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ImmuneCited

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333 أشكال من أبحاث محكّمة

الكل Vitamin D Zinc Iron Andrographis Astragalus Elderberry Pelargonium sidoides Cordyceps Arginine N-Acetylcysteine Quercetin Curcumin Glutathione Resveratrol Astaxanthin Omega-3 Fatty Acids (EPA/DHA) Conjugated Linoleic Acid
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Figure 33
Figure 33 Chart

Measured parameters from a study evaluating early intervention with Kan Jang® to treat upper, contributing to the overall assessment of BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 34
Figure 34 Chart

Graphical representation of outcomes in a study of early intervention with Kan Jang® to treat upper, highlighting trends observed across experimental conditions.

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 35
Figure 35 Chart

Quantitative data from a study on early intervention with Kan Jang® to treat upper, presenting measured outcomes relevant to the investigation of BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 36
Figure 36 Chart

Experimental results examining early intervention with Kan Jang® to treat upper, with data points illustrating key findings related to BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 37
Figure 37 Chart

Statistical analysis from research investigating early intervention with Kan Jang® to treat upper, comparing treatment groups and control conditions.

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 38
Figure 38 Chart

Measured parameters from a study evaluating early intervention with Kan Jang® to treat upper, contributing to the overall assessment of BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 39
Figure 39 Chart

Graphical representation of outcomes in a study of early intervention with Kan Jang® to treat upper, highlighting trends observed across experimental conditions.

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 40
Figure 40 Chart

Quantitative data from a study on early intervention with Kan Jang® to treat upper, presenting measured outcomes relevant to the investigation of BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 41
Figure 41 Chart

Experimental results examining early intervention with Kan Jang® to treat upper, with data points illustrating key findings related to BACKGROUND AND AIM: Andrographis paniculata and Eleutherococcus senticosus preparations and their fixed combination, .

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 42
Figure 42 Chart

Statistical analysis from research investigating early intervention with Kan Jang® to treat upper, comparing treatment groups and control conditions.

Early intervention with Kan Jang® to treat upper-respiratory tract infections: A randomized, …

Figure 1. Metabolic pathway of genes considered in the study. FA = fatty acids; TAG = triacylglycerol; CE = Esterified Cholesterol; DAG = Diacylglycerol; ROS = Reactive Oxygen Species.
Figure 6

Figure 1. Metabolic pathway of genes considered in the study. FA = fatty acids; TAG = triacylglycerol; CE = Esterified Cholesterol; DAG = Diacylglycerol; ROS = Reactive Oxygen Species.

Supplementation of Enriched Polyunsaturated Fatty Acids and CLA Cheese on High Fat …

Figure 6
Figure 6 Chart

Experimental results examining astaxanthin Inhibits Oxidative Stress, with data points illustrating key findings related to oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 7
Figure 7 Chart

Statistical analysis from research investigating astaxanthin Inhibits Oxidative Stress, comparing treatment groups and control conditions.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 1. Glucose/glucose oxidase (G/GO) treatment induced cell death, DNA fragmentation, and apoptosis in AGS cells. The cells were stimulated with G/GO for the indicated periods. (A) Viable cell counts were determined using the trypan blue exclusion tes
Figure 8 Chart

Glucose/glucose oxidase (G/GO) treatment induced cell death, DNA fragmentation, and apoptosis in AGS cells. The cells were stimulated with G/GO for the indicated periods.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

cells in G/GO-treated cells (Figure 2C,D). These data show that astaxanthin inhibits G/GOinduced cell death, DNA fragmentation, and apoptosis in AGS cells in a dose-dependent manner.
Figure 9 Chart

cells in G/GO-treated cells (Figure 2C,D). These data show that astaxanthin inhibits G/GOinduced cell death, DNA fragmentation, and apoptosis in AGS cells in a dose-dependent manner.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 10
Figure 10 Chart

Quantitative data from a study on astaxanthin Inhibits Oxidative Stress, presenting measured outcomes relevant to the investigation of oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 11
Figure 11 Chart

Experimental results examining astaxanthin Inhibits Oxidative Stress, with data points illustrating key findings related to oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 12
Figure 12 Chart

Statistical analysis from research investigating astaxanthin Inhibits Oxidative Stress, comparing treatment groups and control conditions.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 4. Astaxanthin inhibits glucose/glucose oxidase (G/GO)−induced decrease in Ku70/80 levels in whole-cell extracts and nuclear extracts in AGS cells. The cells were (A) treated with G/GO for the indicated time periods or (B) pre−treated with the indi
Figure 13 Chart

Astaxanthin inhibits glucose/glucose oxidase (G/GO)−induced decrease in Ku70/80 levels in whole-cell extracts and nuclear extracts in AGS cells. The cells were (A) treated with G/GO for the indicated time periods or (B) pre−treated with the indicated concentrations of astaxanthin for 3 h, followed by stimulation with G/GO for 8 h.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 14
Figure 14 Chart

Graphical representation of outcomes in a study of astaxanthin Inhibits Oxidative Stress, highlighting trends observed across experimental conditions.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 15
Figure 15 Chart

Quantitative data from a study on astaxanthin Inhibits Oxidative Stress, presenting measured outcomes relevant to the investigation of oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 16
Figure 16 Chart

Experimental results examining astaxanthin Inhibits Oxidative Stress, with data points illustrating key findings related to oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 17
Figure 17 Chart

Statistical analysis from research investigating astaxanthin Inhibits Oxidative Stress, comparing treatment groups and control conditions.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

Figure 18
Figure 18 Chart

Measured parameters from a study evaluating astaxanthin Inhibits Oxidative Stress, contributing to the overall assessment of oxidative stress induces DNA damage which can be repaired by DNA repair proteins, such as Ku70/80.

Astaxanthin Inhibits Oxidative Stress-Induced Ku Protein Degradation and Apoptosis in Gastric Epithelial …

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