Basic parameters of backfill material. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Analysis data. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Basic mechanical parameters of rocks. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Range analysis data. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Peak stress of orthogonal experimental group. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Orthogonal test results diagram. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

FLAC3D code. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Establishment of Numerical Model. by Lei Zhu (16642)

“…<div><p>Gangue backfill mining technology represents a significant advancement in green mining, mitigating mine pressure and rock mass movements, thereby ensuring underground production safety. …”

Effects of 1466 on capsid and pgRNA encapsidation compared to known CAM-A and CAM-E inhibitors. by Daniel P. Bradley (10306893)

Screening HBV RNaseH inhibitors in HepDES19 cell for effects on capsids and core protein. by Daniel P. Bradley (10306893)

1466 inhibits capsid accumulation independent of HBV replication. by Daniel P. Bradley (10306893)

Differences among the classes of CAMs. by Daniel P. Bradley (10306893)

“…Some <i>N</i>-hydroxypyridinedione (HPD) HBV RNaseH inhibitors significantly reduced accumulation of capsids in HBV-replicating cells. …”

Changes in the genotypes of <i>NLRP1</i>, <i>NLRP3</i>, and <i>NLRP4</i>. by Hao Deng (409186)

Subjects:

Change in the genotypes of <i>ATM</i>, <i>ERCC1</i>, and <i>XRCC1</i>. by Hao Deng (409186)

Subjects:

Effect of the interaction of drinking, smoking and <i>ERCC1</i> rs3212986 on workers exposed to coal dust. by Hao Deng (409186)

Subjects:

Regression model analysis of the influence of <i>ERCC1</i> rs3212986 on CWP. by Hao Deng (409186)

Subjects:

Pathways analysis of ERCC1 based on CWP metabolome and proteome. by Hao Deng (409186)

Subjects:

Analysis of basic clinical data of the study population (± s). by Hao Deng (409186)

Subjects:

ROC curve analysis for ERCC1 with CWP progression. by Hao Deng (409186)

Subjects:

Change in the ERCC1 secretion level in plasma(pg/ml). by Hao Deng (409186)

Subjects: