Showing 5,701 - 5,720 results of 18,267 for search 'significant ((((a decrease) OR (((teer decrease) OR (nn decrease))))) OR (mean decrease))', query time: 0.77s Refine Results
  1. 5701
  2. 5702
  3. 5703
  4. 5704

    DataSheet_1_RETRACTED: CCDC88A Post-Transcriptionally Regulates VEGF via miR-101 and Subsequently Regulates Hepatocellular Carcinoma.zip by Qiongying Hu (11060505)

    Published 2024
    “…Employment of GEPIA revealed the positive correlation between CCDC88A and VEGF in HCC, but not in liver tissue. Silencing of CCDC88A in Huh-7 and SK-HEP-1 cells significantly decreased proliferation, cell cycle phases, migration, invasion, colony formation, and tumor formation. …”
  5. 5705

    DataSheet_2_RETRACTED: CCDC88A Post-Transcriptionally Regulates VEGF via miR-101 and Subsequently Regulates Hepatocellular Carcinoma.zip by Qiongying Hu (11060505)

    Published 2024
    “…Employment of GEPIA revealed the positive correlation between CCDC88A and VEGF in HCC, but not in liver tissue. Silencing of CCDC88A in Huh-7 and SK-HEP-1 cells significantly decreased proliferation, cell cycle phases, migration, invasion, colony formation, and tumor formation. …”
  6. 5706

    DataSheet_3_RETRACTED: CCDC88A Post-Transcriptionally Regulates VEGF via miR-101 and Subsequently Regulates Hepatocellular Carcinoma.zip by Qiongying Hu (11060505)

    Published 2024
    “…Employment of GEPIA revealed the positive correlation between CCDC88A and VEGF in HCC, but not in liver tissue. Silencing of CCDC88A in Huh-7 and SK-HEP-1 cells significantly decreased proliferation, cell cycle phases, migration, invasion, colony formation, and tumor formation. …”
  7. 5707

    DataSheet_4_RETRACTED: CCDC88A Post-Transcriptionally Regulates VEGF via miR-101 and Subsequently Regulates Hepatocellular Carcinoma.zip by Qiongying Hu (11060505)

    Published 2024
    “…Employment of GEPIA revealed the positive correlation between CCDC88A and VEGF in HCC, but not in liver tissue. Silencing of CCDC88A in Huh-7 and SK-HEP-1 cells significantly decreased proliferation, cell cycle phases, migration, invasion, colony formation, and tumor formation. …”
  8. 5708
  9. 5709

    Effects of PM and miRNA mimics on the anchorage-independent growth of A549 cells. by Moe Thi Thi Han (17820376)

    Published 2025
    “…<b>(B)</b> Quantification of colony formation, showing a peak at 2.5 µg/mL, followed by a decrease at 5.0–7.5 µg/mL. …”
  10. 5710

    The error between test and simulation results. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  11. 5711

    Relevant parameters of cutting head and pick. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  12. 5712

    The stress variation of Node 33. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  13. 5713

    Deformation trend of the gyration platform. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  14. 5714

    Force transformation of cutting head. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  15. 5715

    3D model of cutting head. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  16. 5716

    Rigid-flexible coupling mode. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  17. 5717

    The flow of cutting performance calculation. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  18. 5718

    Results of different optimization schemes. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  19. 5719

    Modal shape of the gyration platform. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”
  20. 5720

    Deformation variation of Node 33. by Shan Gao (46743)

    Published 2024
    “…The correlation established indicates that elevated swing speeds lead to heightened dynamic stress on the gyration platform, consequently causing a noteworthy decrease in its fatigue life. To ensure the reliability of the gyration platform, it is crucial to judiciously select the swing speed based on the hardness of the rock, especially when cutting in different swing directions. …”