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AB51502

Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal

5

(18 Reviews)

|

(392 Publications)

Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) is a mouse monoclonal antibody detecting SATB1 in Western Blot, IP. Suitable for Human, Mouse.

- KO validated for confirmed specificity
- Over 310 publications
- Trusted since 2007

View Alternative Names

KIAA1034, SATB2, DNA-binding protein SATB2, Special AT-rich sequence-binding protein 2, DNA-binding protein SATB1, Special AT-rich sequence-binding protein 1, SATB1

6 Images
Immunocytochemistry - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • ICC

Supplier Data

Immunocytochemistry - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

4% paraformaldehyde-fixed, 0.1% Triton X-100 permeabilized HT1080 (Human fibrosarcoma cell line) cells labeled for SATB2 using ab51502 at 100 μg/ml in immunocytochemistry.

Immunoprecipitation - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • IP

Supplier Data

Immunoprecipitation - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

Immunoprecipitation using ab51502 at 500 μg/sample.

Sample : HeLa (Human epithelial cell line from cervix adenocarcinoma) whole cell lysate prepared in RIPA buffer.

All lanes:

Immunoprecipitation - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502)

false

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • WB

Lab

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

False colour image of Western blot : Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal staining at 2 µg/ml, shown in green; Rabbit Anti-GAPDH antibody [EPR16891] (ab181602) loading control staining at 1/20,000 dilution, shown in red.

In Western blot, ab51502 was shown to bind to recombinant SATB1 and recombinant SATB2 protein. A band was observed at 100 kDa in wild-type HAP1 cell lysates with no signal observed at this size in SATB2 knockout cell line. To generate this image, wild-type and SATB2 knockout HAP1 cell lysates were analysed. First, samples were run on an SDS-PAGE gel then transferred onto a nitrocellulose membrane. Membranes were blocked in 3 % milk in TBS-0.1 % Tween® 20 (TBS-T) before incubation with primary antibodies overnight at 4 °C. Blots were washed four times in TBS-T, incubated with secondary antibodies for 1 h at room temperature, washed again four times then imaged. Secondary antibodies used were Goat anti-Mouse IgG H&L 800CW and Goat anti-Rabbit IgG H&L 680RD at 1/20,000 dilution.

All lanes:

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) at 2 µg

Lane 1:

Wild-type HAP1 cell lysate at 20 µg

Lane 2:

SATB2 knockout HAP1 cell lysate at 20 µg

Lane 3:

Mouse E18 embyonic brain tissue lysate at 20 µg

Lane 4:

NIH/3T3 cell lysate at 20 µg

Lane 5:

HT1080 cell lysate at 20 µg

Lane 6:

Saos-2 cell lysate at 20 µg

Lanes 7 and 9:

Empty

Lane 8:

SATB1 recombinant protein at 0.1 µg

Lane 10:

SATB2 recombinant protein (GST-tag) (<a href='/en-us/products/proteins-peptides/recombinant-human-satb2-protein-ab132405'>ab132405</a>) at 0.1 µg

Secondary

All lanes:

Goat anti-Mouse IgG H&L 800CW and Goat anti-Rabbit IgG H&L 680RD at 1/20000 dilution

Observed band size: 100 kDa

false

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • WB

Lab

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

False colour image of Western blot : Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal staining at 2 µg/ml, shown in green; Rabbit Anti-GAPDH antibody [EPR16891] (ab181602) loading control staining at 1/20,000 dilution, shown in red.

In Western blot, ab51502 was shown to bind to recombinant SATB1 and recombinant SATB2 protein. A band was observed at 100 kDa in wild-type HAP1 cell lysates with no signal observed at this size in SATB2 knockout cell line. To generate this image, wild-type and SATB2 knockout HAP1 cell lysates were analysed. First, samples were run on an SDS-PAGE gel then transferred onto a nitrocellulose membrane. Membranes were blocked in 3 % milk in TBS-0.1 % Tween® 20 (TBS-T) before incubation with primary antibodies overnight at 4 °C. Blots were washed four times in TBS-T, incubated with secondary antibodies for 1 h at room temperature, washed again four times then imaged. Secondary antibodies used were Goat anti-Mouse IgG H&L 800CW and Goat anti-Rabbit IgG H&L 680RD at 1/20,000 dilution.

All lanes:

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) at 2 µg

Lane 1:

Wild-type HAP1 cell lysate at 20 µg

Lane 2:

SATB2 knockout HAP1 cell lysate at 20 µg

Lane 3:

Mouse E18 Embyonic brain cell lysate at 20 µg

Lane 4:

NIH 3T3 cell lysate at 20 µg

Lane 5:

HT1080 cell lysate at 20 µg

Lane 6:

Saos-2 cell lysate at 20 µg

Secondary

All lanes:

Secondary antibodies used were Goat anti-Mouse IgG H&L 800CW and Goat anti-Rabbit IgG H&L 680RD at 1/20000 dilution

Observed band size: 100 kDa

false

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • WB

Supplier Data

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

All lanes:

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) at 2 µg/mL

Lane 1:

HT1080 (Human fibrosarcoma cell line) whole cell lysate at 25 µg

Lane 2:

NIH/3T3 (Mouse embryo fibroblast cell line) cell lysate at 25 µg

Observed band size: 82 kDa

false

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)
  • WB

CiteAb

Western blot - Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (AB51502)

SATB1 + SATB2 western blot using anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal ab51502. Publication image and figure legend from Wong, F. K., Fei, J. F., et al., 2015, PLoS Biol, PubMed 26252244.

ab51502 was used in this publication in western blot. This may not be the same as the application(s) guaranteed by Abcam. For a full list of applications guaranteed by Abcam for ab51502 please see the product overview.

Conditional Pax6 expression in Tis21-positive cortical progenitors increases upper-layer neuron production.(A) Flow scheme of the experiment. (B–J) Dorsolateral telencephalon of tamoxifen-treated E14.5 (D,E) and E17.5 (B–J) Tis21–CreERT2 heterozygous mice electroporated at E13.5 with control (B,D–F,G,I,J) or Pax6-expressing (C–F,H–J) plasmid and subjected to a single EdU pulse at 10 h after electroporation (E14.0). (B,C,G,H) Tbr1 (B,C) and Satb2 (G,H) immunofluorescence (blue) and EdU (white) and RFP (red) fluorescence in the cortical plate (coronal 50-μm vibratome sections). Insets are representative examples of RFP-positive nuclei (outlined by dashed yellow lines) at higher magnification that are either Tbr1- or Satb2-positive. Scale bars, 20 μm (B,C,G,H) and 5 μm (insets in B,C,G,H). (D,E) Quantification of RFP+ nuclei in the entire cortical wall (200-μm wide area) (D) and their fold-increase at E17.5 as compared to E14.5 (E), upon control (Con, white) and Pax6 (black) electroporation. (D) E14.5, mean of three independent experiments, each being the average of two or three embryos (eight in total); E17.5, mean of eight embryos from at least two independent experiments; (E) mean of eight E17.5/E14.5 ratios. (F,I,J) Quantification of Tbr1+, EdU+ and RFP+ triple-positive nuclei (F), Satb2+, EdU+ and RFP+ triple-positive nuclei (I) and Brn2+ and RFP+ double-positive nuclei (J) in the cortical plate, expressed as percentage of all cells that are EdU+ and RFP+ (F,I) and RFP+ (J) in the cortical plate (200-μm wide area) upon control (Con, white) and Pax6 (black) electroporation. (F,I) Mean of three independent experiments, each being the average of two to three embryos. (J) Mean of four embryos from two different litters. Error bars, SEM. * p < 0.05, ** p < 0.01, *** p < 0.001.

false

Key facts

Host species

Mouse

Clonality

Monoclonal

Clone number

SATBA4B10

Isotype

IgG1

Carrier free

No

Reacts with

Mouse, Human

Applications

WB, IP, ICC

applications

Immunogen

Recombinant Fragment Protein within Human SATB2. The exact immunogen used to generate this antibody is proprietary information.

Q9UPW6

Reactivity data

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Product details

This product was changed from ascites to tissue culture supernatant on 9th August 2018. Please note that the dilutions may need to be adjusted accordingly. If you have any questions, please do not hesitate to contact our scientific support team.

Product Specifications
Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) is a mouse monoclonal antibody and is validated for use in ICC, IP, WB in human, mouse samples.
Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) specifically detects SATB1 +SATB2 (UniProt ID: Q01826; Molecular weight: 86kDa) and is sold in 100 µg selling sizes.

Quality and Validation
Abcam's high quality validation processes ensure Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) has high sensitivity and specificity.
The specificity of Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) has been confirmed by testing in knockout samples.
Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) has been cited over 314 times in peer reviewed journals and is trusted by the scientific community.
Anti-SATB1 + SATB2 antibody [SATBA4B10] - C-terminal (ab51502) has 17 independent reviews from customers.

Properties and storage information

Form
Liquid
Purification technique
Affinity purification Protein G
Purification notes
Purified from TCS
Storage buffer
pH: 7.4 Preservative: 0.05% Sodium azide Constituents: 1% BSA, 0.812% Sodium chloride, 0.1136% Disodium hydrogenorthophosphate, 0.0225% Potassium chloride, 0.0204% Potassium phosphate monobasic
Shipped at conditions
Blue Ice
Appropriate short-term storage duration
1-2 weeks
Appropriate short-term storage conditions
+4°C
Appropriate long-term storage conditions
-20°C
Aliquoting information
Upon delivery aliquot
Storage information
Avoid freeze / thaw cycle

Supplementary information

This supplementary information is collated from multiple sources and compiled automatically.

SATB1 (Special AT-rich Binding Protein 1) and SATB2 are proteins that play key roles in chromatin organization. SATB1 is sometimes called "T lineage-restricted matrix attachment region protein" and it has a mass of around 85 kDa. SATB2 is similar in function with a mass of roughly 82 kDa. These proteins are expressed in various tissues with a high abundance in thymus and brain respectively. They function as transcription factors and have a unique ability to bind to matrix attachment regions (MARs) in the DNA organizing the chromatin into loops and regulating gene expression.
Biological function summary

SATB1 and SATB2 coordinate gene expression by modulating the chromatin architecture and acting as docking sites for various chromatin remodelers and transcription factors. SATB1 plays a significant role in T-cell development as well as regulation of genes included in apoptosis and differentiation processes. SATB2 on the other hand is important in skeletal development and neuronal differentiation. Membership of these proteins in large complexes allows them to influence various gene networks necessary for tissue-specific gene expression.

Pathways

SATB1 and SATB2 are essential components of the Wnt signaling pathway and Notch signaling pathway. In the Wnt pathway SATB1 interacts with β-catenin helping mediate downstream transcription activation of various genes involved in cell proliferation and differentiation. In the Notch pathway SATB2 influences the expression of genes related to cell fate decisions. These pathways highlight the connections of SATB1 and SATB2 with other proteins contributing to their regulatory capacities in cell identity and function.

SATB1 has been linked to breast cancer and systemic lupus erythematosus (SLE). Its overexpression in breast cancer correlates with increased tumor growth and metastasis suggesting its role in cancer progression. SATB2 connects to developmental disorders such as cleft palate and osteoporosis. This association relates to its function in craniofacial development and bone formation. Both SATB1 and SATB2 demonstrate overlapping functions with proteins like Runx2 in bone development and T-bet in immune regulation indicating their broader impact on health and disease.

Product protocols

For this product, it's our understanding that no specific protocols are required. You can visit:

Target data

Binds to DNA, at nuclear matrix- or scaffold-associated regions. Thought to recognize the sugar-phosphate structure of double-stranded DNA. Transcription factor controlling nuclear gene expression, by binding to matrix attachment regions (MARs) of DNA and inducing a local chromatin-loop remodeling. Acts as a docking site for several chromatin remodeling enzymes and also by recruiting corepressors (HDACs) or coactivators (HATs) directly to promoters and enhancers. Required for the initiation of the upper-layer neurons (UL1) specific genetic program and for the inactivation of deep-layer neurons (DL) and UL2 specific genes, probably by modulating BCL11B expression. Repressor of Ctip2 and regulatory determinant of corticocortical connections in the developing cerebral cortex. May play an important role in palate formation. Acts as a molecular node in a transcriptional network regulating skeletal development and osteoblast differentiation.
See full target information SATB2

Additional targets

SATB1

Publications (392)

Recent publications for all applications. Explore the full list and refine your search

Stem cell reviews and reports : PubMed41075148

2025

Transplantation of Human iPS Cell-derived Cerebral Cortical Neurons Promotes Fine Motor Recovery in a Female Mouse Model of Ischemic Stroke.

Applications

Unspecified application

Species

Unspecified reactive species

Hokuto Yamashita,Tetsuhiro Kikuchi,Yusaku Kodaka,Daisuke Doi,Megumi Ikeda,Jun Takahashi

Cells 14: PubMed40940813

2025

Autism Spectrum Disorder Induced Pluripotent Stem Cells Display Dysregulated Calcium Signaling During Neural Differentiation.

Applications

Unspecified application

Species

Unspecified reactive species

Abdullah J AlShawaf,Sarah A AlNassar,Norah AlGhamdi,Cristiana Mattei,Shiang Y Lim,Mirella Dottori,Futwan A Al-Mohanna

Nature communications 16:6177 PubMed40615364

2025

Single-cell analysis of dup15q syndrome reveals developmental and postnatal molecular changes in autism.

Applications

Unspecified application

Species

Unspecified reactive species

Yonatan Perez,Dmitry Velmeshev,Li Wang,Matthew L White,Clara Siebert,Jennifer Baltazar,Guolong Zuo,Juan Andrés Moriano,Songcang Chen,David M Steffen,Natalia Garcia Dutton,Shaohui Wang,Brittney Wick,Maximilian Haeussler,Stormy Chamberlain,Arturo Alvarez-Buylla,Arnold Kriegstein

Nature communications 16:5925 PubMed40593693

2025

α7 nicotinic acetylcholine receptors regulate radial glia fate in the developing human cortex.

Applications

Unspecified application

Species

Unspecified reactive species

Tanzila Mukhtar,Clara-Vita Siebert,Yuejun Wang,Mark-Phillip Pebworth,Matthew L White,Tianzhi Wu,Tan Ieng Huang,Guolong Zuo,Jayden Ross,Jennifer Baltazar,Varun Upadhyay,Merut Shankar,Li Zhou,Isabel Lombardi-Coronel,Ishaan Mandala,Manal A Adam,Shaohui Wang,Qiuli Bi,Marco F M Hoekman,Jingjing Li,Arnold R Kriegstein

Nature protocols : PubMed40579542

2025

Generating and characterizing human telencephalic brain organoids from stem cell-derived single neural rosettes.

Applications

Unspecified application

Species

Unspecified reactive species

H M Arif Ullah,Qiju Huang,Simone Chiola,Yueqi Wang,Alex Shcheglovitov

Cerebral cortex (New York, N.Y. : 1991) 35: PubMed40561474

2025

Foxg1 gene mutation impairs auditory cortex response and reduces sound tolerance.

Applications

Unspecified application

Species

Unspecified reactive species

Fei Xu,Guangdi Chen,Shin Jeon,Lynne Ling,Senthilvelan Manohar,Dalian Ding,Benjamin D Auerbach,Jae Lee,Soo-Kyung Lee,Wei Sun

Nature communications 16:5132 PubMed40461535

2025

Forebrain neural progenitors effectively integrate into host brain circuits and improve neural function after ischemic stroke.

Applications

Unspecified application

Species

Unspecified reactive species

Xiao He,Jiadong Chen,Yan Zhong,Peili Cen,Li Shen,Fei Huang,Jing Wang,Chentao Jin,Rui Zhou,Xiaohui Zhang,Anxin Wang,Jing Fan,Shuang Wu,Mengjiao Tu,Xiyi Qin,Xiaoyun Luo,Yu Zhou,Jieqiao Peng,Youyou Zhou,A Cahid Civelek,Mei Tian,Hong Zhang

Nature neuroscience 28:1446-1459 PubMed40437054

2025

Choroid plexus apocrine secretion shapes CSF proteome during mouse brain development.

Applications

Unspecified application

Species

Unspecified reactive species

Ya'el Courtney,Joshua P Head,Neil Dani,Olga V Chechneva,Frederick B Shipley,Yong Zhang,Michael J Holtzman,Cameron Sadegh,Towia A Libermann,Maria K Lehtinen

Nature communications 16:4641 PubMed40419468

2025

Duplication of the autism-related gene Chd8 leads to behavioral hyperactivity and neurodevelopmental defects in mice.

Applications

Unspecified application

Species

Unspecified reactive species

Atsuki Kawamura,Kazuki Fujii,Kota Tamada,Yoshifumi Abe,Kenta Nitahara,Tomoya Iwasaki,Sho Yagishita,Kenji F Tanaka,Toru Takumi,Keizo Takao,Masaaki Nishiyama

iScience 28:112295 PubMed40264797

2025

Fate plasticity of interneuron specification.

Applications

Unspecified application

Species

Unspecified reactive species

Mohammed A Mostajo-Radji,Walter R Mancia Leon,Arnar Breevoort,Jesus Gonzalez-Ferrer,Hunter E Schweiger,Julian Lehrer,Li Zhou,Matthew T Schmitz,Yonatan Perez,Tanzila Mukhtar,Ash Robbins,Julia Chu,Madeline G Andrews,Frederika N Sullivan,Dario Tejera,Eric C Choy,Mercedes F Paredes,Mircea Teodorescu,Arnold R Kriegstein,Arturo Alvarez-Buylla,Alex A Pollen
View all publications

Product promise

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