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Due to the implementation of the human genome project and the rapid development of molecular biology and bioinformatics, the concepts of "precision medicine", "personalized medicine" and "targeted therapy" have been widely recognized in the clinic, and the concept of Companion diagnostics is gradually known to the public. At present, many diseases have confirmed the existence of multiple driver genes, and each of them has corresponding solutions for targeted drugs. At the same time, many different types of Companion diagnostics kits have been developed in the market. In order to improve the accuracy of in vitro diagnostic kits, high-quality gDNAs extracted from point mutation cell lines are used as the raw material for quality control, which can not only simulate clinical samples, but also facilitate the development of diagnostic kits.

  • Why do you need high-quality gDNA?

    High quality gDNA is the first step in the development of diagnostic kits and the basis for the deployment of different mutation frequencies. When the extracted gDNA contains impurities such as protein, RNA and organic matter, it will affect the stability and uniformity of gDNA, especially the determination of its concentration, which will greatly hinder the later research and production.

  • Cell line derived gDNA is the trend of quality control in IVD industry

    Strict regulation of biomaterials makes it more difficult to obtain clinical samples for gene mutation diagnosis kit development. And there are many problems in using clinical samples as positive control for diagnosis kits, which makes gene mutation diagnosis kit manufacturers focus on cell lines carrying mutations.

    Problems in using clinical samples as positive control:
    Limited samples, non renewable
    High heterogeneity, poor stability
    Involving ethical issues and affected by laws and regulations
    Rare mutation sites are difficult to obtain
    Unable to accurately quantify, unclear copy number and allele number
    The positive controls derived from cell lines have the following advantages:
    Routine QC, better monitor the stability of the platform and manual operation, and eliminate background interference.
    Better verify the sensitivity and specificity, and provide QC standard for the platform and process system.
    Accurately define the threshold of each mutation.
    As a quality control for R&D, it provides a stable quality control standard for the R&D process.
  • CRISPR/Cas9 gene editing cell lines can simulate clinical samples of any diseases

    With the discovery of more and more essential mutation sites and the development of new targeted therapies, Common genetic mutations carried by cell lines are difficult to keep up with the current pace of innovation. In addition, for other indications, such as cardiovascular diseases, central nervous system diseases, inflammation, etc., it is difficult to find point mutations against these diseases from cell lines, because most of the cell lines are tumor cell lines, and few cell lines for these indications. What’s more, there are a large variety of cell lines, and it is not a low-cost and efficient way to undertake the process of purchase, culture, genome extraction for sequencing for every cell line. Moreover, it is very likely that the cell line carrying certain mutation cannot be found after verifying a large number of cell lines. Under this circumstance, using CRISPR/Cas9 technology to introduce disease mutation in cell line has become an important means to solve the problems and achieve simulation of clinical samples.

Ubigene products and services

Faster With the support of EZ-editor™ series products and Red Cotton™ point mutation strategy design system, the project progress is faster.
Higher With exclusive CRISPR-U™ technology combined with optimized gene-editing point mutation system, positive rate is higher.
Stronger With 12 years of gene editing experience and continuosly accumulated gene-editing experience based on thousands of success cases, Ubigene becomes stronger and stronger.
 Tumor diagnosis
 Drug metabolism
 Reproductive health

Companion Diagnostics

As an in vitro diagnostic technique, the companion diagnostics results can provide information about the treatment response of patients to specific therapeutic drugs, so as to determine the patient population that most likely to respond to the drug, which is helpful to formulate and adjust the treatment before and during the treatment, as well as improve the treatment prognosis and reduce the health care expenditure. At present, it has become trendy to carry out individualized treatment of tumors with the help of genetic diagnosis information obtained by companion diagnostics.

With more than 12 years of experience in cell line culture and gene editing, Ubigene can provide high-quality gDNA products and services to meet the needs of IVD kits development, quality control and registration.

Products (gDNA and cell lines)
 High accuracy  Stable  Highly stimulate  Multiple applications
Gene Mutated base Mutated amino acid Genotype
BRAF c.1799T>A p.V600E Homozygote
EGFR c.2235_2249del15 p.E746-A750del(1) Heterozygote
c.2369C> T p.T790M Heterozygote
c.2155G>A p.G719S Heterozygote
c.2303G>T p.S768I Homozygote
c.2236_2250del15 p.E746-A750del(2) Heterozygote
c.2573T>G p.L858R Heterozygote
KRAS c.34G>A p.G12S Homozygote
c.35G>C p.G12A Homozygote
c.38G>A p.G13D Heterozygote
c.35G>A p.G12D Homozygote
c.35G>T p.G12V Homozygote
C.182A>T p.Q61L Heterozygote
c.183A>T p.Q61H Homozygote
NRAS c.35G>A p.G12D Heterozygote
c.181C>A p.Q61K Heterozygote
c.34G>T p.G12C Heterozygote
c.34G>A p.G12S Heterozygote
C.183A>T p.Q61H Heterozygote
C.182A>T p.Q61L Heterozygote
PIK3CA c.1633G>A p.E545K Heterozygote
c.3140A>G p.H1047R Heterozygote
c.1624G>A p.E542K Heterozygote
Services (Custom cell lines)
 Stable  High purity  Multiple applications  Highly stimulate
  Signature customize services

For rare tumor mutation sites or other indications, CRISPR-U™ technology can efficiently introduce target mutations into cell lines.

CRISPR-U™ is a gene editing technology independently developed by Ubigene which has higher gene cutting efficiency than ordinary CRISPR/Cas9 technology and can greatly improve the efficiency of homologous recombination, easily achieving gene knockout (KO), point mutation (PM) and knockin (KI) at the cellular and animal levels. Taking advantage of CRISPR-U™ technology, Ubigene has successfully achieved gene editing on more than 200 kinds of cell lines. Providing high-quality of experimental strategy and vector with the abundant experience of more than 200 cell lines and 5000 genes; Significantly increasing the transfection rate — thanks to the mature transfection system as well as the special transfection medium; Improving the single-cell clone formation rate by at least 30% with the great help of the single-cell clone culture medium; Easily realizing the batch validation of single-cell clones when growing in 96-well plate with the support of the single-cell clone validation kit. Ubigene comprehensively optimized all aspects of the gene-editing experiment to ensure the effective improvement of the success rate of gene-editing experiments and easy delivery of positive clones!

Mutation list
Gene Mutation locus
ABL112345
ABL1-RCSDFOXP1-ABL1ABL1-RCSD1FOXP1-ABL1 fusionSNX2-ABL1 fusion
ABL1678910
ETV6-ABL1H201LY232SM237VI242T
ABL11112131415
BCR-ABL M244VBCR-ABL L248VBCR-ABL L248RBCR-ABL G250EG250V
ABL11617181920
Q252HQ252RBCR-ABL Y253HY253FBCR-ABL E255K
ABL12122232425
BCR-ABL E255VE258DL273MBCR-ABL D276GT277A
ABL12627282930
E279KE281KV289IE292VL298V
ABL13132333435
BCR-ABL V299LQ300RBCR-ABL F311LBCR-ABL F311IBCR-ABL T315I
ABL13637383940
BCR-ABL T315ABCR-ABL F317LBCR-ABL F317VBCR-ABL F317CBCR-ABL F317S
ABL14142434445
BCR-ABL F317IBCR-ABL N331SN336SG340LY342H
ABL14647484950
M343TBCR-ABL M351TR351WBCR-ABL E355GBCR-ABL F359V
ABL15152535455
BCR-ABL F359CBCR-ABL F359ID363YBCR-ABL L364PL364I
ABL15657585960
A365VA366GBCR-ABL V379IL384MBCR-ABL L387F
ABL16162636465
BCR-ABL L387MM388LY393CBCR-ABL H396RBCR-ABL H396P
ABL16667686970
BCR-ABL A397PBCR-ABL G398RS417YI418VI418S
ABL17172737475
D421GI432TS438CP441LBCR-ABL E450V
ABL17677787980
E450GE450KE450QE450ABCR-ABL E453A
ABL18182838485
BCR-ABL E453KBCR-ABL E453QE453VE459GBCR-ABL E459K
ABL18687888990
M472IC475VBCR-ABL P480AP480LBCR-ABL F486S
ABL191929394
F486YG514SNUP214-ABL1BCR-ABL
ABL21
ABL2 fusions
ADRB11
Gly389Arg(c.1165G>A/C)
AKT112
E17KQ79K
AKT31
E17K
ALDH21
Glu504Lys(1510G>A)
ALK12345
RANBP2-ALKEML4-ALKR214HDEL4-11T1151M
ALK678910
L1152PF1174LF1174CF1174VR1192P
ALK1112131415
L1196QL1198FL1198PF1245CF1245V
ALK1617181920
R1275QEML4-ALK E2;A20EML4-ALK E6;A20HIP1-ALK I1171NEML4-ALK T1151INST
ALK2122232425
EML4-ALK L1152REML4-ALK C1156YEML4-ALK I1171SEML4-ALK V1180LEML4-ALK L1196M
ALK2627282930
EML4-ALK S1206YEML4-ALK G1269AEML4-ALK E20;A20ALK fusionCLTC-ALK
ALK31323334
NPM-ALKSTRN-ALKEML4-ALK C1156Y–L1196MEML4-ALK C1156Y–L1198F
ANKK11
Glu713Lys(c.2317G>A)
AR12
SPLICE VARIANT 7F877L
ARAF12
S214CS490T
ARID1A12
Q456*P1175FS*5
ATM12
N2875HV2288FS*1
ApoE12
Cys130Arg(c.388T>C)Arg176Cys(c.526C>T)
B2M1
S14FS
BRAF12345
PAPSS1-BRAFZKSCAN1-BRAFBRAF-CUL1MACF1-BRAF fusionCUX1-BRAF
BRAF678910
PPFIBP2-BRAFTRIM24-BRAFFAM131B-BRAFG464VG466V
BRAF1112131415
G466AG469AG469VG469RG469E
BRAF1617181920
K483MG496AL505HN581SD594G
BRAF2122232425
D594ND594AD594VF595LG596R
BRAF2627282930
G596CG596VL597QL597RL597S
BRAF3132333435
L597VV600EV600V600KV600D
BRAF3637383940
V600RK601EG606EP731TAGK-BRAF
BRAF4142434445
DELNVTAPWASFL-BRAF fusionDEL 485-490V600E+V600MV600_K601DELINSD
BRCA112345
M1VM1IC61GC64YR71G
BRCA1678910
R71KR1443*Q1467*R1495ME1559K
BRCA11112
D1692NW1815X
BRCA212345
M1RM1IV159MV211LV211I
BRCA267
R2336PR2336H
BRD41
BRD4-NUTM1
BTK12
T316AC481S
CALR1
EXON 9 FRAMESHIFT
CBL1234
Q294EV391IW802*S80N/H94Y
CDKN2A12
A20PW110*
CRLF21
Phe232Cys
CSF1R1
MEF2D-CSF1R
CSF3R1
T618I
CTLA41
CTLA4-CD28
CTNNB112
T41AS45F
CYP2C19*171
c.-806C>T
CYP2C19*21
c.681G>A
CYP2C19*31
p.Trp212Ter(c.636G>A)
CYP2C9*21
Arg144Cys(430C>T)
CYP2C9*31
Ile359Leu(1075A>C)
CYP2D6*101
Pro34Ser(c.100C>G)
CYP2D6*31
A2637 deletion
CYP2D6*41
G1934A
CYP2D6*51
CYP2D6 deletion
CYP3A5*31
6986A>G
CYP4F2*31
V433M(c.1297G>A)
DDIT31
FUS-DDIT3
DDR212345
L63VL239RG253CG505SI638F
DDR267
S768RG774V
DEK1
DEK-AFF2 fusion
DPYD12
DPYD*2A HOMOZYGOSITYDPYD*13 HOMOZYGOSITY
DPYD*2A1
1986A>G(IVS14+1G>A)
EGFR12345
Exon 18 deletionEXON 19 DELETIONEXON 20 INSERTIONEGFR-RAD51 fusionR108K
EGFR678910
T263PA289VF404IF404VT415M
EGFR1112131415
V441GV441DV441FS442RS442I
EGFR1617181920
R451CI462KI462RS464LS464T
EGFR2122232425
G465EG465VG465RK467TK467N
EGFR2627282930
K489QK489EI491KI491RS492R
EGFR3132333435
S492CP546SA702SR705KE709Q
EGFR3637383940
G719SG719AG719DG719S720
EGFR4142434445
G724SW731LE734QV742AE746V
EGFR4647484950
E746GL747PA750TP753SK757R
EGFR5152535455
D761ND761YS768IS768NV769A
EGFR5657585960
delD770insGYN771DELinsVHV774AV774MR776C
EGFR6162636465
S784FT785AT790MC797SC797Y
EGFR6667686970
Y801HK806EG810SN826YN826S
EGFR7172737475
R831HV834IL838PL838VN842S
EGFR7677787980
T847IP848LV851IT854AL858R
EGFR8182838485
A859TL861RL861QL861A864T
EGFR8687888990
E868GE884KRARE EX 18-21 MUTY69FS*11Ex19 del L858R
EGFR9192939495
VIIIE709K+G719AE 709A+G719CI744_K745insKIPVAIK745_E749delKELRE
EGFR96979899100
E746_A750delELREAdelE746_A750E746_T751delinsAE746_T751delinsVAL747_T751delLREAT
EGFR101102103104105
L747_S752delL747_S752INSQL747_P753delinsSdelL747_P753insSS752_I759delSPKANKEI
EGFR106107108109110
A763_Y764insFQEAY764_V765insHHM766_A767insASVM766_A767insAIA767_V769dupASV
EGFR111112113114115
S768_D770dupV769_770insASVD770_N771insNPGD770_N771insSVDD770_N771insGL
EGFR116117118119120
D770_N771insGTD770_N771insGYN771>003eGYP772_H773insHP772_H773insYNP
EGFR121122123124125
P772_V774insPHVH773_V774insHH773_V774insNPHV774_C775insHVE709_T710>003eD
EGFR126127128129130
E746_A750>003eIPE746_T751>003eIE746_S752>003eDE746_S752>003eAL747_A750>003eP
EGFR131132133
L747_T751>003ePL747_T751>003eQL747_P753>003eQ
ERBB212345
G309AS310F/YL638SR678QK753E
ERBB2678910
L753EL755SL755WL755PK755S
ERBB21112131415
L768SD769YD769HV773AV773
ERBB21617181920
V773LM774DELINSWLVG776LV777LP780INS
ERBB22122232425
T798IT798MV842IN857ST862A
ERBB22627282930
L866ML869RH878YR896CERBB2 G776INSV_G/C
ERBB231323334
DEL 755-759Y772_A775DUPA775_G776insYVMAG778_P780DUP
ERBB31234
R103GV104MG284RV855A
ERBB41
G1109C
ERRFI11
E384*
ESR112345
E380QS463PL536QL536RY537S
ESR1678
Y537NY537CD538G
EWSR11
EWSR1-NR4A3
EZH2123
Y646EZH2 Y641FY646 or Y641
FBXW712345
R505CR505HG579WR658QL403FS*34
FBXW76
S668FS*39
FCGR3A1
F212V
FGFR112
N546KZNF198-FGFR1
FGFR212345
FGFR2 fusionsFGFR2-BICC1FGFR2-AHCYL1FGFR2-TACC3FGFR2-MGEA5
FGFR26
N550K
FGFR312345
FGFR3 fusionFGFR3-TACC3R248CS249CFGFR3-BAIAP2L1
FGFR3678910
G370CY373CY375CG380RF386L
FGFR31112131415
V443LV443MV496VV555MK650E
FGFR316
G691R
FLT312345
T227MD835VD835D835HD835H/Y
FLT3678910
D835EITDE588_Y589INSKYFYVDFREY591_V592INSVDFREYEV592_D593INSDFREY
FLT311
E611_F612INS25
FOXO11
PAX3-FOXO1
G6PD12345
95A>G871G>A1004C>T1024C>T1376G>T
G6PD6
1388G>A
GJB212345
35 del Gc.35insG167 del Tc.235delC299-300 del AT
GJB26
176-191del 16
GJB31234
494C>Tc.538C>T547G>A1555A>G
GNAQ12
Q209Q209P
GNAS123
R201HR201CT393C
GSTP11
I105V
HBA12345
(-α3.7/)(-α4.2/)WS122QS125CS142
HBA67
(--SEA/)(--THAI/)
HBB12345
IVS-Ⅰ-1(G>T)IVS-Ⅰ-5 (G>C)CD17(AAG>TAG)CD26(GAG>AAG)-28(A>G)
HBB678910
-29(A>G)-30(T>C)CD31(-C)-32(C>A)CD43(GAG>TAG)
HBB1112131415
IVS-Ⅱ-654(C>T)CD14-15(+G)CD27/28(+C)CD41-42(-CTTT)CD71-72(+A)
HBB1617
Initiation codon (ATG>AGG)5′UTR Cap+40-43-42(-AAAC)
HRAS12345
G12DG12VG13DG13RG13V
HRAS678
Q61LQ61RQ61K
IDH112345
R132CR132HR132LR132SR132G
IDH212
R140R172K
IFNL31
基因上游约3 kb处(C>T/G)
JAK11234
P429SQ503*W690*S703I
JAK212345
JAK2 fusionsExon 12 splice site insertionSSBP2-JAK2V617FJAK2 F694L
JAK3123
S61CM511IV722I
KDR123
D717VR961WA1065T
KIT12345
M541LP551LY553DE554DW557G
KIT678910
W557RW557TK558NPK558RK558Q
KIT1112131415
V559DV559DELV559GV559AV559
KIT1617181920
V560GV560DV560DELT574AQ575L
KIT2122232425
L576PP577LD579DELS628NK642E
KIT2627282930
V654AT661IT670IS692LQ694K
KIT3132333435
C809GD816VD816HD816YD816G
KIT3637383940
D816ED820YD820AD820GN822K
KIT4142434445
N822KN822HY823DA829PT417_D419DELTYDINSI
KIT4647484950
T417_D419delinsYK484_G487DELS501_A502INSAYA502_Y503insAYY503_F504insAY
KIT5152535455
F506_F508DUPK550_W557delK550_W557delKPMYEVQWK550_K558delK550_K559DEL
KIT5657585960
P551_E554delPMYEM552_W557DELY553_W557DELYEVQWY553_K558DELDEL 554-558
KIT6162636465
V555_Q556DELV555_V559DELV555_I571DELV555_P573DELQ556_I571DEL
KIT6667686970
W557_K558DELWKW557_V559insCW557_E561DELK558_V559delV559_V560DEL
KIT71727374
V560_L576DELV569_L576DELY570_L576DELD579_H580insIDPTQLPYD
KRAS12345
G12DG12CG12VG12SG12A
KRAS678910
G12RG12G13DG13CG13V
KRAS1112131415
G13RG13SQ22*A59TQ61H
KRAS1617181920
Q61PQ61LQ61FSQ61KQ61R
KRAS2122232425
Q61EK117NA146TA146PA146V
KRAS26
G12/G13
LYN1
Y508F
MAP2K112345
F53LQ56PK57TC121SE203K
MAP2K1678
E102_I103delEIC121S+G128D56_61QKQKVG>003eR
MAP2K21
F57C
MAPK112
E278EE322K
MET12345
MET-KIF5B fusionEGFR T790MD1010ND1010HD1010Y
MET678
D1028ND1228VD1228N
MGMT12
PROMOTER METHYLATIONRS16906252
MTHFR12
C677TA1298C
MTOR12345
H1968YA2034VF2108LP2213SQ2223K
MTOR67
M2327IE2014K+E2419K
MTRR1
A66G
MYD881
L265P
NAT21234
R64QI114N(c.341T>A)R197Q(c.590G>A)G286E(c.857G>A)
NF11
R163X
NF21
K159FS*16
NOTCH11
L1678P
NPM11
W288FS
NRAS12345
G12DG12SG12CG12VG13R
NRAS678910
G13CG13DG13VQ61KQ61R
NRAS11121314
Q61Q61LQ61HQ179X
NRG1123
NRG1 fusionSDC4-NRG1ATP1B1-NRG1 fusion
NT5C2123
K359QR367QD407A
NTRK112345
NTRK1 fusionSLMNA-NTRK1SQSTM1-NTRK1NTRK1-DDR2NTRK1-GON4L
NTRK1678910
TMP3-NTRK1PDE4DIP-NTRK1NTRK1-TRIM63G595RLMNA-NTRK1 G595R+G667C
NTRK212
NTRK2-STRN fusionETV6-NTRK2
NTRK312345
NTRK3 fusionSETV6-NTRK3ETV6-NTRK3 fusionG623RETV6-NTRK3 G623R
PAPPA21
Y1520X
PDGFB1
EBF1-PDGFRB
PDGFRA12345
TNKS2-PDGFRAFIP1L1-PDGFRAV561DV561AP577S
PDGFRA678910
L579MR841KD842VD842YD842I
PDGFRA1112131415
I843DELH845YG853DFIP1L1-PDGFRA T674IW559_R560DELWR
PDGFRA161718
DI842-843VMDIM842_844DELD842_H845DELDIMH
PDGFRB1234
EBF1-PDGFRBATF7IP-PDGFRBAGGF1-PDGFRB, AGGF1-PDGFRB C843GPDGFRB fusionS
PIK3CA12345
E81KR93WK111NS158LN345K
PIK3CA678910
D350GI391MC420RP471LE542K
PIK3CA1112131415
E542QE545KE545DE545GE545Q
PIK3CA1617181920
E545AE545VE545XQ546KQ546E
PIK3CA2122232425
D549NY1021CR1023QM1043IH1047R
PIK3CA2627282930
H1047YH1047LH1047XG1049RG1049S
PIK3CA31
G1049A
PIK3R21
N561D
PML123
PML-RARA A216VPML-RARA L218PPML-RARA
PMS21
K706FS*19
POLD1123
C284YE374KY956N
POLE41
A59E
PPP1R15A1
RS557806
PREX21
R172I
PTCH11234
Q17XW170XW712XQ787X
PTEN123
R130*R233*V317FS
PTPRD1
V253I
PXDNL1
P1460T
RAC11
P29S
RAD501
L1237F
RAF11
R391W
RET12345
KIF5B-RETCCDC6-RETC634WV804MM918T
RET67
KIF5B-RET V804LKIF5B-RET G810A
ROS112345
TFG-ROS1S1986YS1986FG2032RD2033N
ROS16789
CD74-ROS1 L2026MCD74-ROS1 G2032RCD74-ROS1 G2101ACD74-ROS1 L2155S
SCN8A1
Q225X
SERPING11
3'UTR突变(c.*49=, C>A/G/T)
SF3B112
K666NK700E
SLC26A412345
IVS7-2A>Gc.281C>Tc.589G > Ac.1174A > T1226G>A
SLC26A4678910
c.1229C > T1975G>Cc.2027T > A2162C>Tc.2168A > G
SLC26A41112
c.919-2A >Gc.1707+5 G>A
SLCO1B112
Asn130Asp(c.388 A>G)Val174Ala(c.521 T>C)
SMO12345
T241MS278IW281CW281LV321M
SMO678910
I408VL412FA459VC469YD473H
SMO1112131415
D473GD473YQ477EG497WS533N
SMO16
W535L
STK11123
LKB1D194EF354L
TP5312345
V157FR158LR158HR175HR213P
TP53678910
Y220CM237IG245SR248QR248W
TP531112131415
R249SR273HR273CP278SR280K
TP531617
R280TR282L
TPMT*21
A80P(238G>C)
TPMT*3A12
Ala154Thr(460G>A)Tyr240Cys(719A>G)
TPMT*3B1
Ala154Thr(460G>A)
TPMT*3C1
Tyr240Cys(719A>G)
TSC11
FRAMESHIFT TRUNCATION
TSC21
Q1178*
UGT1A112
UGT1A1*28UGT1A1*60
UGT1A1*61
G71R(211G>A)
VHL12
N78S (c.233A>003eG)R200W (c.598C>003eT)
VKORC11
启动子区(-1639 G>A)
WEE11
RS3910384

Drug metabolic enzymes and drug targets

The genetic variation and expression level of genes related to drug metabolism, transport and drug target can lead to individual differences in drug responsiveness by affecting the concentration and sensitivity of drugs in vivo. Pharmacogenomics has become an important tool for guiding clinical individualized drug use, assessing the risk of serious adverse drug reactions , guiding new drug development and evaluating new drugs. The detection of drug metabolic enzymes and drug targets can guide the clinical selection of appropriate drugs and dosages for specific patients, so as to achieve individualized medication, and thereby improve the effectiveness as well as the safety of drug treatment and prevent the occurrence of serious adverse drug reactions. At present, the US FDA and China's food and Drug Administration (CFDA) have approved a series of gene diagnostic kits for personalized drugs. In response to this trend, Ubigene have already launched services of drug metabolic enzymes and drug target cell line generation or gDNA customization.

  • Cardiovascular and cerebrovascular diseases
    Gene Mutation
    CYP2C19 CYP2C19*2, Exon 5c.681G>A, SNP rs424428
    CYP2C19 CYP2C19*3, Exon 4c.636G>A, SNP rs4986893
    CYP2C19 CYP2C19*17, Promoter c.-806C>T, SNP rs12248560
    ALDH2 Exon 12, Glu504Lys, SNP rs671
    APOE Exon 4, Cys130Arg, c.388T>C, SNP rs429358
    APOE Exon 4, Arg176Cys, c.526C>T, SNP rs7412
    SLCO1B1 Exon 5, Asn130Aspc, 388 A>G, SNP rs2306283
    SLCO1B1 Exon 6, Val174Ala, c.521 T>C, SNP rs4149056
    CYP2C9*3 Ile359Leu, A1075C(NM_000771.4)
    CYP2C9*2 Arg144Cys, C430T(NM_000771.4)
    ADRB1 Gly389Arg(NM_000684.3:c.1165G>A/C)
    ACE I/D 288bp Alu indel in Intron 16

    If your gene is not included in the list, please contact us to evaluate the strategy. Talk to our expert

  • Arthritis
    Gene Mutation
    CYP2C9*3 Ile359Leu, A1075C(NM_000771.4)
    CYP2C9*2 Arg144Cys, C430T(NM_000771.4)
    G6PD 1388G>A
    G6PD 1376G>T
    G6PD 1024C>T
    G6PD 1004C>T
    G6PD 871G>A
    G6PD 95A>G

    If your gene is not included in the list, please contact us to evaluate the strategy. Talk to our expert

  • Tumor
    Gene Mutation
    CYP2D6*3 A2637 deletion
    CYP2D6*4 G1934A
    CYP2D6*5 CYP2D6 deletion
    CYP2D6*10 Pro34Ser, C188T
    DPYD*2A Exon 14 1986 A>G(Splice Donor Variant, C>G/T)
    TPMT*2 238G>C, Ala80Pro
    TPMT*3A 460G>A, Ala154Thr
    TPMT*3A 719A>G, Tyr240Cys
    TPMT*3B 460G>A, Ala154Thr
    TPMT*3C 719A>G, Tyr240Cys
    UGT1A1*6 G71R, 211G>A
    TOP2A TOP2A gene amplification and gene deletion
    G6PD 1388G>A
    G6PD 1376G>T
    G6PD 1024C>T
    G6PD 1004C>T
    G6PD 871G>A
    G6PD 95A>G

    If your gene is not included in the list, please contact us to evaluate the strategy. Talk to our expert

  • Others
    Gene Mutation Disease
    CYP3A5*3 c.22893 in intron 3 has 6986A>G Autoimmune diseases
    VKORC1 Promoter region-1639 G>A Thromboembolic diseases
    CYP4F2*3 C>T, V433M(NM_001082.5:c.1297G>A)
    NAT2 NM_000015.3:c.341T>A, p.Ile114Asn Tuberculosis
    NAT2 NM_000015.3:c.590G>A, p.Arg197Gln
    NAT2 NM_000015.3:c.857G>A, p.Gly286Glu
    NAT2 NM_000015.3:c.191G>A, p.Arg64Gln
    ANKK1 c.2317G>A, Glu713Lys Mental diseases
    IFNL3 SNP C>T/G in 3kb upstream of IFNL3 Hepatitis C
    G6PD 1388G>A Malaria, skin diseases
    G6PD 1376G>T
    G6PD 1024C>T
    G6PD 1004C>T
    G6PD 871G>A
    G6PD 95A>G
    HLA-B HLA-B*1502, HLA-B*5801, HLA-B*5701 Neurological diseases, hyperuricemia, AIDS

    If your gene is not included in the list, please contact us to evaluate the strategy. Talk to our expert

Prenatal diagnosis

Prenatal screening and prenatal diagnosis are important means for eugenics. Through prenatal screening and prenatal diagnosis, we can assess the risk of fetal abnormalities and make clear diagnosis, and then choose appropriate measures to prevent the occurrence of serious birth defects. At present, the development of kits for prenatal screening and prenatal diagnosis is popular, greatly improving the universality of prenatal screening and prenatal diagnosis. In response to this trend, Ubigene launched point mutation cell lines or gDNA customized services related to two popular genetic diseases (epicophosis and thalassemia).

Featured custom service

Disease Gene Mutated loci
Epicophosis GJB2 c.235delC
Epicophosis GJB2 35 del G
Epicophosis GJB2 c.35insG
Epicophosis GJB2 167 del T
Epicophosis GJB2 176-191del 16
Epicophosis GJB2 299-300 del AT
Epicophosis GJB3 c.538C>T
Epicophosis GJB3 547G>A
Epicophosis GJB3 494C>T
Epicophosis GJB3 1555A>G
Epicophosis SLC26A4 c.281C>T
Epicophosis SLC26A4 c.589G > A
Epicophosis SLC26A4 c.919-2A >G
Epicophosis SLC26A4 c.1174A > T
Epicophosis SLC26A4 c.1229C > T
Epicophosis SLC26A4 c.1707+5 G>A
Epicophosis SLC26A4 c.2027T > A
Epicophosis SLC26A4 c.2168A > G
Epicophosis SLC26A4 IVS7-2A>G
Epicophosis SLC26A4 1226G>A
Epicophosis SLC26A4 1975G>C
Epicophosis SLC26A4 2162C>T
α-Thalassemia HBA (--SEA/)
α-Thalassemia HBA (-α4.2/)
α-Thalassemia HBA (-α3.7/)
α-Thalassemia HBA (--THAI/)
α-Thalassemia HBA WS122
α-Thalassemia HBA QS125
α-Thalassemia HBA CS142
β-Thalassemia HBB CD41-42(-CTTT)
β-Thalassemia HBB IVS-Ⅱ-654(C>T)
β-Thalassemia HBB CD17(AAG>TAG)
β-Thalassemia HBB -28(A>G)
β-Thalassemia HBB CD26(GAG>AAG)
β-Thalassemia HBB CD71-72(+A)
β-Thalassemia HBB CD43(GAG>TAG)
β-Thalassemia HBB -29(A>G)
β-Thalassemia HBB Initiation codon (ATG>AGG)
β-Thalassemia HBB CD14-15(+G)
β-Thalassemia HBB CD27/28(+C)
β-Thalassemia HBB -32(C>A)
β-Thalassemia HBB -30(T>C)
β-Thalassemia HBB IVS-Ⅰ-1(G>T)
β-Thalassemia HBB IVS-Ⅰ-5 (G>C)
β-Thalassemia HBB CD31(-C)
β-Thalassemia HBB 5′UTR Cap+40-43-42(-AAAC)

Advantages of Ubigene's point mutation editing

  • 01 Exclusive Red Cotton point mutation strategy designer, automatically offers at least 2 strategies in 1 minute.
  • 02 Master four techniques (RNP method/plasmid antibiotic selection method/BE system/AAV-donor method) to deal with various mutation issues.
  • 03 Fully optimized production system joins hands with the exclusive data analysis system and innovative products to significantly improve the screening efficiency of positive clones and shorten the project turnaround.
Case 1 Case 2

The c.G2149T point mutation of APP gene was carried out in iPSC by RNP method. After transfection, the recombination efficiency of the cell pool was detected. According to Sanger sequencing results, it can be seen that gRNA has a significant cleavage effect (Fig. 1). According to the analysis result by EZ-editorTM Genotyoe Analysis System (GAS), the homologous recombination genotype accounted for 14% (Fig. 2), which indicated that the efficiency was high, so single-cell clone isolation was next carried out.

Fig. 1 Sanger sequencing of cell pool
Fig. 2 EZ editorTM Genotyoe Analysis System (GAS) result

p.R140W mutation of IDH2 gene was carried out in THP-1 cell line by AAV-Donor method. After transfection, the recombination efficiency of the cell pool was detected. According to Sanger sequencing results, it can be seen that gRNA has a significant cleavage effect (Fig. 3). According to the analysis result by EZ-editorTM Genotyoe Analysis System (GAS), the homologous recombination genotype accounted for 23% (Fig. 4), which indicated that the efficiency was high, so single-cell clone isolation was next carried out. In the single-cell clone validation process, two mutant homozygotes were obtained. (Fig. 5)

Fig. 3 Sanger sequencing of cell pool
Fig. 4 EZ editorTM Genotyoe Analysis System (GAS) result
Fig. 5 Two mutant homozygotes genotype alignment result

AGTTCAAGCTGAAGAAGATGTGGAAAAGTCCCAATGGAACTATC(C→T)GGAACATCCT(G→C)GGGGGGACTGTCTTCCGGGAGCCCATCATCTGCAAAAACATCCCACGCCTAGTCCCTGGCTGGACCAAGCCCATCACCATTGGCAGGCACGCCCATGGCGACCAG

  • Red characters (C→T) indicate the target mutation site p.R140W (CGG > TGG).
  • Blue characters (G→C) indicate the silent mutation site (CTG>CTC).
  • File PK21115-02-A01-PK1344 is the Sanger sequencing result of E8 clone.
  • File PK21115-02-A03-PK1344 is the Sanger sequencing result of H3 clone.

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