Search alternatives:
values decrease » values increased (Expand Search), largest decrease (Expand Search)
large decrease » marked decrease (Expand Search), large increases (Expand Search), large degree (Expand Search)
100 cycles » 1000 cycles (Expand Search), 000 cycles (Expand Search)
w cycles » _ cycles (Expand Search), 6 cycles (Expand Search), 8 cycles (Expand Search)
i large » _ large (Expand Search), a large (Expand Search), via large (Expand Search)
Showing 101 - 120 results of 15,033 for search '(((( auc values decrease ) OR ( ((100 cycles) OR (w cycles)) increases ))) OR ( i large decrease ))', query time: 1.56s Refine Results
  1. 101
    Δ ROC AUC values obtained with NMM by the addition of various biomarker combinations to the clinical data (participant demographics, clinical assessments, and cognitive assessments).

    Δ ROC AUC values obtained with NMM by the addition of various biomarker combinations to the clinical data (participant demographics, clinical assessments, and cognitive assessments... by Batuhan K. Karaman (14129223)

    Published 2022
    Save to List
    Saved in:
  2. 102
    ROC-AUC for the apoB/apoA-1 ratio and apoB for different outcomes for men and women aged 25–69 years.

    ROC-AUC for the apoB/apoA-1 ratio and apoB for different outcomes for men and women aged 25–69 years. by Göran Walldius (286838)

    Published 2021
    Save to List
    Saved in:
  3. 103
    <i>C</i>. <i>elegans</i> nictation ratio decreases over the course of our 30 min videos.

    <i>C</i>. <i>elegans</i> nictation ratio decreases over the course of our 30 min videos. by Patrick D. McClanahan (2385076)

    Published 2023
    Save to List
    Saved in:
  4. 104
    Structural en-face optical coherence tomography angiography images of an intermediate age-related macular degeneration eye, showing large choroidal vessels (LCV) within the choriocapillaris layer at different slab depths.

    Structural en-face optical coherence tomography angiography images of an intermediate age-related macular degeneration eye, showing large choroidal vessels (LCV) within the chorioc... by Valentin Hacker (9956024)

    Published 2021
    Save to List
    Saved in:
  5. 105
    KOG functional classification of DEGs after W+OS treatment 1h.

    KOG functional classification of DEGs after W+OS treatment 1h. by Bo Fan (383210)

    Published 2024
    Save to List
    Saved in:
  6. 106
    The compensatory roles of mass-dependent cell cycle regulation and mass-dependent growth rate regulation in maintaining cell mass homeostasis.

    The compensatory roles of mass-dependent cell cycle regulation and mass-dependent growth rate regulation in maintaining cell mass homeostasis. by Xili Liu (313812)

    Published 2024
    Save to List
    Saved in:
  7. 107
    <i>F</i>. <i>oxysporum</i> f. sp. <i>albedinis</i> genome code for a large repertoire of secreted proteins.

    <i>F</i>. <i>oxysporum</i> f. sp. <i>albedinis</i> genome code for a large repertoire of secreted proteins. by Maryam Rafiqi (12647200)

    Published 2022
    Save to List
    Saved in:
  8. 108
    Table_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  9. 109
    Image_4_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_4_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  10. 110
    Table_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  11. 111
    Image_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  12. 112
    Image_4_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_4_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  13. 113
    Image_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  14. 114
    Table_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_3_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  15. 115
    Image_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  16. 116
    Table_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  17. 117
    Image_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_1_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  18. 118
    Table_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  19. 119
    Image_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF

    Image_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.TIF by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:
  20. 120
    Table_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx

    Table_2_Physiology of Highly Radioresistant Escherichia coli After Experimental Evolution for 100 Cycles of Selection.xlsx by Steven T. Bruckbauer (6256799)

    Published 2020
    “…Utilizing experimental evolution and continuing previous work, we have generated the most IR-resistant Escherichia coli populations developed to date. After 100 cycles of selection, the dose required to kill 99% the four replicate populations (IR9-100, IR10-100, IR11-100, and IR12-100) has increased from 750 Gy to approximately 3,000 Gy. …”
    Save to List
    Saved in:

Search Tools: