ncRNADetailInformation

Detail Information
Functional analysis

miRNA name

pre-miRNA

family

pre-miRNA Sequence

mature-miRNA

mature sequence

pre-miRNA description

miR-155

MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0004658 hsa-miR-155-3p	CUCCUACAUAUUAGCAUUAACA	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .
MI0000681	MIPF0000157	CUGUUAAUGCUAAUCGUGAUAGGGGUUUUUGCCUCCAACUGACUCCUACAUAUUAGCAUUAACAG	MIMAT0000646 hsa-miR-155-5p	UUAAUGCUAAUCGUGAUAGGGGU	Human mir-155 is predicted based on homology to a cloned miR from mouse(MIR:MI0000177) , and later experimentally validated in human HL-60leukemia cells . Like the mouse miRNA, human mir-155 resides in thenon-coding BIC transcript (EMBL:AF402776), located on chromosome 21 .The mature form differs from that in mouse at a single position. Eis etal. confirm that miR-155 is processed from the BIC transcript in human,and demonstrate elevated expression of miR-155 in lymphoma samples .The mature sequence shown here represents the most commonly cloned formfrom large-scale cloning studies .

link to database

TargetScanS 6.2 | MicroCosm | microRNA.org | miRNAMap 2.0

Interacted genes from RAID,miRTarBase

CIAPIN1,SKI,RAD23B,ACTR2,RAD1,ARMC2,INTS6,SLC7A1,SMAD2,DR1,LRRC40,GSK3B,CAB39L,INPP5F,SMAD1
more » CIAPIN1,SKI,RAD23B,ACTR2,RAD1,ARMC2,INTS6,SLC7A1,SMAD2,DR1,LRRC40,GSK3B,CAB39L,INPP5F,SMAD1,UBA3,CUTA,TRIO,RAB23,CDC73,EIF4E2,FOXK1,RBM42,KIAA1715,IPO8,MRPL16,EIF3CL,NSUN5,PDLIM5,EXOC3,MGST2,LCLAT1,NCAPD2,TBC1D14,SEPT11,SPI1,ARL5A,ERMP1,VPS4B,ASPH,XPO1,PAM16,AXL,PPP5C,MPZL1,DCAF7,BACE1,NAA50,LTN1,MRS2,PIK3R1,EIF4A1,PICALM,POLE4,RAB11FIP2,TPRKB,FAM3C,ACOT7,SLC33A1,TMEM167A,SLC9A3R2,TGM2,DBN1,MBLAC2,CDK4,PBRM1,FLNA,GMPPA,BCL7C,FUBP1,RUNX2,NCKAP1,TICAM2,MAFB,ZNF611,KBTBD2,ZNF652,AIMP1,KIAA0368,DDX10,ARID2,MARC2,STXBP2,BRPF3,ZNF493,BCL6,PTPRJ,FLT1,MOV10,PDAP1,TMX3,HSD17B7,ADH5,DET1,JUNB,UBE2J1,C10orf26,POLR1B,RPRD1A,RHOA,PALLD,SLC1A5,PKIA,CCL2,EPB41L2,LPIN1,KIAA1274,CISD2,TAF5L,SMARCE1,ERGIC1,EIF3A,ARL6IP5,TPP2,OLR1,DHCR24,HEATR2,B4GALT1,PSIP1,RTKN,THBS1,KLHL5,MSH2,ANAPC16,EXOSC2,RREB1,PACSIN3,RAP1B,PYGL,PHF6,EIF2B2,CDKN2A,EHD1,HNRNPA3,TWF1,ASNS,CSNK1A1L,DOCK4,DRAP1,C3orf64,HDAC4,MECP2,SECISBP2,CCDC82,SEC24B,KIAA0430,DEGS1,UFL1,APAF1,MPP5,DIAPH3,SLC30A7,METTL7A,NUCKS1,GOLT1B,CNNM3,MAP3K10,SRPK2,LARS,TYSND1,CDK5RAP3,ARPC3,CTAGE5,VCAM1,GPT2,SCD,NAMPT,PRKCI,PRSS21,FAM105B,MSI2,CTLA4,C5orf41,DEK,C3orf58,MASTL,UAP1,YWHAZ,CTSA,TCF12,SMARCA4,DPP7,RIOK2,SOCS1,CD3EAP,KIF14,PPFIBP1,GPM6B,STAG2,ANPEP,PHF17,ARL15,ARL10,ZNF248,STAT3,RPS6KB2,RCOR1,SMARCD2,SPECC1,TNFRSF10A,POLR2C,CD68,WDR11,FIP1L1,LONP2,PDPR,TMTC3,RSF1,CLINT1,ITGB5,MTAP,TMOD3,SLC38A5,RBAK,AGL,FMNL2,CARS2,FADS1,MYO10,CHAF1B,CPT1A,MATR3,MTFMT,LEMD3,AURKA,ZNF207,GLT25D1,IL13RA1,MFF,CCND1,CLUAP1,ERI1,CDH13,RAB27B,FKBP3,DDX17,MAN1A2,ETS1,WRB,F5,ICAM1,TMBIM6,FLI1,RAPGEF2,QRICH1,CALU,DHX40,SLC25A19,GPAM,PSME3,TSHZ3,AGRN,EIF3E,NOVA1,ATPAF1,POLE3,IFNGR1,TRAM1,CHD9,SKIV2L2,RHEB,RAB6C,TIMM13,GNB4,OXNAD1,NUPL2,ALDH3A2,NT5E,SLC27A2,SUPT5H,EIF4G2,FAM135A,PRKAR2A,COL4A2,GHITM,STRBP,RNF2,MYO1E,FAR1,SAP30L,SPCS1,SLC35F2,UBE2J2,ARL5B,ALDH1A2,CEP55,SACM1L,INTS10,EEF1E1,CARD11,CDC40,PACSIN2,THOC7,ARFIP2,ZNF561,HSD17B12,NR3C1,NEU1,ZIC3,ATL2,GLG1,SIN3A,CDH6,SPIN1,EXOC2,ZKSCAN5,SNTB2,NOTCH2,COPS3,DDB2,KDM3A,EPRS,RAB5C,S100A11,SUZ12,RAC1,KRCC1,ATP13A1,GAR1,NSA2,ANXA2,TNPO1,MLH1,OXCT1,CRAT,UPF2,CSDA,PCCB,LEPREL2,VAMP3,EDN1,OSBPL10,PFDN4,IL6,SLC25A40,SSSCA1,PTMS,C3orf26,IMPAD1,NFKB1,KIF22,RRM2,IL8,CLTC,SLC12A4,C16orf62,GMPS,BCL2,NOS3,SLC2A3,PODXL,EDEM3,WWC1,LIN7C,EGFR,GNAS,RAI14,RRAGA,HK2,PNPT1,TOMM20,GNPNAT1,PLEKHA5,WHSC1L1,PUS7,VPS18,UQCRFS1,PSME4,RAB34,CHTOP,BAG5,VBP1,TFCP2,TPD52,ERBB2IP,EIF3G,TAB2,C17orf80,TM6SF1,EEF1A2,KDELC1,MBNL3,UBE2H,AKR1C3,IKBKE,PDE12,GLB1,ATP6V1C1,AP1G1,HAX1,MECR,LRRC59,CARHSP1,BACH1,IRAK3,AIFM1,TJP1,TNFAIP2,PCYOX1,TBCA,LUC7L2,MYB,IER3IP1,QPCTL,LSM3,GCFC2,CDH2,SCAMP1,INPP5D,BCAT1,FAM91A1,ABHD16A,RICTOR,MEIS1,EIF3J,GABARAPL1,SLC39A14,RAB30,SGPL1,CLIC4,PDCD10,CD81,TPBG,CSF1R,PAPOLA,SRSF2,CTNNB1,MITF,ASB6,KRT80,PLK1,FMNL3,SELE,PSMG1,PELI1,FSTL1,CCR9,CCDC137,LCORL,RAB6A,DNAJB1,ARL8B,OBSCN,BET1,C9orf142,HTRA1,OSBPL9,TNKS1BP1,UBA2,RPAP1,NUP155,DNAJC19,DAG1,INA,LPL,SMAD4,ANKFY1,LDOC1,HAL,NCAPG,CD109,PKN2,TLE4,EIF2B5,MOSPD2,PLAUR,PNPLA8,RBPJ,RNF123,LUZP1,VANGL1,ADAM10,STIM1,TACSTD2,GAPVD1,METAP2,VPS36,CBFB,LUC7L3,NMD3,JUP,VAV2,CREB3,PSEN1,KCNH1,C12orf10,SLC7A11,RPL39,C20orf43,AKR7A2,FDFT1,LPGAT1,ANTXR1,ZNF273,CAT,MTHFD2,HIF1A,MPP2,CNDP2,ESRRA,ZNF254,RING1,FLNB,STRN,MRPS27,GATM,COG2,UBQLN1,FAM98B,PRKAR1A,MYO1D,TSPAN3,DMD,NES,ARGLU1,CKAP5,HBP1,DYNC2H1,MSH6,PSAT1,INTS4,FAM96B,FOS,RETSAT,L2HGDH,NAA25,UGT8,EIF3C,ECI1,TCEA1,YARS,TFPI,HSPB11,PPM1G,CAB39,GNL3L,ZNF384,UBE2D3,BRI3BP,NOB1,CTNNA1,TRMT1,UBXN1,TTF1,STX5,SH3BP4,MRPL18,CBR4,RDH13,NEUROG1,UBR4,ALDH5A1,HSPA4L,KDELC2,TMEM33,DNAJC2,PGRMC2,RIF1,MRPS34,INTS8,RBM22,H2AFY,KANK2,FGF2,HNRNPA3P1,MMS22L,CEP41,RAB14,TRIM24,RAB2A,SNX6,CDK5,WEE1,ARFIP1,PMAIP1,EIF3F,HSDL1,CD36,RCN2,LAT2,E2F2,CARS,PRAF2,GLIPR2,DDRGK1,JUN,WDFY1,INTS7,PHF14,SDCBP,CAMTA1,TOMM34,OVCA2,CYFIP1,PLS1,MEST,TIMM8A,APC,KRT6B,MAVS,SYNE2,GNA13,CLDN1,XPC,TRAK1,MYO6,SOX6,CCDC41,OGFOD1,CFL2,RARS,FAM199X,CUL4B,HERC4,MYBL1,ABCC4,LNX2,CECR5,CHRAC1,LY6K,FNDC3B,C3orf18,SSX2IP,CORO1B,TCF4,PAK2,ATP6V1H,AMIGO2,GCFC1,KRAS,NFATC2IP,MUS81,TXNDC12,ZNF28,PPP2R2A,ZNF83,KDM1A,CPD,NARS,DCUN1D2,SMAD3,PPL,EXOC7,CSNK1A1,FUBP3,SNAP29,SLC30A1,ITGB4,CSE1L,SMAD5,IKBIP,STK24,DNMT1,CUX1,EIF2C4,AURKB,FAM177A1,CDC42BPB,HIVEP2,RTN3,MUT,TP53INP1,GLIPR1,CYR61,MORC3,TBC1D8B,SERTAD2,CDK2,PEBP1,PDE3A,PHC2,ATXN10,MARCKS,PNPLA4,CCT2,PDK1,VEZF1,ZNF236,TRIM32,NOLC1,PCDH9,TROVE2,FAM120A,FOXO3,MAT2B,TTC37,MAP3K14,CREB1,CEBPB,NFYC,CLTA,MYD88,JARID2,CASP3,UGDH,IGJ,UBQLN2,CYP51A1,ATG3,RP2,SLC39A10,TRIP13,GRPEL1,CHAF1A,GEMIN5,FASTKD1,FGF7,MEF2A,PHGDH,MCAM,BUD31,LRIF1,ALDH9A1,IGF2R,NUP62,PCNT,UBTD2,WNT5A,TSPAN14,GOLPH3,CNOT10,MCM8,CYP2U1,PLXND1,CIAO1,IL17RB,CTNNBL1,DSG2,TXNRD1,SYPL1,NASP,GCLC,RQCD1,MARC1,AGTR1,GCET2

KEGG pathways enriched for interacted genes

pathway name

pathway description

target genes enrich in pathway

p-value

hsa05210	Colorectal cancer	JUN,CCND1,BCL2,MLH1,EGFR,GSK3B,MSH2,APC,KRAS,CASP3,CTNNB1,SMAD3,SMAD4,MSH6,FOS,PIK3R1,RAC1,SMAD2,	2.06E-6
hsa05200	Pathways in cancer	JUN,CSF1R,STAT3,EGFR,GSK3B,KRAS,CDKN2A,FGF7,JUP,WNT5A,CTNNB1,FGF2,RHOA,MSH6,IL8,CCND1,BCL2,COL4A2,MLH1,MSH2,CDK2,HIF1A,SPI1,APC,CDK4,CASP3,E2F2,MITF,SMAD3,ETS1,SMAD4,NFKB1,FOS,CTNNA1,IL6,RAC1,PIK3R1,SMAD2,	1.52E-5
hsa05212	Pancreatic cancer	CCND1,STAT3,EGFR,KRAS,CDKN2A,CDK4,E2F2,SMAD3,SMAD4,NFKB1,PIK3R1,RAC1,SMAD2,	4.66E-4
hsa05213	Endometrial cancer	CCND1,MLH1,EGFR,FOXO3,GSK3B,KRAS,APC,PIK3R1,CTNNA1,CTNNB1,	1.80E-2
hsa05120	Epithelial cell signaling in Helicobacter pylori infection	JUN,EGFR,MAP3K14,NFKB1,ADAM10,TJP1,RAC1,ATP6V1H,ATP6V1C1,CASP3,IL8,	3.60E-2

hsa04660	T cell receptor signaling pathway	JUN,PDK1,GSK3B,KRAS,CDK4,CARD11,PAK2,VAV2,RHOA,MAP3K14,FOS,NFKB1,PIK3R1,CTLA4,	5.79E-2
hsa00970	Aminoacyl-tRNA biosynthesis	MTFMT,CARS2,YARS,RARS,NARS,LARS,CARS,EPRS,	6.24E-2
hsa05219	Bladder cancer	CCND1,EGFR,CDKN2A,KRAS,CDK4,THBS1,E2F2,IL8,	7.14E-2
hsa04662	B cell receptor signaling pathway	JUN,VAV2,GSK3B,KRAS,NFKB1,CARD11,FOS,PIK3R1,RAC1,CD81,INPP5D,	7.33E-2
hsa04210	Apoptosis	TNFRSF10A,MYD88,BCL2,PRKAR1A,IRAK3,PRKAR2A,APAF1,MAP3K14,NFKB1,AIFM1,PIK3R1,CASP3,	7.50E-2
hsa04520	Adherens junction	SSX2IP,PTPRJ,RHOA,EGFR,SMAD3,SMAD4,TJP1,CTNNA1,RAC1,CTNNB1,SMAD2,	8.81E-2
hsa05215	Prostate cancer	CCND1,BCL2,EGFR,CREB3,GSK3B,CDK2,KRAS,NFKB1,CREB1,PIK3R1,E2F2,CTNNB1,	8.88E-2
hsa04115	p53 signaling pathway	CCND1,APAF1,CDK2,CDKN2A,RRM2,DDB2,CDK4,CASP3,THBS1,PMAIP1,	1.12E-1
hsa05218	Melanoma	CCND1,MITF,FGF2,EGFR,CDKN2A,KRAS,FGF7,CDK4,PIK3R1,E2F2,	1.47E-1
hsa04910	Insulin signaling pathway	HK2,RHEB,GSK3B,KRAS,SOCS1,EXOC7,EIF4E2,RPS6KB2,PRKAR1A,PRKAR2A,PYGL,PDE3A,PRKCI,PIK3R1,INPP5D,	1.53E-1
hsa04722	Neurotrophin signaling pathway	JUN,BCL2,RAP1B,FOXO3,IRAK3,PDK1,GSK3B,PSEN1,KRAS,RHOA,YWHAZ,NFKB1,PIK3R1,RAC1,	1.76E-1
hsa04150	mTOR signaling pathway	EIF4E2,RPS6KB2,RHEB,CAB39,HIF1A,RICTOR,CAB39L,PIK3R1,	2.22E-1
hsa04510	Focal adhesion	JUN,CCND1,BCL2,RAP1B,COL4A2,EGFR,GSK3B,FLNA,FLT1,FLNB,ITGB4,PAK2,ITGB5,CTNNB1,VAV2,RHOA,PIK3R1,RAC1,THBS1,	2.62E-1
hsa05223	Non-small cell lung cancer	CCND1,EGFR,FOXO3,CDKN2A,KRAS,CDK4,PIK3R1,E2F2,	2.68E-1
hsa03018	RNA degradation	RQCD1,PAPOLA,PNPT1,LSM3,CNOT10,EXOSC2,SKIV2L2,TTC37,	3.49E-1
hsa04310	Wnt signaling pathway	CCND1,JUN,CSNK1A1L,CSNK1A1,GSK3B,PSEN1,APC,WNT5A,VANGL1,CTNNB1,RHOA,SMAD3,SMAD4,RAC1,SMAD2,	3.64E-1
hsa05221	Acute myeloid leukemia	CCND1,RPS6KB2,STAT3,SPI1,KRAS,NFKB1,JUP,PIK3R1,	3.79E-1
hsa04110	Cell cycle	CCND1,CDK2,GSK3B,CDKN2A,WEE1,CDK4,E2F2,PLK1,YWHAZ,SMAD3,SMAD4,STAG2,SMAD2,	4.04E-1
hsa04620	Toll-like receptor signaling pathway	JUN,MYD88,TAB2,TICAM2,IKBKE,NFKB1,FOS,IL6,PIK3R1,RAC1,IL8,	4.90E-1
hsa05220	Chronic myeloid leukemia	CCND1,SMAD3,CDKN2A,SMAD4,KRAS,CDK4,NFKB1,PIK3R1,E2F2,	5.17E-1
hsa05412	Arrhythmogenic right ventricular cardiomyopathy (ARVC)	DMD,ITGB4,DSG2,DAG1,ITGB5,JUP,CTNNA1,CDH2,CTNNB1,	5.51E-1
hsa04530	Tight junction	CSDA,KRAS,CDK4,PPP2R2A,CLDN1,MPP5,CTNNB1,RHOA,EPB41L2,PRKCI,EXOC3,CTNNA1,TJP1,	6.27E-1
hsa00100	Steroid biosynthesis	HSD17B7,DHCR24,FDFT1,CYP51A1,	6.27E-1
hsa04120	Ubiquitin mediated proteolysis	HERC4,UBA2,DET1,UBE2H,SOCS1,UBE2J2,TRIM32,UBA3,UBE2D2,UBE2D3,CUL4B,DDB2,UBE2J1,	7.17E-1
hsa04810	Regulation of actin cytoskeleton	EGFR,DIAPH3,APC,GNA13,KRAS,FGF7,ITGB4,PAK2,ITGB5,CFL2,VAV2,CYFIP1,RHOA,FGF2,ARPC3,NCKAP1,PIK3R1,RAC1,	8.00E-1
hsa05211	Renal cell carcinoma	JUN,RAP1B,HIF1A,ETS1,KRAS,PAK2,PIK3R1,RAC1,	8.74E-1
hsa05222	Small cell lung cancer	CCND1,BCL2,COL4A2,APAF1,CDK2,CDK4,NFKB1,PIK3R1,E2F2,	8.81E-1
hsa00280	Valine, leucine and isoleucine degradation	OXCT1,ALDH9A1,ALDH3A2,PCCB,MUT,BCAT1,	9.10E-1
hsa03420	Nucleotide excision repair	POLE4,RAD23B,POLE3,CUL4B,DDB2,XPC,	9.10E-1

Gene ontology terms enriched for interacted genes

GO terms

GO terms description

target genes enrich in GO term

p-value

GO:0008104	protein localization	TIMM13,JUN,SNAP29,RAB34,MORC3,TOMM34,CD36,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,DMD,RBM22,ERBB2IP,RAB11FIP2,GRPEL1,TRAM1,EXOC7,DYNC2H1,CD81,DHCR24,AURKB,AP1G1,LIN7C,MYO6,PRAF2,RAB27B,RAB5C,EXOC3,RAB6C,NUP62,COG2,PAM16,LONP2,TOMM20,IPO8,RAB6A,CSE1L,RAB23,XPO1,EGFR,CUTA,GSK3B,FLNA,FLNB,PSEN1,NMD3,VPS36,TNPO1,GOLT1B,RAB14,SEC24B,CTNNB1,RAB30,VPS18,NASP,NUP155,STX5,RAB2A,EXOC2,VPS4B,SCAMP1,STXBP2,BET1,GNAS,TIMM8A,CDK5,CTSA,CLTA,SDCBP,CLTC,DNAJC19,YWHAZ,ATG3,	3.31E-8
GO:0045184	establishment of protein localization	TIMM13,JUN,SNAP29,RAB34,TOMM34,CD36,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,RBM22,ERBB2IP,RAB11FIP2,GRPEL1,TRAM1,EXOC7,AP1G1,LIN7C,MYO6,RAB27B,PRAF2,RAB5C,EXOC3,RAB6C,NUP62,COG2,PAM16,LONP2,TOMM20,IPO8,RAB6A,CSE1L,RAB23,XPO1,GSK3B,FLNA,NMD3,PSEN1,VPS36,TNPO1,GOLT1B,RAB14,SEC24B,RAB30,VPS18,NASP,NUP155,STX5,RAB2A,EXOC2,VPS4B,SCAMP1,STXBP2,BET1,GNAS,TIMM8A,CDK5,CTSA,CLTA,SDCBP,CLTC,DNAJC19,YWHAZ,ATG3,	3.70E-7
GO:0006357	regulation of transcription from RNA polymerase II promoter	JUN,CSDA,TFCP2,MECP2,STAT3,JARID2,SUPT5H,SUZ12,SMARCA4,JUNB,FOXK1,CUX1,CEBPB,TRAK1,DRAP1,NEUROG1,RHOA,FGF2,ESRRA,SKI,BCL6,TCF4,ZIC3,CIAO1,AGRN,HIF1A,SPI1,CREB1,TCF12,SOX6,DR1,SMAD3,MYO6,SMARCD2,ETS1,KDM1A,SMAD4,NFKB1,SMAD1,SMARCE1,SMAD2,RUNX2,SIN3A,CBFB,ZNF254,DNMT1,CTNNB1,RNF2,NFYC,SMAD5,TTF1,BUD31,MAFB,FOXO3,HDAC4,PKIA,DEK,MITF,PRKAR1A,TCEA1,VEZF1,FOS,IL6,	5.19E-7
GO:0015031	protein transport	TIMM13,JUN,SNAP29,RAB34,TOMM34,CD36,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,RBM22,ERBB2IP,RAB11FIP2,GRPEL1,TRAM1,EXOC7,AP1G1,LIN7C,MYO6,RAB27B,PRAF2,RAB5C,EXOC3,RAB6C,NUP62,COG2,PAM16,LONP2,TOMM20,IPO8,RAB6A,CSE1L,XPO1,RAB23,GSK3B,NMD3,PSEN1,VPS36,TNPO1,GOLT1B,RAB14,SEC24B,RAB30,VPS18,NASP,NUP155,STX5,RAB2A,EXOC2,VPS4B,SCAMP1,STXBP2,BET1,GNAS,TIMM8A,CDK5,CTSA,CLTA,SDCBP,CLTC,DNAJC19,YWHAZ,ATG3,	5.70E-7
GO:0010605	negative regulation of macromolecule metabolic process	JUN,CSDA,MECP2,STAT3,JARID2,SUPT5H,SUZ12,SMARCA4,FOXK1,CUX1,DRAP1,FGF2,PSME3,SNX6,MSH6,RSF1,SKI,BCL6,INPP5D,TCF4,MLH1,MAP3K10,SPI1,EDN1,PEBP1,SOX6,DR1,SMAD3,KDM1A,SMAD4,NFKB1,EIF3E,SMAD1,SMARCE1,SMAD2,RUNX2,SIN3A,ZNF254,RAB23,FLNA,PSEN1,CDKN2A,GCLC,ERI1,SOCS1,DNMT1,CTNNB1,S100A11,RNF2,RBPJ,TTF1,EIF2B5,MOV10,IRAK3,MSH2,HDAC4,PKIA,EIF2C4,CDK5,TRIM24,UBA3,IL6,THBS1,	7.04E-7

GO:0010033	response to organic substance	JUN,STAT3,SUPT5H,DNAJB1,GNB4,CCL2,PPP5C,LPIN1,JUNB,MYD88,KDM3A,PRKCI,ADH5,NOS3,NR3C1,CREB1,CASP3,PEBP1,PMAIP1,CYR61,ASNS,SMAD3,UQCRFS1,SMAD1,SMAD2,NUP62,LONP2,EGFR,SELE,EDEM3,KRAS,GATM,GCLC,SOCS1,FADS1,PPP2R2A,AURKA,CTNNB1,ABHD16A,EIF2B2,PDE3A,EIF2B5,ADAM10,CCND1,ALDH1A2,HSPA4L,BCL2,VPS4B,IRAK3,MSH2,HDAC4,GNAS,CDH13,CDK5,DEK,PRKAR1A,PRKAR2A,FOS,PIK3R1,IL6,THBS1,	1.79E-6
GO:0048514	blood vessel morphogenesis	JUN,SMARCA4,B4GALT1,GNA13,TNFAIP2,CTNNB1,JUNB,RBPJ,FGF2,SGPL1,IL8,NOS3,PTPRJ,ANXA2,FLT1,HIF1A,AIMP1,ANPEP,CDH13,EDN1,CYR61,TGM2,VEZF1,MYO1E,THBS1,PLXND1,CDH2,	2.37E-6
GO:0051272	positive regulation of cell motion	BCL2,EGFR,HIF1A,FLT1,APC,CDH13,EDN1,ICAM1,FGF2,CREB3,SMAD3,ETS1,ADAM10,PIK3R1,BCL6,IL6,THBS1,	6.02E-6
GO:0006461	protein complex assembly	CSE1L,IPO8,XPO1,CUTA,FLNA,RRM2,VAMP3,TNPO1,CAT,PAK2,DAG1,JUP,PPP5C,ATPAF1,GEMIN5,CTNNB1,PICALM,TBCA,TTF1,RSF1,SKI,CBR4,LNX2,CHAF1A,AGRN,MLH1,SLC9A3R2,APC,SEPT11,PSMG1,E2F2,PEBP1,ATL2,CDK5,ALDH5A1,TGM2,TRIM24,SMAD3,SMAD4,POLR2C,CHAF1B,RAC1,EPRS,SMAD1,CDH2,SMAD2,	6.57E-6
GO:0070271	protein complex biogenesis	CSE1L,IPO8,XPO1,CUTA,FLNA,RRM2,VAMP3,TNPO1,CAT,PAK2,DAG1,JUP,PPP5C,ATPAF1,GEMIN5,CTNNB1,PICALM,TBCA,TTF1,RSF1,SKI,CBR4,LNX2,CHAF1A,AGRN,MLH1,SLC9A3R2,APC,SEPT11,PSMG1,E2F2,PEBP1,ATL2,CDK5,ALDH5A1,TGM2,TRIM24,SMAD3,SMAD4,POLR2C,CHAF1B,RAC1,EPRS,SMAD1,CDH2,SMAD2,	6.57E-6
GO:0034097	response to cytokine stimulus	JUN,ALDH1A2,NOS3,BCL2,STAT3,IRAK3,SELE,HDAC4,SOCS1,CASP3,JUNB,CTNNB1,MYD88,FOS,ADAM10,	8.62E-6
GO:0010941	regulation of cell death	JUN,CSDA,NOTCH2,B4GALT1,CCL2,CARD11,CAT,OBSCN,CEBPB,MYD88,IGF2R,RHOA,FGF2,PSME3,MSH6,CTNNBL1,PRKCI,BCL6,INPP5D,NOS3,MLH1,AMIGO2,NR3C1,MAP3K10,CREB1,CASP3,PMAIP1,DHCR24,TP53INP1,VAV2,ASNS,SMAD3,ETS1,NFKB1,TRIO,RAC1,NUP62,EGFR,APAF1,GSK3B,EEF1A2,KRAS,CDKN2A,PSEN1,GCLC,RRAGA,TXNDC12,TNFRSF10A,PDE3A,CIAPIN1,EEF1E1,BCL2,FOXO3,MSH2,APC,CDH13,CDK5,TGM2,MITF,YWHAZ,AIFM1,IL6,TMBIM6,THBS1,	1.08E-5
GO:0001568	blood vessel development	JUN,SMARCA4,B4GALT1,GNA13,PSEN1,TNFAIP2,CTNNB1,JUNB,RBPJ,FGF2,SGPL1,IL8,NOS3,PTPRJ,ANXA2,FLT1,HIF1A,AIMP1,ANPEP,CDH13,EDN1,CYR61,TGM2,VEZF1,MYO1E,THBS1,PLXND1,CDH2,	1.25E-5
GO:0034613	cellular protein localization	TIMM13,JUN,LONP2,COG2,CSE1L,IPO8,TOMM20,XPO1,EGFR,MORC3,GSK3B,FLNA,TOMM34,TNPO1,SEC24B,CTNNB1,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,STX5,RBM22,ERBB2IP,TRAM1,GRPEL1,TIMM8A,CDK5,AURKB,CTSA,AP1G1,CLTA,SDCBP,CLTC,MYO6,YWHAZ,DNAJC19,	1.52E-5
GO:0070727	cellular macromolecule localization	TIMM13,JUN,LONP2,COG2,CSE1L,IPO8,TOMM20,XPO1,EGFR,MORC3,GSK3B,FLNA,TOMM34,TNPO1,SEC24B,CTNNB1,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,STX5,RBM22,ERBB2IP,TRAM1,GRPEL1,TIMM8A,CDK5,AURKB,CTSA,AP1G1,CLTA,SDCBP,CLTC,MYO6,YWHAZ,DNAJC19,	1.80E-5
GO:0043067	regulation of programmed cell death	JUN,CSDA,NOTCH2,B4GALT1,CCL2,CARD11,CAT,OBSCN,CEBPB,MYD88,IGF2R,RHOA,FGF2,PSME3,MSH6,CTNNBL1,PRKCI,BCL6,INPP5D,NOS3,MLH1,AMIGO2,NR3C1,MAP3K10,CREB1,CASP3,PMAIP1,DHCR24,TP53INP1,VAV2,ASNS,SMAD3,ETS1,NFKB1,TRIO,RAC1,NUP62,EGFR,APAF1,GSK3B,EEF1A2,KRAS,CDKN2A,PSEN1,GCLC,TXNDC12,TNFRSF10A,PDE3A,CIAPIN1,EEF1E1,BCL2,FOXO3,MSH2,APC,CDH13,CDK5,TGM2,MITF,YWHAZ,AIFM1,IL6,TMBIM6,THBS1,	1.86E-5
GO:0001944	vasculature development	JUN,SMARCA4,B4GALT1,GNA13,PSEN1,TNFAIP2,CTNNB1,JUNB,RBPJ,FGF2,SGPL1,IL8,NOS3,PTPRJ,ANXA2,FLT1,HIF1A,AIMP1,ANPEP,CDH13,EDN1,CYR61,TGM2,VEZF1,MYO1E,THBS1,PLXND1,CDH2,	1.95E-5
GO:0043066	negative regulation of apoptosis	NUP62,CSDA,NOTCH2,EGFR,GSK3B,EEF1A2,PSEN1,KRAS,CCL2,GCLC,CAT,MYD88,CEBPB,RHOA,PDE3A,PRKCI,BCL6,CIAPIN1,NOS3,BCL2,AMIGO2,MSH2,APC,CDH13,CASP3,DHCR24,TGM2,MITF,ASNS,SMAD3,YWHAZ,NFKB1,IL6,TMBIM6,THBS1,	1.97E-5
GO:0040017	positive regulation of locomotion	BCL2,EGFR,HIF1A,FLT1,APC,CDH13,EDN1,ICAM1,FGF2,CREB3,SMAD3,ADAM10,PIK3R1,IL6,THBS1,IL8,	2.59E-5
GO:0043069	negative regulation of programmed cell death	NUP62,CSDA,NOTCH2,EGFR,GSK3B,EEF1A2,PSEN1,KRAS,CCL2,GCLC,CAT,MYD88,CEBPB,RHOA,PDE3A,PRKCI,BCL6,CIAPIN1,NOS3,BCL2,AMIGO2,MSH2,APC,CDH13,CASP3,DHCR24,TGM2,MITF,ASNS,SMAD3,YWHAZ,NFKB1,IL6,TMBIM6,THBS1,	2.62E-5
GO:0042981	regulation of apoptosis	JUN,CSDA,NOTCH2,B4GALT1,CCL2,CARD11,CAT,OBSCN,MYD88,CEBPB,IGF2R,RHOA,PSME3,MSH6,CTNNBL1,PRKCI,BCL6,INPP5D,NOS3,MLH1,AMIGO2,NR3C1,MAP3K10,CREB1,CASP3,PMAIP1,DHCR24,TP53INP1,VAV2,ASNS,SMAD3,ETS1,NFKB1,TRIO,RAC1,NUP62,EGFR,APAF1,GSK3B,EEF1A2,KRAS,CDKN2A,PSEN1,GCLC,TXNDC12,TNFRSF10A,PDE3A,CIAPIN1,EEF1E1,BCL2,FOXO3,MSH2,APC,CDH13,CDK5,TGM2,MITF,YWHAZ,AIFM1,IL6,TMBIM6,THBS1,	2.68E-5
GO:0042127	regulation of cell proliferation	JUN,NOTCH2,JARID2,SUZ12,MORC3,B4GALT1,CCL2,FGF7,CARD11,MYD88,FGF2,CREB3,NAMPT,ESRRA,SKI,BCL6,INPP5D,IL8,NOS3,CIAO1,FLT1,HIF1A,AIMP1,LDOC1,CD81,CASP3,EDN1,ASPH,DHCR24,VCAM1,SMAD3,ETS1,SMAD4,SMAD1,CTLA4,SMAD2,NUP62,RUNX2,IL13RA1,STRN,EGFR,KRAS,CDKN2A,CTNNB1,S100A11,ADAM10,CCND1,ALDH1A2,EEF1E1,BCL2,CDK2,APC,HDAC4,CDK4,CDH13,TGM2,TRIM24,MITF,AGTR1,IL6,THBS1,	2.69E-5
GO:0060548	negative regulation of cell death	NUP62,CSDA,NOTCH2,EGFR,GSK3B,EEF1A2,PSEN1,KRAS,CCL2,GCLC,CAT,MYD88,CEBPB,RHOA,PDE3A,PRKCI,BCL6,CIAPIN1,NOS3,BCL2,AMIGO2,MSH2,APC,CDH13,CASP3,DHCR24,TGM2,MITF,ASNS,SMAD3,YWHAZ,NFKB1,IL6,TMBIM6,THBS1,	2.77E-5
GO:0008285	negative regulation of cell proliferation	NUP62,JUN,STRN,NOTCH2,JARID2,MORC3,B4GALT1,CDKN2A,S100A11,FGF2,SKI,BCL6,IL8,INPP5D,EEF1E1,ALDH1A2,NOS3,BCL2,HDAC4,APC,AIMP1,LDOC1,CDH13,CASP3,ASPH,DHCR24,TRIM24,SMAD3,SMAD4,ETS1,IL6,THBS1,SMAD1,SMAD2,CTLA4,	2.94E-5
GO:0001525	angiogenesis	JUN,NOS3,ANXA2,B4GALT1,HIF1A,FLT1,GNA13,AIMP1,TNFAIP2,ANPEP,CDH13,EDN1,CTNNB1,CYR61,RBPJ,FGF2,VEZF1,PLXND1,THBS1,IL8,	3.01E-5
GO:0030335	positive regulation of cell migration	BCL2,EGFR,HIF1A,FLT1,APC,CDH13,EDN1,ICAM1,FGF2,CREB3,SMAD3,ADAM10,PIK3R1,IL6,THBS1,	3.51E-5
GO:0046907	intracellular transport	TIMM13,JUN,TOMM34,CUX1,THOC7,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,RBM22,ERBB2IP,GRPEL1,TRAM1,ATL2,CLINT1,AP1G1,MYO6,MYO1E,LONP2,COG2,IPO8,TOMM20,CSE1L,XPO1,UPF2,GSK3B,FLNA,PSEN1,ERGIC1,TNPO1,RAB14,SEC24B,NUP155,STX5,RAB2A,BCL2,VPS4B,SCAMP1,BET1,GNAS,TIMM8A,CDK5,CTSA,ZNF384,EHD1,CLTA,SDCBP,CLTC,DNAJC19,YWHAZ,	3.57E-5
GO:0045934	negative regulation of nucleobase, nucleoside, nucleotide and nucleic acid metabolic process	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,GCLC,DNMT1,S100A11,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,MSH6,TTF1,RSF1,SKI,BCL6,TCF4,MLH1,MAP3K10,MSH2,HDAC4,SPI1,PKIA,EDN1,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,SMARCE1,SMAD2,	4.47E-5
GO:0010558	negative regulation of macromolecule biosynthetic process	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,JARID2,SUPT5H,SUZ12,SMARCA4,GCLC,DNMT1,S100A11,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,TTF1,RSF1,EIF2B5,SKI,BCL6,TCF4,INPP5D,MAP3K10,HDAC4,SPI1,PKIA,EIF2C4,EDN1,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,EIF3E,IL6,SMARCE1,SMAD2,	4.84E-5
GO:0051172	negative regulation of nitrogen compound metabolic process	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,GCLC,DNMT1,S100A11,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,MSH6,TTF1,RSF1,SKI,BCL6,TCF4,MLH1,MAP3K10,MSH2,HDAC4,SPI1,PKIA,EDN1,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,SMARCE1,SMAD2,	6.07E-5
GO:0007049	cell cycle	NCAPG,NOTCH2,SUPT5H,RIF1,PPP5C,SPIN1,PSME3,MSH6,PHGDH,CKAP5,IL8,PCNT,ERBB2IP,MLH1,SSSCA1,SEPT11,NCAPD2,PBRM1,EIF4G2,DHCR24,AURKB,TP53INP1,PPM1G,SMAD3,CUL4B,BCAT1,CHAF1B,TRIP13,SH3BP4,EGFR,GSK3B,CDKN2A,NOLC1,CTNNB1,AURKA,RNF2,CEP55,PLK1,NASP,MCM8,STAG2,CCND1,BCL2,CHAF1A,VPS4B,CDC73,CDK2,MSH2,HBP1,APC,WEE1,KIF22,CDK4,E2F2,CDK5,UBA3,RAD1,THBS1,DNAJC2,	6.38E-5
GO:0006605	protein targeting	TIMM13,JUN,LONP2,RBM22,CSE1L,TOMM20,IPO8,ERBB2IP,XPO1,GSK3B,TOMM34,GRPEL1,TRAM1,TNPO1,TIMM8A,TRAK1,FGF2,SDCBP,DNAJC19,YWHAZ,NUPL2,MYO6,PRKCI,BCL6,	8.67E-5
GO:0012501	programmed cell death	JUN,MEF2A,PAK2,OBSCN,FGF2,PSME3,CTNNBL1,SGPL1,INPP5D,PDCD10,AIMP1,CASP3,PMAIP1,DHCR24,TP53INP1,VAV2,SMAD3,NFKB1,TRIO,RAC1,CSE1L,APAF1,CDKN2A,PSEN1,KRAS,RTKN,RRAGA,CTNNB1,TXNDC12,TNFRSF10A,BAG5,CIAPIN1,BCL2,YARS,FASTKD1,FOXO3,RTN3,BCL7C,MSH2,LUC7L3,E2F2,CDK5,TGM2,PHF17,NCKAP1,AIFM1,IL6,TMBIM6,THBS1,	8.73E-5
GO:0031327	negative regulation of cellular biosynthetic process	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,JARID2,SUPT5H,SUZ12,SMARCA4,GCLC,DNMT1,S100A11,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,TTF1,RSF1,EIF2B5,SKI,BCL6,TCF4,INPP5D,MAP3K10,HDAC4,SPI1,PKIA,EIF2C4,EDN1,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,EIF3E,IL6,SMARCE1,SMAD2,	8.78E-5
GO:0045667	regulation of osteoblast differentiation	RUNX2,SMAD3,SMAD5,APC,ESRRA,SKI,GNAS,IL6,SMAD1,CTNNB1,	9.22E-5
GO:0006915	apoptosis	JUN,CSE1L,MEF2A,APAF1,KRAS,PSEN1,CDKN2A,RTKN,RRAGA,PAK2,CTNNB1,OBSCN,TXNDC12,TNFRSF10A,FGF2,PSME3,CTNNBL1,BAG5,SGPL1,INPP5D,CIAPIN1,PDCD10,YARS,FASTKD1,BCL2,RTN3,FOXO3,BCL7C,MSH2,AIMP1,CASP3,E2F2,PMAIP1,LUC7L3,CDK5,DHCR24,VAV2,TP53INP1,PHF17,SMAD3,NCKAP1,NFKB1,AIFM1,RAC1,TRIO,TMBIM6,IL6,THBS1,	1.18E-4
GO:0045892	negative regulation of transcription, DNA-dependent	CSDA,SIN3A,STAT3,MECP2,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,DNMT1,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,RSF1,SKI,BCL6,TCF4,HDAC4,SPI1,PKIA,TRIM24,SOX6,DR1,SMAD3,KDM1A,SMAD4,NFKB1,SMARCE1,SMAD2,	1.22E-4
GO:0006413	translational initiation	EIF4E2,EIF3J,EIF3C,EIF2B2,EIF3A,EIF3CL,EIF2B5,EIF3G,EIF3E,EIF3F,	1.33E-4
GO:0010629	negative regulation of gene expression	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,GCLC,ERI1,DNMT1,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,RSF1,SKI,BCL6,TCF4,MOV10,MAP3K10,HDAC4,SPI1,PKIA,EIF2C4,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,SMARCE1,SMAD1,SMAD2,	1.34E-4
GO:0001952	regulation of cell-matrix adhesion	BCL2,SMAD3,CDKN2A,BCL6,CDH13,PIK3R1,THBS1,CD36,	1.34E-4
GO:0006886	intracellular protein transport	TIMM13,JUN,LONP2,COG2,CSE1L,TOMM20,IPO8,XPO1,GSK3B,TOMM34,TNPO1,SEC24B,TRAK1,ARFIP1,FGF2,SNX6,NUPL2,PRKCI,BCL6,STX5,RBM22,ERBB2IP,TRAM1,GRPEL1,TIMM8A,CDK5,CTSA,AP1G1,CLTA,SDCBP,CLTC,YWHAZ,DNAJC19,MYO6,	1.36E-4
GO:0051270	regulation of cell motion	BCL2,CLIC4,EGFR,B4GALT1,HIF1A,FLT1,APC,GNA13,CDH13,EDN1,ICAM1,CDK5,FGF2,CREB3,SMAD3,ETS1,ADAM10,IL6,PIK3R1,BCL6,RAC1,THBS1,	1.37E-4
GO:0009890	negative regulation of biosynthetic process	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,JARID2,SUPT5H,SUZ12,SMARCA4,GCLC,DNMT1,S100A11,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,TTF1,RSF1,EIF2B5,SKI,BCL6,TCF4,INPP5D,MAP3K10,HDAC4,SPI1,PKIA,EIF2C4,EDN1,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,EIF3E,IL6,SMARCE1,SMAD2,	1.43E-4
GO:0051098	regulation of binding	BCL2,SMARCA4,IRAK3,FLNA,HDAC4,PSEN1,CDKN2A,KRAS,CARD11,CAT,ICAM1,MYD88,SMAD3,KDM1A,SMAD4,SKI,RSF1,IL6,SMAD2,	1.52E-4
GO:0010810	regulation of cell-substrate adhesion	CYR61,BCL2,SMAD3,HSD17B12,CDKN2A,BCL6,CDH13,PIK3R1,THBS1,CD36,	1.60E-4
GO:0016192	vesicle-mediated transport	COG2,RAB6A,SH3BP4,SNAP29,RAB34,FLNA,KRAS,PSEN1,VAMP3,ERGIC1,RAB14,ATP6V1H,GOLT1B,CD36,SEC24B,CTNNB1,PICALM,CUX1,IGF2R,PRKCI,PACSIN2,STX5,EXOC2,GAPVD1,RAB2A,PACSIN3,VPS4B,RTN3,SCAMP1,STXBP2,BET1,EXOC7,LAT2,ATL2,CDK5,CLINT1,AP1G1,LIN7C,CLTA,EHD1,CLTC,MYO6,YWHAZ,EXOC3,RAC1,THBS1,RAB6C,	1.61E-4
GO:0051253	negative regulation of RNA metabolic process	CSDA,SIN3A,STAT3,MECP2,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,DNMT1,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,RSF1,SKI,BCL6,TCF4,HDAC4,SPI1,PKIA,TRIM24,SOX6,DR1,SMAD3,KDM1A,SMAD4,NFKB1,SMARCE1,SMAD2,	1.66E-4
GO:0030029	actin filament-based process	FMNL3,SELE,FLNA,FLNB,KRAS,PAK2,CDC42BPB,LPIN1,DBN1,RHOA,FMNL2,RICTOR,PRKCI,PACSIN2,BCL6,BCL2,ARFIP2,DIAPH3,CDK5,SDCBP,MYO6,EPB41L2,ANTXR1,RAC1,MYO1E,	1.86E-4
GO:0008219	cell death	JUN,MEF2A,PAK2,OBSCN,FGF2,PSME3,CTNNBL1,SGPL1,INPP5D,PDCD10,AIMP1,CASP3,PMAIP1,EIF4G2,DHCR24,OLR1,TP53INP1,VAV2,SMAD3,NFKB1,TRIO,RAC1,NUP62,CSE1L,APAF1,KRAS,CDKN2A,PSEN1,RTKN,RRAGA,CTNNB1,TXNDC12,TNFRSF10A,SLC33A1,BAG5,CIAPIN1,BCL2,YARS,FASTKD1,FOXO3,RTN3,BCL7C,MSH2,E2F2,LUC7L3,ATXN10,CDK5,TGM2,PHF17,NCKAP1,AIFM1,IL6,TMBIM6,THBS1,	1.89E-4
GO:0016265	death	JUN,MEF2A,PAK2,OBSCN,FGF2,PSME3,CTNNBL1,SGPL1,INPP5D,PDCD10,AIMP1,CASP3,PMAIP1,EIF4G2,DHCR24,OLR1,TP53INP1,VAV2,SMAD3,NFKB1,TRIO,RAC1,NUP62,CSE1L,APAF1,KRAS,CDKN2A,PSEN1,RTKN,RRAGA,CTNNB1,TXNDC12,TNFRSF10A,SLC33A1,BAG5,CIAPIN1,BCL2,YARS,FASTKD1,FOXO3,RTN3,BCL7C,MSH2,E2F2,LUC7L3,ATXN10,CDK5,TGM2,PHF17,NCKAP1,AIFM1,IL6,TMBIM6,THBS1,	2.21E-4
GO:0045597	positive regulation of cell differentiation	JUN,RUNX2,LPL,BCL2,FOXO3,HIF1A,APC,GNAS,FNDC3B,CTNNB1,JUNB,CD36,RHOA,FGF2,AGTR1,SMAD3,SMAD5,SMAD4,ETS1,NFKB1,IL6,SMAD1,SMAD2,INPP5D,	2.23E-4
GO:0045637	regulation of myeloid cell differentiation	JUN,MITF,MAFB,FOXO3,HIF1A,ETS1,SPI1,APC,ESRRA,GNAS,CTNNB1,INPP5D,	2.41E-4
GO:0043933	macromolecular complex subunit organization	H2AFY,VAMP3,PAK2,CAT,JUP,PPP5C,GEMIN5,RSF1,CBR4,SKI,SRPK2,AGRN,MLH1,SLC9A3R2,SEPT11,PSMG1,PEBP1,ATL2,SMAD3,SMAD4,CHAF1B,RAC1,SMAD1,SMARCE1,CDH2,EPRS,SMAD2,LPL,IPO8,CSE1L,XPO1,CUTA,FLNA,RRM2,TNPO1,DAG1,ATPAF1,CTNNB1,PICALM,TBCA,TTF1,NASP,LNX2,CHAF1A,APC,EIF3A,E2F2,CDK5,ALDH5A1,TGM2,TRIM24,AGTR1,POLR2C,	2.58E-4
GO:0051094	positive regulation of developmental process	JUN,RUNX2,LPL,B4GALT1,FNDC3B,CTNNB1,CD36,JUNB,FGF2,RHOA,SMAD5,INPP5D,NOS3,BCL2,FOXO3,HIF1A,APC,GNAS,AGTR1,SMAD3,SMAD4,ETS1,NFKB1,IL6,THBS1,SMAD1,SMAD2,	2.80E-4
GO:0010604	positive regulation of macromolecule metabolic process	JUN,STAT3,SUPT5H,SMARCA4,CARD11,JUNB,FOXK1,CEBPB,SERTAD2,KDM3A,FGF2,PSME3,RICTOR,ESRRA,RSF1,TCF4,ZIC3,AGRN,HIF1A,SPI1,CREB1,CD81,SOX6,SMAD3,MYO6,ETS1,SMAD4,NFKB1,SMAD1,SMAD2,NUP62,RUNX2,CBFB,SELE,PSEN1,GCLC,DNMT1,CTNNB1,TRIM32,NFYC,PLK1,SMAD5,TTF1,EIF2B5,CCND1,BCL2,PACSIN3,MAFB,FOXO3,CDK2,APC,HDAC4,CDK4,CDH13,TRIM24,MITF,TCEA1,AGTR1,FOS,IL6,THBS1,	2.90E-4
GO:0016481	negative regulation of transcription	RUNX2,CSDA,SIN3A,MECP2,STAT3,ZNF254,SUPT5H,JARID2,SUZ12,SMARCA4,GCLC,DNMT1,FOXK1,CTNNB1,CUX1,DRAP1,RNF2,RBPJ,FGF2,SNX6,RSF1,SKI,BCL6,TCF4,MAP3K10,HDAC4,SPI1,PKIA,UBA3,TRIM24,SOX6,DR1,SMAD3,SMAD4,KDM1A,NFKB1,SMARCE1,SMAD2,	3.32E-4
GO:0030334	regulation of cell migration	BCL2,CLIC4,EGFR,HIF1A,FLT1,APC,GNA13,CDH13,EDN1,ICAM1,CDK5,FGF2,CREB3,SMAD3,ADAM10,PIK3R1,RAC1,IL6,THBS1,	5.22E-4
GO:0016568	chromatin modification	SUPT5H,SUZ12,SMARCA4,H2AFY,CHRAC1,DNMT1,RNF2,KDM3A,TTF1,NASP,RSF1,ARID2,NR3C1,CDC73,TAF5L,HDAC4,WHSC1L1,PBRM1,BRPF3,CHD9,RCOR1,PHF17,SMARCD2,RING1,KDM1A,SMARCE1,	5.27E-4
GO:0045944	positive regulation of transcription from RNA polymerase II promoter	JUN,RUNX2,CBFB,STAT3,SUPT5H,SMARCA4,JUNB,CTNNB1,CEBPB,FGF2,SMAD5,TTF1,ESRRA,ZIC3,AGRN,MAFB,FOXO3,HIF1A,HDAC4,CREB1,MITF,SOX6,TCEA1,SMAD3,MYO6,SMAD4,ETS1,FOS,NFKB1,IL6,SMAD1,SMAD2,	5.58E-4
GO:0009719	response to endogenous stimulus	NUP62,STAT3,KRAS,GATM,GCLC,GNB4,CCL2,SOCS1,FADS1,LPIN1,JUNB,CTNNB1,AURKA,KDM3A,EIF2B2,PRKCI,EIF2B5,CCND1,ALDH1A2,NOS3,BCL2,MSH2,GNAS,CDH13,PEBP1,ASNS,PRKAR1A,PRKAR2A,FOS,UQCRFS1,IL6,PIK3R1,THBS1,SMAD1,	5.79E-4
GO:0065003	macromolecular complex assembly	H2AFY,VAMP3,PAK2,CAT,JUP,PPP5C,GEMIN5,RSF1,CBR4,SKI,SRPK2,AGRN,MLH1,SLC9A3R2,SEPT11,PSMG1,PEBP1,ATL2,SMAD3,SMAD4,CHAF1B,RAC1,SMAD1,CDH2,EPRS,SMAD2,CSE1L,IPO8,XPO1,CUTA,FLNA,RRM2,TNPO1,DAG1,ATPAF1,CTNNB1,PICALM,TBCA,TTF1,LNX2,CHAF1A,APC,EIF3A,E2F2,CDK5,ALDH5A1,TGM2,TRIM24,POLR2C,	6.00E-4
GO:0007167	enzyme linked receptor protein signaling pathway	JUN,CSF1R,STAT3,EGFR,FLNA,FGF7,CCL2,FGF2,AXL,SMAD5,SKI,SGPL1,PTPRJ,ERBB2IP,AGRN,CD3EAP,FLT1,CREB1,CDK5,FSTL1,UBE2D3,SMAD3,SMAD4,FOS,MPZL1,MYO1E,TRIO,PIK3R1,SMAD1,SMAD2,	6.54E-4
GO:0010628	positive regulation of gene expression	NUP62,JUN,RUNX2,STAT3,CBFB,SUPT5H,SMARCA4,DNMT1,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,KDM3A,NFYC,FGF2,SMAD5,TTF1,ESRRA,RSF1,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,CDK2,HDAC4,SPI1,CREB1,CDH13,TRIM24,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	7.00E-4
GO:0009967	positive regulation of signal transduction	NUP62,NOTCH2,FLNA,KRAS,CARD11,CAT,PPP5C,GOLT1B,CTNNB1,MYD88,RHOA,TICAM2,TAB2,RICTOR,EEF1E1,MAVS,GOLPH3,FLT1,HIF1A,CDH13,PEBP1,TGM2,IKBKE,SMAD4,IL6,RAC1,THBS1,	7.06E-4
GO:0010647	positive regulation of cell communication	NUP62,NOTCH2,EGFR,FLNA,KRAS,CCL2,CARD11,CAT,PPP5C,GOLT1B,CTNNB1,MYD88,RHOA,TICAM2,TAB2,RICTOR,EEF1E1,MAVS,GOLPH3,FLT1,HIF1A,CDH13,PEBP1,TGM2,IKBKE,SMAD4,IL6,RAC1,THBS1,	7.62E-4
GO:0000122	negative regulation of transcription from RNA polymerase II promoter	SIN3A,CSDA,STAT3,MECP2,SUZ12,SUPT5H,JARID2,ZNF254,SMARCA4,DNMT1,CTNNB1,CUX1,DRAP1,RNF2,SKI,BCL6,TCF4,SPI1,HDAC4,PKIA,SOX6,DR1,SMAD3,KDM1A,NFKB1,	7.93E-4
GO:0006412	translation	CARS2,RARS,EGFR,EEF1A2,EIF4E2,EIF4A1,EIF3J,SECISBP2,NARS,EIF2B2,EIF2B5,EEF1E1,YARS,RPL39,EIF3C,LARS,AIMP1,EIF3A,CARS,EIF3G,EIF3F,MTFMT,EIF4G2,RPS6KB2,MRPL16,EIF3CL,MRPL18,EIF3E,EPRS,	8.39E-4
GO:0051726	regulation of cell cycle	JUN,XPO1,EGFR,SMARCA4,CDKN2A,JUNB,NEUROG1,CREB3,PDE3A,BCL6,CCND1,CDK5RAP3,BCL2,CDK2,MSH2,APC,CDK4,PKIA,XPC,EDN1,CASP3,E2F2,PEBP1,CDK5,UBA3,ASNS,RAD1,SMAD3,ETS1,	8.39E-4
GO:0045646	regulation of erythrocyte differentiation	MAFB,FOXO3,HIF1A,ETS1,SPI1,INPP5D,	9.00E-4
GO:0040012	regulation of locomotion	BCL2,CLIC4,EGFR,HIF1A,FLT1,APC,GNA13,CDH13,EDN1,ICAM1,CDK5,FGF2,CREB3,SMAD3,ADAM10,IL6,PIK3R1,RAC1,THBS1,IL8,	9.17E-4
GO:0014070	response to organic cyclic substance	CCND1,JUN,LONP2,NOS3,BCL2,STAT3,MSH2,FADS1,PPP5C,PPP2R2A,JUNB,CTNNB1,PEBP1,CDK5,FOS,	9.46E-4
GO:0030155	regulation of cell adhesion	BCL2,CDKN2A,APC,CDH13,CD36,ICAM1,TGM2,CYR61,SMAD3,HSD17B12,PODXL,ADAM10,PIK3R1,BCL6,THBS1,IL8,	1.12E-2
GO:0007264	small GTPase mediated signal transduction	RAB6A,RAB23,RAB34,PDK1,GNA13,KRAS,RTKN,RAB14,RAB30,RREB1,ARL5B,FGF2,RHOA,ARL5A,RAPGEF2,RAB2A,RHEB,RAP1B,ARFIP2,ARL8B,CDH13,DHCR24,VAV2,SDCBP,RAB27B,RAB5C,RAC1,RAB6C,	1.13E-2
GO:0030036	actin cytoskeleton organization	FMNL3,BCL2,ARFIP2,DIAPH3,FLNA,KRAS,FLNB,PAK2,CDC42BPB,LPIN1,CDK5,DBN1,RHOA,FMNL2,SDCBP,ANTXR1,EPB41L2,RICTOR,PRKCI,PACSIN2,BCL6,RAC1,	1.13E-2
GO:0031328	positive regulation of cellular biosynthetic process	JUN,STAT3,SUPT5H,SMARCA4,CARD11,FOXK1,ICAM1,JUNB,CEBPB,SERTAD2,KDM3A,FGF2,ESRRA,RSF1,TCF4,ZIC3,AGRN,HIF1A,SPI1,CREB1,EDN1,SOX6,MYO6,SMAD3,ETS1,SMAD4,NFKB1,SMAD1,SMAD2,NUP62,RUNX2,CBFB,EGFR,CTNNB1,NFYC,SMAD5,TTF1,EIF2B5,MAFB,FOXO3,CDK2,HDAC4,CDK4,TRIM24,MITF,TCEA1,FOS,IL6,THBS1,	1.14E-2
GO:0051402	neuron apoptosis	CDK5,BCL2,APAF1,PSEN1,AIFM1,CASP3,	1.17E-2
GO:0032880	regulation of protein localization	GAPVD1,BCL2,FLNA,GSK3B,APC,PKIA,RAB14,CDK5,ARFIP1,RHOA,SMAD3,SMAD4,PRKCI,PIK3R1,IL6,CDH2,	1.20E-2
GO:0045893	positive regulation of transcription, DNA-dependent	JUN,RUNX2,CBFB,STAT3,SUPT5H,SMARCA4,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,NFYC,FGF2,SMAD5,TTF1,ESRRA,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,HDAC4,SPI1,CREB1,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	1.30E-2
GO:0045941	positive regulation of transcription	NUP62,JUN,RUNX2,STAT3,CBFB,SUPT5H,SMARCA4,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,KDM3A,NFYC,FGF2,SMAD5,TTF1,ESRRA,RSF1,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,CDK2,HDAC4,SPI1,CREB1,TRIM24,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	1.32E-2
GO:0022402	cell cycle process	TRIP13,NOTCH2,NCAPG,EGFR,GSK3B,CDKN2A,NOLC1,PPP5C,AURKA,CTNNB1,CEP55,PLK1,PSME3,MSH6,PHGDH,CKAP5,STAG2,IL8,CCND1,PCNT,BCL2,MLH1,MSH2,CDK2,SSSCA1,HBP1,APC,WEE1,KIF22,CDK4,NCAPD2,PBRM1,EIF4G2,DHCR24,AURKB,TP53INP1,PPM1G,RAD1,SMAD3,BCAT1,THBS1,DNAJC2,	1.35E-2
GO:0007242	intracellular signaling cascade	STAT3,ASB6,PDK1,RAB34,CCL2,GNB4,CD36,KDM3A,FGF2,RHOA,MSH6,PRKCI,ARL5A,RAPGEF2,INPP5D,IL8,SRPK2,RHEB,ARFIP2,MLH1,NR3C1,MAP3K10,FLT1,XPC,CD81,EDN1,DHCR24,RPS6KB2,VAV2,MYO6,RAB27B,RAB5C,RAC1,SMAD1,SMAD2,RAB6C,NUP62,RAB6A,RAB23,EGFR,GSK3B,FLNA,SELE,KRAS,PSEN1,GNA13,RTKN,SOCS1,CDC42BPB,WNT5A,RAB14,CTNNB1,AURKA,TNFRSF10A,TXNDC12,RREB1,RAB30,ARL5B,TICAM2,CARHSP1,BUD31,CCND1,ALDH1A2,RAB2A,RAP1B,MSH2,GNAS,ARL8B,CDH13,LAT2,CDK5,TGM2,PRKAR1A,PRKAR2A,AGTR1,SDCBP,RAD1,PIK3R1,AIFM1,THBS1,	1.39E-2
GO:0016180	snRNA processing	INTS4,INTS7,INTS6,INTS8,INTS10,	1.43E-2
GO:0016073	snRNA metabolic process	INTS4,INTS7,INTS6,INTS8,INTS10,	1.43E-2
GO:0050921	positive regulation of chemotaxis	CREB3,SMAD3,ADAM10,IL6,CDH13,THBS1,IL8,	1.48E-2
GO:0044093	positive regulation of molecular function	SMARCA4,EGFR,APAF1,SELE,KRAS,GNA13,CDKN2A,PSEN1,CARD11,CAT,ICAM1,TNFRSF10A,MYD88,FGF2,PSME3,PLK1,MSH6,SKI,BUD31,CCND1,NOS3,BCL2,IRAK3,STIM1,MAP3K10,MSH2,FLT1,HIF1A,HDAC4,GNAS,CD81,EDN1,PMAIP1,CDK5,TGM2,VAV2,PRKAR1A,PRKAR2A,AGTR1,SMAD3,RAC1,IL6,THBS1,	1.50E-2
GO:0051385	response to mineralocorticoid stimulus	CCND1,BCL2,KRAS,FOS,PEBP1,JUNB,	1.51E-2
GO:0051254	positive regulation of RNA metabolic process	JUN,RUNX2,CBFB,STAT3,SUPT5H,SMARCA4,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,NFYC,FGF2,SMAD5,TTF1,ESRRA,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,HDAC4,SPI1,CREB1,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	1.54E-2
GO:0009891	positive regulation of biosynthetic process	JUN,STAT3,SUPT5H,SMARCA4,CARD11,FOXK1,ICAM1,JUNB,CEBPB,SERTAD2,KDM3A,FGF2,ESRRA,RSF1,TCF4,ZIC3,AGRN,HIF1A,SPI1,CREB1,EDN1,SOX6,MYO6,SMAD3,ETS1,SMAD4,NFKB1,SMAD1,SMAD2,NUP62,RUNX2,CBFB,EGFR,CTNNB1,NFYC,SMAD5,TTF1,EIF2B5,MAFB,FOXO3,CDK2,HDAC4,CDK4,TRIM24,MITF,TCEA1,FOS,IL6,THBS1,	1.54E-2
GO:0042493	response to drug	JUN,CCND1,NOS3,RAB6A,BCL2,STAT3,MSH2,HDAC4,APC,CCL2,GNAS,CREB1,SOCS1,PEBP1,JUNB,YWHAZ,PDE3A,FOS,UQCRFS1,SMAD1,RAB6C,NES,	1.54E-2
GO:0022415	viral reproductive process	THOC7,DEK,SUPT5H,PSIP1,CREB3,SMAD3,CCL2,RRAGA,CD81,ICAM1,	1.56E-2
GO:0060395	SMAD protein signal transduction	JUN,SMAD4,SKI,FOS,	1.57E-2
GO:0051173	positive regulation of nitrogen compound metabolic process	NUP62,JUN,RUNX2,STAT3,CBFB,SUPT5H,SMARCA4,EGFR,JUNB,ICAM1,FOXK1,CTNNB1,CEBPB,SERTAD2,KDM3A,NFYC,FGF2,SMAD5,TTF1,ESRRA,RSF1,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,CDK2,HDAC4,SPI1,CREB1,EDN1,PEBP1,TRIM24,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	1.72E-2
GO:0001569	patterning of blood vessels	CYR61,FLT1,GNA13,PLXND1,EDN1,CTNNB1,	1.91E-2
GO:0035295	tube development	ALDH1A2,NOS3,ZIC3,BCL2,APAF1,B4GALT1,FLT1,PSEN1,GNA13,FGF7,EDN1,WNT5A,CTNNB1,CUX1,CYR61,FGF2,SMAD4,TMBIM6,MAN1A2,PLXND1,SMAD2,	1.92E-2
GO:0009725	response to hormone stimulus	NUP62,STAT3,GATM,KRAS,GNB4,CCL2,GCLC,SOCS1,FADS1,LPIN1,JUNB,CTNNB1,AURKA,KDM3A,EIF2B2,PRKCI,EIF2B5,CCND1,ALDH1A2,NOS3,BCL2,GNAS,PEBP1,PRKAR1A,PRKAR2A,FOS,IL6,PIK3R1,UQCRFS1,THBS1,	1.93E-2
GO:0017038	protein import	TIMM13,JUN,RBM22,TOMM20,IPO8,CSE1L,XPO1,TOMM34,GRPEL1,TNPO1,TIMM8A,FGF2,YWHAZ,DNAJC19,BCL6,	2.04E-2
GO:0033365	protein localization in organelle	TIMM13,JUN,RBM22,TOMM20,IPO8,CSE1L,XPO1,MORC3,TOMM34,GRPEL1,TNPO1,TIMM8A,FGF2,YWHAZ,DNAJC19,BCL6,	2.12E-2
GO:0050920	regulation of chemotaxis	CREB3,SMAD3,ADAM10,IL6,CDH13,THBS1,IL8,	2.13E-2
GO:0048661	positive regulation of smooth muscle cell proliferation	JUN,TGM2,EGFR,FLT1,IL6,CDH13,EDN1,	2.13E-2
GO:0001775	cell activation	CBFB,EGFR,PSEN1,GNA13,CARD11,CTNNB1,ICAM1,TPD52,MSH6,ADAM10,BCL6,IL8,BCL2,MLH1,STXBP2,MSH2,APC,HDAC4,EDN1,LAT2,VCAM1,YWHAZ,SMAD3,PIK3R1,IL6,	2.22E-2
GO:0030278	regulation of ossification	RUNX2,BCL2,SMAD3,SMAD5,APC,ESRRA,SKI,GNAS,IL6,SMAD1,CTNNB1,	2.29E-2
GO:0010557	positive regulation of macromolecule biosynthetic process	NUP62,JUN,RUNX2,STAT3,CBFB,SUPT5H,SMARCA4,CARD11,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,KDM3A,NFYC,FGF2,SMAD5,TTF1,ESRRA,RSF1,EIF2B5,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,CDK2,HDAC4,SPI1,CDK4,CREB1,TRIM24,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,THBS1,SMAD1,SMAD2,	2.34E-2
GO:0045670	regulation of osteoclast differentiation	MITF,APC,ESRRA,GNAS,CTNNB1,INPP5D,	2.38E-2
GO:0045321	leukocyte activation	BCL2,CBFB,MLH1,STXBP2,MSH2,HDAC4,PSEN1,APC,CARD11,EDN1,CTNNB1,LAT2,ICAM1,VCAM1,SMAD3,TPD52,YWHAZ,MSH6,ADAM10,PIK3R1,BCL6,IL8,	2.64E-2
GO:0045910	negative regulation of DNA recombination	MLH1,MSH2,MSH6,BCL6,	2.67E-2
GO:0051101	regulation of DNA binding	IRAK3,SMARCA4,FLNA,HDAC4,KRAS,CDKN2A,CARD11,CAT,ICAM1,MYD88,KDM1A,SKI,RSF1,IL6,	2.77E-2
GO:0006921	cell structure disassembly during apoptosis	TXNDC12,APAF1,CDKN2A,AIFM1,CASP3,PMAIP1,	2.94E-2
GO:0007548	sex differentiation	CCND1,CDH6,CSDA,NOS3,BCL2,FOXO3,B4GALT1,MSH2,FGF7,DHCR24,ERMP1,RQCD1,SMAD5,EIF2B2,DNAJC19,EIF2B5,	2.94E-2
GO:0045786	negative regulation of cell cycle	CDK5,BCL2,EGFR,SMARCA4,CREB3,SMAD3,ETS1,CDKN2A,APC,BCL6,CASP3,	3.04E-2
GO:0034660	ncRNA metabolic process	CARS2,NSA2,YARS,RARS,PUS7,INTS6,CDKN2A,LARS,AIMP1,ERI1,NOLC1,CARS,GAR1,INTS10,INTS4,TRMT1,INTS7,NARS,EXOSC2,INTS8,EPRS,	3.22E-2
GO:0051276	chromosome organization	NCAPG,SUPT5H,SUZ12,SMARCA4,H2AFY,CHRAC1,DNMT1,RNF2,KDM3A,NASP,MSH6,TTF1,RSF1,ARID2,CHAF1A,CDC73,NR3C1,MSH2,HDAC4,TAF5L,APC,WHSC1L1,NCAPD2,PBRM1,BRPF3,CHD9,RCOR1,TNKS1BP1,PHF17,SOX6,RING1,SMARCD2,KDM1A,CHAF1B,AIFM1,SMARCE1,	3.24E-2
GO:0016044	membrane organization	TIMM13,SH3BP4,SNAP29,EGFR,RAB34,KRAS,VAMP3,ATP6V1H,SEC24B,CD36,PICALM,IGF2R,PRKCI,PACSIN2,GAPVD1,BCL2,PACSIN3,AGRN,SCAMP1,TIMM8A,CDK5,DHCR24,CLINT1,AP1G1,EHD1,CLTA,CLTC,MYO6,RAC1,THBS1,	3.33E-2
GO:0070585	protein localization in mitochondrion	TIMM8A,TIMM13,TOMM20,DNAJC19,YWHAZ,TOMM34,GRPEL1,	3.48E-2
GO:0048520	positive regulation of behavior	CREB3,SMAD3,ADAM10,IL6,CDH13,THBS1,IL8,	3.48E-2
GO:0006626	protein targeting to mitochondrion	TIMM8A,TIMM13,TOMM20,DNAJC19,YWHAZ,TOMM34,GRPEL1,	3.48E-2
GO:0050900	leukocyte migration	VCAM1,B4GALT1,SELE,AIMP1,PODXL,CCL2,IL6,ICAM1,IL8,	3.49E-2
GO:0007568	aging	NUP62,JUN,BCL2,NOS3,MSH2,MORC3,KRAS,CDKN2A,FADS1,PEBP1,MSH6,FOS,INPP5D,	3.50E-2
GO:0045165	cell fate commitment	RUNX2,BCL2,NOTCH2,SMARCA4,PSEN1,CASP3,CTNNB1,MITF,NEUROG1,SOX6,FGF2,SMAD5,SMAD4,SMAD1,SMAD2,	3.53E-2
GO:0043388	positive regulation of DNA binding	MYD88,SMARCA4,IRAK3,HDAC4,KRAS,SKI,CARD11,CAT,IL6,ICAM1,	3.67E-2
GO:0043123	positive regulation of I-kappaB kinase/NF-kappaB cascade	NUP62,MYD88,MAVS,TGM2,RHOA,TAB2,TICAM2,FLNA,IKBKE,CARD11,PPP5C,GOLT1B,	3.77E-2
GO:0006418	tRNA aminoacylation for protein translation	CARS2,YARS,RARS,NARS,LARS,AIMP1,CARS,EPRS,	3.90E-2
GO:0043038	amino acid activation	CARS2,YARS,RARS,NARS,LARS,AIMP1,CARS,EPRS,	3.90E-2
GO:0048660	regulation of smooth muscle cell proliferation	JUN,NOS3,TGM2,EGFR,FLT1,IL6,CDH13,EDN1,	3.90E-2
GO:0043039	tRNA aminoacylation	CARS2,YARS,RARS,NARS,LARS,AIMP1,CARS,EPRS,	3.90E-2
GO:0016032	viral reproduction	THOC7,DEK,SUPT5H,PSIP1,CREB3,SMAD3,CCL2,RRAGA,CD81,ICAM1,	4.04E-2
GO:0032268	regulation of cellular protein metabolic process	JUN,RAB23,EGFR,CDKN2A,PSEN1,GCLC,SOCS1,DNMT1,EIF4E2,FGF2,PLK1,PSME3,EIF2B2,RICTOR,EIF2B5,CCND1,BCL2,PACSIN3,MAP3K10,HDAC4,CDK4,EIF2C4,EDN1,CD81,PEBP1,EIF4G2,CDK5,PRKAR1A,AGTR1,PRKAR2A,SMAD4,NFKB1,IL6,EIF3E,THBS1,	4.05E-2
GO:0007183	SMAD protein complex assembly	SMAD3,SMAD4,SMAD1,SMAD2,	4.13E-2
GO:0045669	positive regulation of osteoblast differentiation	RUNX2,SMAD5,GNAS,IL6,SMAD1,CTNNB1,	4.31E-2
GO:0009411	response to UV	CCND1,BCL2,EGFR,MSH2,DDB2,MSH6,CAT,XPC,CASP3,	4.34E-2
GO:0035107	appendage morphogenesis	ASPH,ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	4.41E-2
GO:0035108	limb morphogenesis	ASPH,ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	4.41E-2
GO:0031532	actin cytoskeleton reorganization	FLNA,ANTXR1,RICTOR,CDC42BPB,LPIN1,	4.57E-2
GO:0030032	lamellipodium assembly	VAV2,CYFIP1,ARFIP2,CDH13,RAC1,	4.57E-2
GO:0051412	response to corticosterone stimulus	CCND1,BCL2,FOS,PEBP1,JUNB,	4.57E-2
GO:0032101	regulation of response to external stimulus	NOS3,ANXA2,SELE,CDH13,EDN1,TGM2,TRIM24,AGTR1,CREB3,SMAD3,NT5E,ADAM10,BCL6,IL6,THBS1,IL8,	4.80E-2
GO:0006916	anti-apoptosis	NOS3,BCL2,NOTCH2,AMIGO2,GSK3B,EEF1A2,PSEN1,CCL2,GCLC,CDH13,CEBPB,DHCR24,MYD88,TGM2,YWHAZ,PRKCI,NFKB1,THBS1,CIAPIN1,	4.81E-2
GO:0007179	transforming growth factor beta receptor signaling pathway	JUN,SMAD3,SMAD5,SMAD4,CCL2,CREB1,FOS,SMAD1,SMAD2,	4.82E-2
GO:0051091	positive regulation of transcription factor activity	MYD88,SMARCA4,IRAK3,HDAC4,KRAS,CARD11,CAT,IL6,ICAM1,	4.82E-2
GO:0009791	post-embryonic development	ALDH5A1,BCL2,SOX6,MUT,MORC3,PSEN1,SGPL1,GNAS,MYO1E,SMAD2,	4.87E-2
GO:0035113	embryonic appendage morphogenesis	ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	5.11E-2
GO:0030326	embryonic limb morphogenesis	ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	5.11E-2
GO:0006325	chromatin organization	SUPT5H,SUZ12,SMARCA4,H2AFY,CHRAC1,DNMT1,RNF2,KDM3A,NASP,TTF1,RSF1,ARID2,CHAF1A,NR3C1,CDC73,HDAC4,TAF5L,WHSC1L1,PBRM1,BRPF3,CHD9,RCOR1,PHF17,SOX6,RING1,SMARCD2,KDM1A,CHAF1B,SMARCE1,	5.66E-2
GO:0043623	cellular protein complex assembly	IPO8,CSE1L,XPO1,AGRN,MLH1,FLNA,PSMG1,TNPO1,PICALM,CDK5,TBCA,SMAD3,SMAD4,RAC1,SMAD1,SMAD2,	5.70E-2
GO:0035195	gene silencing by miRNA	MOV10,SMAD3,EIF2C4,SMAD1,SMAD2,	5.77E-2
GO:0002520	immune system development	BCL2,CBFB,NOTCH2,JARID2,MLH1,MSH2,HDAC4,PSEN1,APC,CARD11,CTNNB1,VCAM1,SOX6,TCEA1,TPD52,SMAD5,MSH6,CTNNBL1,SGPL1,PIK3R1,BCL6,MYO1E,CIAPIN1,	5.88E-2
GO:0016477	cell migration	NOS3,B4GALT1,SELE,HIF1A,FLT1,PSEN1,APC,AIMP1,CCL2,CDH13,ICAM1,CDK5,VCAM1,VAV2,FGF2,SDCBP,PODXL,SGPL1,IL6,RAC1,THBS1,CDH2,IL8,	5.88E-2
GO:0060173	limb development	ASPH,ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	5.96E-2
GO:0051090	regulation of transcription factor activity	MYD88,SMARCA4,IRAK3,FLNA,HDAC4,CDKN2A,KDM1A,KRAS,CARD11,CAT,IL6,ICAM1,	5.96E-2
GO:0048736	appendage development	ASPH,ALDH1A2,KIAA1715,NOTCH2,RAB23,SMARCA4,PSEN1,SKI,GNAS,DYNC2H1,WNT5A,CTNNB1,	5.96E-2
GO:0007050	cell cycle arrest	EIF4G2,DHCR24,TP53INP1,PPM1G,NOTCH2,SMAD3,MSH2,CDKN2A,HBP1,APC,THBS1,IL8,	5.96E-2
GO:0007178	transmembrane receptor protein serine/threonine kinase signaling pathway	JUN,FSTL1,UBE2D3,SMAD3,SMAD5,SMAD4,CCL2,SKI,CREB1,FOS,SMAD1,SMAD2,	5.96E-2
GO:0002040	sprouting angiogenesis	RBPJ,FGF2,CDH13,THBS1,	5.99E-2
GO:0031529	ruffle organization	CYFIP1,ARFIP2,LPIN1,RAC1,	5.99E-2
GO:0042113	B cell activation	VCAM1,BCL2,MLH1,TPD52,MSH2,HDAC4,MSH6,BCL6,PIK3R1,LAT2,	6.36E-2
GO:0010942	positive regulation of cell death	JUN,NOTCH2,B4GALT1,PSEN1,CDKN2A,RRAGA,TNFRSF10A,TXNDC12,OBSCN,CEBPB,MSH6,CTNNBL1,BCL6,INPP5D,EEF1E1,BCL2,MLH1,FOXO3,NR3C1,MAP3K10,APC,CASP3,PMAIP1,CDK5,TP53INP1,VAV2,TGM2,SMAD3,ETS1,RAC1,TRIO,AIFM1,	6.46E-2
GO:0017015	regulation of transforming growth factor beta receptor signaling pathway	HTRA1,SNX6,SMAD3,SMAD4,SKI,THBS1,SMAD2,	7.00E-2
GO:0055114	oxidation reduction	MECR,MTHFD2,RETSAT,CYP51A1,RRM2,AKR7A2,TXNRD1,OGFOD1,CAT,FADS1,MARC1,TXNDC12,SCD,FDFT1,RDH13,OXNAD1,KDM3A,PCYOX1,UGDH,AKR1C3,HSDL1,PHGDH,CBR4,F5,ALDH1A2,NOS3,ADH5,ALDH9A1,ALDH3A2,LEPREL2,DEGS1,MARC2,ASPH,ALDH5A1,DHCR24,HSD17B7,HSD17B12,KDM1A,UQCRFS1,AIFM1,CYP2U1,L2HGDH,FAR1,	7.09E-2
GO:0032103	positive regulation of response to external stimulus	TGM2,AGTR1,CREB3,SMAD3,ADAM10,IL6,CDH13,THBS1,IL8,	7.15E-2
GO:0030888	regulation of B cell proliferation	IL13RA1,CDKN2A,CARD11,BCL6,CASP3,INPP5D,	7.15E-2
GO:0010811	positive regulation of cell-substrate adhesion	CYR61,SMAD3,HSD17B12,CDH13,THBS1,CD36,	7.15E-2
GO:0051099	positive regulation of binding	MYD88,SMARCA4,IRAK3,HDAC4,KRAS,SKI,CARD11,CAT,IL6,ICAM1,	7.53E-2
GO:0010627	regulation of protein kinase cascade	NUP62,MAVS,FLNA,MAP3K10,APC,CARD11,SOCS1,CAT,PPP5C,GOLT1B,EDN1,PEBP1,CTNNB1,MYD88,TGM2,RHOA,TICAM2,IKBKE,TAB2,RICTOR,IL6,	7.74E-2
GO:0045935	positive regulation of nucleobase, nucleoside, nucleotide and nucleic acid metabolic process	NUP62,JUN,RUNX2,STAT3,CBFB,SUPT5H,SMARCA4,JUNB,FOXK1,CTNNB1,CEBPB,SERTAD2,KDM3A,NFYC,FGF2,SMAD5,TTF1,ESRRA,RSF1,TCF4,ZIC3,AGRN,MAFB,FOXO3,HIF1A,CDK2,HDAC4,SPI1,CREB1,TRIM24,MITF,SOX6,TCEA1,SMAD3,MYO6,ETS1,SMAD4,NFKB1,FOS,IL6,SMAD1,SMAD2,	7.81E-2
GO:0048754	branching morphogenesis of a tube	CYR61,BCL2,FLT1,B4GALT1,GNA13,SMAD4,PLXND1,EDN1,CTNNB1,	7.84E-2
GO:0043122	regulation of I-kappaB kinase/NF-kappaB cascade	NUP62,MYD88,MAVS,TGM2,RHOA,TAB2,TICAM2,FLNA,IKBKE,CARD11,PPP5C,GOLT1B,	7.90E-2
GO:0007389	pattern specification process	ALDH1A2,ZIC3,NOTCH2,RAB23,MAFB,FLT1,PSEN1,APC,GNA13,DYNC2H1,EDN1,CTNNB1,ASPH,RNF2,CYR61,RBPJ,RING1,SMAD5,SMAD4,PLXND1,SMAD1,SMAD2,	8.11E-2
GO:0001953	negative regulation of cell-matrix adhesion	CDKN2A,BCL6,PIK3R1,THBS1,	8.28E-2
GO:0009416	response to light stimulus	CCND1,BCL2,COPS3,EGFR,MSH2,KRAS,CAT,XPC,CASP3,JUNB,CDK5,MSH6,DDB2,FOS,	8.43E-2
GO:0007005	mitochondrion organization	JUN,TIMM13,NOS3,TOMM20,BCL2,TOMM34,CDKN2A,GRPEL1,CASP3,PMAIP1,TIMM8A,YWHAZ,DNAJC19,SMAD3,	8.43E-2
GO:0022411	cellular component disassembly	TXNDC12,APAF1,CDKN2A,TTF1,AIFM1,SMARCE1,CASP3,PMAIP1,	8.61E-2
GO:0010001	glial cell differentiation	CDK5,FGF2,EGFR,SMARCA4,EIF2B2,PHGDH,EIF2B5,CTNNB1,	8.61E-2
GO:0006309	DNA fragmentation involved in apoptosis	TXNDC12,APAF1,CDKN2A,AIFM1,CASP3,	8.77E-2
GO:0051092	positive regulation of NF-kappaB transcription factor activity	MYD88,IRAK3,KRAS,CARD11,CAT,IL6,ICAM1,	8.95E-2
GO:0002761	regulation of myeloid leukocyte differentiation	JUN,MITF,APC,ESRRA,GNAS,CTNNB1,INPP5D,	8.95E-2
GO:0051248	negative regulation of protein metabolic process	JUN,RAB23,IRAK3,FLNA,PSEN1,CDKN2A,GCLC,SOCS1,EIF2C4,DNMT1,PEBP1,CDK5,PSME3,EIF2B5,NFKB1,EIF3E,THBS1,	9.23E-2
GO:0034621	cellular macromolecular complex subunit organization	IPO8,CSE1L,XPO1,FLNA,H2AFY,PAK2,TNPO1,GEMIN5,PICALM,TBCA,TTF1,NASP,RSF1,CHAF1A,SRPK2,AGRN,MLH1,EIF3A,PSMG1,CDK5,SMAD3,SMAD4,CHAF1B,RAC1,SMARCE1,SMAD1,SMAD2,	9.36E-2
GO:0043065	positive regulation of apoptosis	JUN,NOTCH2,B4GALT1,PSEN1,CDKN2A,TNFRSF10A,TXNDC12,OBSCN,CEBPB,CTNNBL1,MSH6,BCL6,INPP5D,EEF1E1,BCL2,MLH1,FOXO3,NR3C1,MAP3K10,APC,CASP3,PMAIP1,CDK5,TP53INP1,VAV2,TGM2,SMAD3,ETS1,RAC1,TRIO,AIFM1,	9.74E-2
GO:0048870	cell motility	NOS3,B4GALT1,SELE,HIF1A,FLT1,PSEN1,APC,AIMP1,CCL2,CDH13,ICAM1,CDK5,VCAM1,VAV2,FGF2,SDCBP,ETS1,PODXL,SGPL1,IL6,RAC1,THBS1,CDH2,IL8,	1.00E-1
GO:0051674	localization of cell	NOS3,B4GALT1,SELE,HIF1A,FLT1,PSEN1,APC,AIMP1,CCL2,CDH13,ICAM1,CDK5,VCAM1,VAV2,FGF2,SDCBP,ETS1,PODXL,SGPL1,IL6,RAC1,THBS1,CDH2,IL8,	1.00E-1
GO:0048598	embryonic morphogenesis	ALDH1A2,NOTCH2,RAB23,MAFB,SMARCA4,APAF1,PSEN1,TXNRD1,GNAS,DYNC2H1,EDN1,WNT5A,CTNNB1,KIAA1715,RNF2,UGDH,PRKAR1A,NEUROG1,SMAD3,MYO6,SMAD4,SKI,SMAD1,SMAD2,	1.00E-1

KEGG pathways and Gene Ontology terms enriched for the interacted genes of ncRNA from RAID and miRTarBase.

disease name	related genes	p-value