligonucleotide, there is a G at 5’ end which is a T on the FH website gene map.

Two step amplification using the same cycle conditions for P1 and P2 (94oC 1min, 55oC 30s, 72oC 90s) x32, except for exons 9 and 12. Exon 12 has a P1 annealing temperature of 47oC, and there were completely different P1 cycle conditions for exon 9 (94oC 1min, 62oC 90sec, 72oC 2min) x34.

100% denaturant = 7M urea and 40% (v/v) deionised formamide.

Table 5: Oligonucleotide sequences for the amplification of LDLR using DGGE (Nissen et al, 1995; Hum Mutat 8:168).

Region/

exon

Primer

Nucleotide

Oligonucleotide

(Sense & antisense 5’ to 3’)

Size (bp)

Denat grad

(%)

Prom

N1

N2

-255® -45

bAGG ACT GGA GTG GGA ATC AGA GC

TGC TGT GTC CTA GCT GGA AAC CC

252

30-70

Exon 1

N3

N4

-117® 67+23

aTTG AAA TGC TGT AAA TGA CGT GG

CTG GCG CCT GGA GCA AGC

256

40-80

Exon 2

N5

N6

68-57® 190+32

bCGT GGT CAG TTT CTG ATT CTG GCG

ATA AAT GCA TAT CAT GCC CAA AGG

253

30-70

Exon 3

N7

N8

191-55® 313+50

bTCG GCC TCA GTG GGT CTT TC

ACT CCC CAG GAC TCA GAT AGG C

268

30-70

Exon 4

(5’end)

N9

N10

314-85® 484

bACT GCG GCA GCG TCC CCG GC

GGA TGC AGG TGG AGC TGT TGC

297

40-80

Exon 4

(3’end)

N11

N12

439® 694+48

ACC TGT GGT CCC GCC AGC

bCCA GGG ACA GGT GAT AGG ACG

345

40-80

Exon 5

N13

N14

695-67® 817+48

bGGC CCT GCT TGT TTT TCT CTGG

AGC AGC AAG GCA CAG AGA ATG G

282

30-70

Exon 6

N15

N16

818-57® 940+36

bACG AAA CTG AGG CTC AGA CAC ACC

GCT CCC CAC AAA CTC TGC AAG C

262

30-70

Exon 7

N17

N18

941-34® 1060+56

bAGA GTG ACC AGT CTG CAT CCC TGG

TTG GTT GCC ATG TCA GGA AGC

253

40-80

Exon 8

N19

N20

1061-31® 1186+25

bTCC CCA CCA AGC CTC TTC TCT C

CCA CCC GCC GCC TTC C

222

40-80

Exon 9

N21

N22

1187-25® 1358+25

cCTG ACC TCG CTC CCC GGA CC

GGC TGC AGG CAG GGG CGA CG

278

40-80

Exon 10

N23

N24

1359-95® 1586+30

GCA GTG AGA TGA GGG CTC CTG G

bCCT GCA GCC CTC AGC GTC G

349

30-70

Exon 11

N25

N26

1587-51® 1705+29

bGGA TCC TCC CCC GCC CTC

TGG CTG GGA CGG CTG TCC

239

30-70

Exon 12

N27

N28

1706-64® 1845+92

GGC CCT CAG GCC CTC TGG

bCCG AGT TTT CTG CGT TCA TCT T

336

30-70

Exon 13

N29

N30

1846-25® 1987-46

aGTC ATC TTC CTT GCT GCC TG

CAC AAG GAG GTT TCA AGG TTG G

264

30-70

Exon 14

N31

N32

1988-37® 2140+34

aTCT CGT TCC TGC CCT GAC TCC

GAC ACA GGA CGC AGA AAC AAG G

274

40-80

Exon 15

N33

N34

2141-39® 2311+25

dGGC ACG TGG CAC TCA GAA GAC G

GTG TGG TGG CGG GCC CAG TC

288

40-80

Exon 16

N35

N36

2312-59® 2389+52

aCTC CAT TTC TTG GTG GCC TTC C

CAT AGC GGG AGG CTG TGA CCT GG

239

40-80

Exon 17

N37

N38

2390-36® 2547+35

aGGG CAG CTG TGT GAC AGA GCG

CAT GGC TCT GGC TTT CTA GAG AGG

279

30-70

Exon 18

N39

N40

2548-47® 2640

aCCT GAG TGC TGG ACT GAT AGT TTC C

AAG GCC GGC GAG GTC TCA GG

190

40-80

APOB

N41

N42

3456® 35531

bGGA GCA GTT GAC CAC AAG CTT AGC

GGT GGC TTT GCT TGT ATG TTC TCC

382

30-70

a = 50bp GC Clamp = CGC CCG CCG CCG CCC GCC GCG CCC CGC GCC CGT CCC GCC GCC CCC GCC CG

b= 40bp GC Clamp = CGC CCG CCG CGC CCC GCG CCC GTC CCG CCG CCC CCG CCC G

c= 46bp GC Clamp + 10bp AT Clamp =CGC CCG CGC CCG CCG CGC CCC GCG CCC GTC CCG CCG CCC CCG CCC GAA ATA ATA AA

d= 3bp GC Clamp = CGG

5’ primer for the 5’ part of exon 4 (Jensen et al, 1994, Hum Mutat 4:102) and the 3’ primer for exon 9 (Top et al, 1993; Hum Genet 91:480). * Extra G at 5’ end which is not on the FH website gene map.

PCR conditions: All PCR’s contained 1.5mM MgCl2 except exon 4 (3’ end) - 1.0mM MgCl2 and exon 15 - 2.5mM MgCl2. Cycle conditions: (95oC 5min) x1, (94oC 1min, 66oC 5min) x40, (72oC 10min) x1, 99oC 7min, 65oC 60min, 37oC 60min, cooling to 4oC.

Table 6: Oligonucleotide sequences for the amplification of LDLR using DGGE (Ekstrom et al, 1998, E J Clin Investig 28:740).

Region/

exon

Primer

Nucleotide

Oligonucleotide

(Sense & antisense, 5’ to 3’)

Size

(bp)

Denat grad (%)

Promoter

UE72

UE73

-276® -45

gCT GCC CTG GCG ACA CTT TCG AA

TGC TGT GTC CTA GCT GGA AAC CC

63

50-75

Exon 1

UE47

UE48

-120® 67+28

gCA CAT TGA AAT GCT GTA AAT GAC G

CTA TTC TGG CGC CTG GAG CAA GCC

63

60-80

Exon 2

UE87

UE81

68-57® 190+34

gCG TGG TCA GTT TCT GAT TCT GGC G

AAA ATA AAT GCA TAT CAT GCC CAA AG

60

50-75

Exon 3

UE05

UE06

191-27® 313+26

gTG ACA GTT CAA TCC TGT CTC TTC

AAT AGC AAA GGC AGG GCC ACA CT

63

50-75

Exon 4A

UE80

UE49

314-24® 569

gTG GTC TCG GCC CAT CCA TCC CT*

GGG GCT ACT GTC CCC TTG GA

63

50-75

Exon 4B

UE50

UE51

475® 694+48

gAC CTG CAT CCC CCA GCT GTG

CCA GGG ACA GGT GAT AGG ACG

63

60-80

Exon 5

UE09

UE10

695-25® 817+25

CAA CAC ACT CTG TCC TGT TT

gGG AAA ACC AGA TGG CCA GCG

52

50-75

Exon 6

UE11

UE12

818-27® 940+25

gTC CTT CCT CTC TCT GGC T

GCA AGC CGC CTG CAC CGA G

58

50-75

Exon 7

UE13

UE14

941-25® 1060+25

gAG TCT GCA TCC CTG GCC CTG CGC

AGG GCT CAG TCC ACC GGG GAA TC

63

50-75

Exon 8

UE15

UE16

1061-24® 1186+25

gCC AAG CCT CTT TCT CT

CCA CCC GCC GCC TTC CCG T

63

50-75

Exon 9

UE17

UE74

1187-25® 1358+25

CTG ACC TCG CTC CCC GGA CC

gGG CTG CAG GCA GGG GCG ACG

63

50-75

Exon 10

UE19

UE20

1359-25® 1586+25

ATG CCC TTC TCT CCT CCT G

gAG CCC TCA GCG TCG TGG AT

63

50-75

Exon 11

UE21

UE22

1587-25® 1705+29

gCA GCT ATT CTC TGT C

TGG CTG GGA CGG CTG TCC T

66

50-75

Exon 12

UE23

UE24

1706-25® 1845+35

gTC TCC TTA TCC ACT TGT GTG

CTT CGA TCT CGT ACG TAA GCC AC

58

50-75

Exon 13

UE25

UE26

1846-25® 1987+51

gGT CAT CTT CCT TGC TGC CTG TTT

GTT TCC ACA AGG AGG TTT CAA GG

63

40-65

Exon 14

UE27

UE28

1988-24® 2140+26

gCC TGA CTC CGC TTC T

ACG CAG AAA CAA GGC GTG T

60

60-80

Exon 15

UE29

UE30

2141-21® 2311+25

AGA AGA CGT TTA TTT ATT CTT TC

gGT GTG GTG GCG GGC CCA GTC TTT

53

50-75

Exon 16

UE31

UE32

2312-25® 2389+25

gCC TCA CTC TTG CTT CTC TCC

CGC TGG GGG ACC GGC CCG C

63

50-75

Exon 17

UE76

UE77

2390-36® 2547+35

GGG CAG CTG TGT GAC AGA GC

gCA TGG CTC TGG CTT TCT AGA G

63

40-65

Exon 18

UE79

UE71

2548-25® 2644

gTC CGC TGT TTA CCA TTT GTT G

ACA AGG CCG GCG AGG TCT

60

60-80

APOB

UE68

UE65

 

gGG AGC AGT TGA CCA CAA GCT TAG C

GGT GGC TTT GCT TGT ATG TTC TCC

66

30-55

GC Clamp = g = GCG CCG CGC CCG TCC CGC CGC CGC CCG CCG CCG GCG CCC G

* Extra C in UE80 sequence compared to FH website gene map. **

Cycle conditions: (95oC 1min, 72oC 2min) x32, (95oC 5min, 72oC 6min) x1.

100% denaturant = 7mM urea, 40% (v/v) deionised formamide

 

Table 7: Oligonucleotide sequences for sequencing PCR’s and sequencing reactions (Heath et al, unpublished).

Region/

exon

Oligonucleotide sequences

(Sense & antisense, 5’ to 3’)

Size

(bp)

Promoter

& exon 1

FHA GTC AGC TCT TCA CCG GAG ACC CAA ATA CA

FH131 (Table 2)

414

Exon 3

FH4 (Table 1)

FH23 (Table 1)

180

Exon 4

Ex4F CGG CTA TAG AAT GGG CTG GTG TTG

Ex4R TGT TGT TGG AAA TCC ACT TCG GCA

557

Exon 10

FH340 TTG GCC CGC AGT GAG ATG AGG

FH141 (Table 2)

310

Exon 14

FH342 CTT CCA CAA CCT CAC CCA GCC A

FH145 (Table 2)

380

Oligonucleotides FH 4, FH23 (Hobbs et al, 1992, Hum Mutat 1:445) and FH131, FH141, FH145 (Leitersdorf et al,1990, J Clin Invest 85:1014).

These combination of primers amplify under one condition, 1.5mMgCl2 and cycle conditions of: 96oC 5min x 1, (96oC 1min, 57oC 1min, 72oC 1min) x35, 72oC 5min (Day et al, 1997; Hum Mutat 10:116-27 & Heath et al, 1999; Atherosclerosis 143:41-54).