Journal of Shanghai Jiao Tong University (Medical Science) ›› 2024, Vol. 44 ›› Issue (2): 212-222.doi: 10.3969/j.issn.1674-8115.2024.02.007
• Clinical research • Previous Articles
WU Lirong1(), CHEN Ruihua2, CHAO Xiaowen1, GUO Yuhuai1, SUN Tao1, LI Mengci1, CHEN Tianlu1()
Received:
2023-08-03
Accepted:
2023-11-30
Online:
2024-02-28
Published:
2024-03-25
Contact:
CHEN Tianlu
E-mail:wlr7089@163.com;chentianlu@sjtu.edu.cn
Supported by:
CLC Number:
WU Lirong, CHEN Ruihua, CHAO Xiaowen, GUO Yuhuai, SUN Tao, LI Mengci, CHEN Tianlu. Study of metabolic association between elevated fasting blood glucose and cognitive deterioration[J]. Journal of Shanghai Jiao Tong University (Medical Science), 2024, 44(2): 212-222.
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URL: https://xuebao.shsmu.edu.cn/EN/10.3969/j.issn.1674-8115.2024.02.007
Characteristic | Total (n=1 317) | Normal FBG (n=1 153) | High FBG (n=164) | χ2/U value | P value |
---|---|---|---|---|---|
Glucose/(mmol·L-1) | 5.36±0.90 | 5.11±0.47 | 7.10±1.23 | 0.00 | 0.000 |
Age/year | 73.86±7.04 | 73.78±7.11 | 74.43±6.44 | 89 440.50 | 0.263 |
BMI/(kg·m-2) | 26.80±4.61 | 26.80±4.53 | 26.78±5.12 | 73 600.50 | 0.475 |
Gender/n(%) | 7.64 | 0.006 | |||
Male | 727 (55.20) | 620 (53.77) | 107 (65.24) | ||
Female | 590 (44.80) | 533 (46.23) | 57 (34.76) | ||
Education/year | 15.94±2.79 | 15.94±2.81 | 15.95±2.66 | 93 899.50 | 0.886 |
Race/n(%) | 23.57 | 0.001 | |||
White | 1 224 (92.94) | 1 081 (93.76) | 143 (87.20) | ||
Black | 52 (3.95) | 41 (3.56) | 11 (6.71) | ||
Asian | 22 (1.67) | 18 (1.56) | 4 (2.44) | ||
Other | 19 (1.44) | 13 (1.13) | 6 (3.66) | ||
APOE4/n(%) | 0.05 | 0.828 | |||
Negative | 693 (52.62) | 608 (52.73) | 85 (51.83) | ||
Positive | 624 (47.38) | 545 (47.27) | 79 (48.17) |
Tab 1 Comparison of baseline characteristics between the normal FBG group and high FBG group
Characteristic | Total (n=1 317) | Normal FBG (n=1 153) | High FBG (n=164) | χ2/U value | P value |
---|---|---|---|---|---|
Glucose/(mmol·L-1) | 5.36±0.90 | 5.11±0.47 | 7.10±1.23 | 0.00 | 0.000 |
Age/year | 73.86±7.04 | 73.78±7.11 | 74.43±6.44 | 89 440.50 | 0.263 |
BMI/(kg·m-2) | 26.80±4.61 | 26.80±4.53 | 26.78±5.12 | 73 600.50 | 0.475 |
Gender/n(%) | 7.64 | 0.006 | |||
Male | 727 (55.20) | 620 (53.77) | 107 (65.24) | ||
Female | 590 (44.80) | 533 (46.23) | 57 (34.76) | ||
Education/year | 15.94±2.79 | 15.94±2.81 | 15.95±2.66 | 93 899.50 | 0.886 |
Race/n(%) | 23.57 | 0.001 | |||
White | 1 224 (92.94) | 1 081 (93.76) | 143 (87.20) | ||
Black | 52 (3.95) | 41 (3.56) | 11 (6.71) | ||
Asian | 22 (1.67) | 18 (1.56) | 4 (2.44) | ||
Other | 19 (1.44) | 13 (1.13) | 6 (3.66) | ||
APOE4/n(%) | 0.05 | 0.828 | |||
Negative | 693 (52.62) | 608 (52.73) | 85 (51.83) | ||
Positive | 624 (47.38) | 545 (47.27) | 79 (48.17) |
Characteristic | Without cognitive deterioration (n=989) | With cognitive deterioration (n=328) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 5.34±0.86 | 5.41±1.02 | 158 106.00 | 0.493 |
Age/year | 73.62±7.08 | 74.59±6.84 | 147 380.00 | 0.013 |
BMI/(kg·m-2) | 26.79±4.65 | 26.82±4.47 | 126 838.50 | 0.700 |
Gender/n(%) | 5.28 | 0.022 | ||
Male | 528 (53.90) | 199 (60.67) | ||
Female | 461 (46.61) | 129 (39.33) | ||
Education/year | 15.93±2.83 | 15.98±2.65 | 161 357.50 | 0.887 |
Race/n(%) | 4.66 | 0.588 | ||
White | 913 (92.32) | 311 (94.82) | ||
Black | 41 (4.15) | 11 (3.35) | ||
Asian | 17 (1.72) | 5 (1.52) | ||
Other | 18 (1.82) | 1 (0.30) | ||
APOE4/n(%) | 29.54 | 0.000 | ||
Negative | 563 (56.93) | 130 (39.63) | ||
Positive | 426 (43.07) | 198 (60.37) |
Tab 2 Comparison of baseline characteristics between individuals without and with cognitive deterioration (all data)
Characteristic | Without cognitive deterioration (n=989) | With cognitive deterioration (n=328) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 5.34±0.86 | 5.41±1.02 | 158 106.00 | 0.493 |
Age/year | 73.62±7.08 | 74.59±6.84 | 147 380.00 | 0.013 |
BMI/(kg·m-2) | 26.79±4.65 | 26.82±4.47 | 126 838.50 | 0.700 |
Gender/n(%) | 5.28 | 0.022 | ||
Male | 528 (53.90) | 199 (60.67) | ||
Female | 461 (46.61) | 129 (39.33) | ||
Education/year | 15.93±2.83 | 15.98±2.65 | 161 357.50 | 0.887 |
Race/n(%) | 4.66 | 0.588 | ||
White | 913 (92.32) | 311 (94.82) | ||
Black | 41 (4.15) | 11 (3.35) | ||
Asian | 17 (1.72) | 5 (1.52) | ||
Other | 18 (1.82) | 1 (0.30) | ||
APOE4/n(%) | 29.54 | 0.000 | ||
Negative | 563 (56.93) | 130 (39.63) | ||
Positive | 426 (43.07) | 198 (60.37) |
Characteristic | Without cognitive deterioration (n=878) | With cognitive deterioration (n=275) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 5.11±0.47 | 5.09±0.46 | 117 183.00 | 0.462 |
Age/year | 73.57±7.15 | 74.45±6.96 | 110 131.50 | 0.028 |
BMI/(kg·m-2) | 26.80±4.60 | 26.80±4.32 | 93 583.00 | 0.627 |
Gender/n(%) | 3.31 | 0.069 | ||
Male | 459 (52.28) | 161 (58.55) | ||
Female | 419 (47.72) | 114 (41.45) | ||
Education/year | 15.96±2.84 | 15.90 ± 2.70 | 118 879.00 | 0.698 |
Race/n(%) | 5.33 | 0.377 | ||
White | 817 (93.05) | 264 (96.00) | ||
Black | 34 (3.87) | 7 (2.55) | ||
Asian | 14 (1.59) | 4 (1.45) | ||
Other | 13 (1.48) | 0 (0) | ||
APOE4/n(%) | 26.25 | 0.000 | ||
Negative | 500 (56.95) | 108 (39.27) | ||
Positive | 378 (43.05) | 167 (60.73) |
Tab 3 Comparison of baseline characteristics between individuals without and with cognitive deterioration (normal FBG group)
Characteristic | Without cognitive deterioration (n=878) | With cognitive deterioration (n=275) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 5.11±0.47 | 5.09±0.46 | 117 183.00 | 0.462 |
Age/year | 73.57±7.15 | 74.45±6.96 | 110 131.50 | 0.028 |
BMI/(kg·m-2) | 26.80±4.60 | 26.80±4.32 | 93 583.00 | 0.627 |
Gender/n(%) | 3.31 | 0.069 | ||
Male | 459 (52.28) | 161 (58.55) | ||
Female | 419 (47.72) | 114 (41.45) | ||
Education/year | 15.96±2.84 | 15.90 ± 2.70 | 118 879.00 | 0.698 |
Race/n(%) | 5.33 | 0.377 | ||
White | 817 (93.05) | 264 (96.00) | ||
Black | 34 (3.87) | 7 (2.55) | ||
Asian | 14 (1.59) | 4 (1.45) | ||
Other | 13 (1.48) | 0 (0) | ||
APOE4/n(%) | 26.25 | 0.000 | ||
Negative | 500 (56.95) | 108 (39.27) | ||
Positive | 378 (43.05) | 167 (60.73) |
Characteristic | Without cognitive impairment (n=111) | With cognitive impairment (n=53) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 7.11±1.13 | 7.09±1.42 | 2 569.00 | 0.190 |
Age/year | 74.00±6.54 | 75.33±6.19 | 2 635.50 | 0.282 |
BMI/(kg·m-2) | 26.72±5.07 | 26.90±5.27 | 2 383.50 | 0.956 |
Gender/n(%) | 1.44 | 0.230 | ||
Male | 69 (62.16) | 38 (71.70) | ||
Female | 42 (37.84) | 15 (28.30) | ||
Education/year | 15.73±2.77 | 16.42±2.37 | 2 565.50 | 0.177 |
Race/n(%) | 1.25 | 0.869 | ||
White | 96 (86.49) | 47 (88.68) | ||
Black | 7 (6.31) | 4 (7.55) | ||
Asian | 3 (2.70) | 1 (1.89) | ||
Other | 5 (4.50) | 1 (1.89) | ||
APOE4/n(%) | 3.34 | 0.068 | ||
Negative | 63 (56.76) | 22 (41.51) | ||
Positive | 48 (43.24) | 31 (58.49) |
Tab 4 Comparison of baseline characteristics between individuals without and with cognitive deterioration (high FBG group)
Characteristic | Without cognitive impairment (n=111) | With cognitive impairment (n=53) | χ2/U value | P value |
---|---|---|---|---|
Glucose/(mmol·L-1) | 7.11±1.13 | 7.09±1.42 | 2 569.00 | 0.190 |
Age/year | 74.00±6.54 | 75.33±6.19 | 2 635.50 | 0.282 |
BMI/(kg·m-2) | 26.72±5.07 | 26.90±5.27 | 2 383.50 | 0.956 |
Gender/n(%) | 1.44 | 0.230 | ||
Male | 69 (62.16) | 38 (71.70) | ||
Female | 42 (37.84) | 15 (28.30) | ||
Education/year | 15.73±2.77 | 16.42±2.37 | 2 565.50 | 0.177 |
Race/n(%) | 1.25 | 0.869 | ||
White | 96 (86.49) | 47 (88.68) | ||
Black | 7 (6.31) | 4 (7.55) | ||
Asian | 3 (2.70) | 1 (1.89) | ||
Other | 5 (4.50) | 1 (1.89) | ||
APOE4/n(%) | 3.34 | 0.068 | ||
Negative | 63 (56.76) | 22 (41.51) | ||
Positive | 48 (43.24) | 31 (58.49) |
Indicator | P value | Trend | VIP value |
---|---|---|---|
All data | |||
Sphingomyelins | 0.041 | ↓ | 1.66 |
Phospholipids to total lipids ratio in medium HDL | 0.011 | ↑ | 1.93 |
Cholesterol to total lipids ratio in medium HDL | 0.037 | ↓ | 1.31 |
Phospholipids to total lipids ratio in IDL | 0.034 | ↑ | 2.71 |
Phospholipids to total lipids ratio in very small VLDL | 0.009 | ↑ | 2.39 |
Normal FBG group | |||
Cholesteryl esters to total lipids ratio in large HDL | 0.026 | ↓ | 1.13 |
Phospholipids to total lipids ratio in medium HDL | 0.020 | ↑ | 2.23 |
Cholesterol to total lipids ratio in medium HDL | 0.045 | ↓ | 1.78 |
Phospholipids to total lipids ratio in very small VLDL | 0.049 | ↑ | 2.51 |
High FBG group | |||
Valine | 0.023 | ↑ | 1.02 |
Histidine | 0.014 | ↑ | 1.38 |
Phospholipids to total lipids ratio in medium HDL | 0.042 | ↑ | 1.08 |
Free cholesterol to total lipids ratio in small HDL | 0.017 | ↓ | 1.21 |
Cholesteryl esters to total lipids ratio in IDL | 0.044 | ↓ | 1.53 |
Phospholipids to total lipids ratio in IDL | 0.010 | ↑ | 2.16 |
Phospholipids to total lipids ratio in very large VLDL | 0.049 | ↑ | 1.91 |
Free cholesterol to total lipids ratio in very large VLDL | 0.016 | ↑ | 1.92 |
Phospholipids to total lipids ratio in very small VLDL | 0.033 | ↑ | 1.75 |
Tab 5 Differential metabolic indicators between the individuals without and with cognitive deterioration at baseline (all data)
Indicator | P value | Trend | VIP value |
---|---|---|---|
All data | |||
Sphingomyelins | 0.041 | ↓ | 1.66 |
Phospholipids to total lipids ratio in medium HDL | 0.011 | ↑ | 1.93 |
Cholesterol to total lipids ratio in medium HDL | 0.037 | ↓ | 1.31 |
Phospholipids to total lipids ratio in IDL | 0.034 | ↑ | 2.71 |
Phospholipids to total lipids ratio in very small VLDL | 0.009 | ↑ | 2.39 |
Normal FBG group | |||
Cholesteryl esters to total lipids ratio in large HDL | 0.026 | ↓ | 1.13 |
Phospholipids to total lipids ratio in medium HDL | 0.020 | ↑ | 2.23 |
Cholesterol to total lipids ratio in medium HDL | 0.045 | ↓ | 1.78 |
Phospholipids to total lipids ratio in very small VLDL | 0.049 | ↑ | 2.51 |
High FBG group | |||
Valine | 0.023 | ↑ | 1.02 |
Histidine | 0.014 | ↑ | 1.38 |
Phospholipids to total lipids ratio in medium HDL | 0.042 | ↑ | 1.08 |
Free cholesterol to total lipids ratio in small HDL | 0.017 | ↓ | 1.21 |
Cholesteryl esters to total lipids ratio in IDL | 0.044 | ↓ | 1.53 |
Phospholipids to total lipids ratio in IDL | 0.010 | ↑ | 2.16 |
Phospholipids to total lipids ratio in very large VLDL | 0.049 | ↑ | 1.91 |
Free cholesterol to total lipids ratio in very large VLDL | 0.016 | ↑ | 1.92 |
Phospholipids to total lipids ratio in very small VLDL | 0.033 | ↑ | 1.75 |
Indicator | P value | Trend | VIP value |
---|---|---|---|
All data | |||
Leucine | 0.001 | ↑ | 1.03 |
Phenylalanine | <0.001 | ↑ | 1.63 |
Albumin | 0.008 | ↑ | 1.24 |
Total lipids in very large HDL | 0.046 | ↓ | 2.06 |
Free cholesterol in very large HDL | 0.027 | ↓ | 2.48 |
Phospholipids in very large HDL | 0.030 | ↓ | 2.14 |
Cholesterol to total lipids ratio in very large HDL | 0.029 | ↑ | 2.08 |
Cholesteryl esters to total lipids ratio in very large HDL | 0.006 | ↑ | 2.40 |
Phospholipids to total lipids ratio in very large HDL | 0.017 | ↓ | 2.37 |
Free cholesterol to total lipids ratio in large HDL | 0.014 | ↓ | 1.73 |
Concentration of small HDL particles | 0.002 | ↑ | 2.78 |
Total lipids in small HDL | 0.007 | ↑ | 2.38 |
Total cholesterol in small HDL | 0.004 | ↑ | 2.83 |
Free cholesterol in small HDL | 0.027 | ↑ | 1.91 |
Cholesterol esters in small HDL | 0.002 | ↑ | 3.04 |
Phospholipids in small HDL | 0.022 | ↑ | 2.05 |
Cholesterol to total lipids ratio in small LDL | 0.002 | ↑ | 2.28 |
Cholesteryl esters to total lipids ratio in small LDL | 0.004 | ↑ | 1.16 |
Phospholipids to total lipids ratio in small LDL | 0.001 | ↓ | 1.85 |
Cholesterol to total lipids ratio in very large VLDL | 0.045 | ↑ | 1.22 |
Cholesteryl esters to total lipids ratio in very large VLDL | 0.038 | ↑ | 1.55 |
Normal FBG group | |||
Phenylalanine | <0.001 | ↑ | 1.64 |
Leucine | 0.005 | ↑ | 1.01 |
Albumin | 0.030 | ↑ | 1.35 |
Cholesterol to total lipids ratio in very large HDL | 0.043 | ↑ | 2.22 |
Cholesteryl esters to total lipids ratio in very large HDL | 0.014 | ↑ | 2.57 |
Phospholipids to total lipids ratio in very large HDL | 0.044 | ↓ | 2.14 |
Free cholesterol in very large HDL | 0.048 | ↓ | 2.32 |
Free cholesterol to total lipids ratio in large HDL | 0.022 | ↓ | 1.50 |
Concentration of small HDL particles | 0.005 | ↑ | 2.95 |
Total lipids in small HDL | 0.011 | ↑ | 2.60 |
Free cholesterol in small HDL | 0.030 | ↑ | 2.19 |
Total cholesterol in small HDL | 0.008 | ↑ | 2.97 |
Cholesterol esters in small HDL | 0.006 | ↑ | 3.14 |
Phospholipids in small HDL | 0.029 | ↑ | 2.29 |
Cholesterol to total lipids ratio in small LDL | 0.003 | ↑ | 2.70 |
Cholesteryl esters to total lipids ratio in small LDL | 0.003 | ↑ | 1.71 |
Phospholipids to total lipids ratio in small LDL | 0.002 | ↓ | 2.26 |
Cholesterol to total lipids ratio in very large VLDL | 0.042 | ↑ | 1.40 |
Cholesteryl esters to total lipids ratio in very large VLDL | 0.043 | ↑ | 1.64 |
High FBG group | |||
Concentration of medium LDL particles | 0.031 | ↑ | 1.93 |
Total lipids in medium LDL | 0.030 | ↑ | 2.15 |
Cholesterol esters in medium LDL | 0.033 | ↑ | 2.15 |
Phospholipids in medium LDL | 0.023 | ↑ | 2.18 |
Phospholipids to total lipids ratio in IDL | 0.037 | ↓ | 1.94 |
Total lipids in small LDL | 0.036 | ↑ | 1.96 |
Cholesterol esters in small LDL | 0.049 | ↑ | 1.95 |
Phospholipids in small LDL | 0.043 | ↑ | 1.82 |
Tab 6 Differential metabolic indicators between the individuals with cognitive deterioration before and after cognitive deterioration
Indicator | P value | Trend | VIP value |
---|---|---|---|
All data | |||
Leucine | 0.001 | ↑ | 1.03 |
Phenylalanine | <0.001 | ↑ | 1.63 |
Albumin | 0.008 | ↑ | 1.24 |
Total lipids in very large HDL | 0.046 | ↓ | 2.06 |
Free cholesterol in very large HDL | 0.027 | ↓ | 2.48 |
Phospholipids in very large HDL | 0.030 | ↓ | 2.14 |
Cholesterol to total lipids ratio in very large HDL | 0.029 | ↑ | 2.08 |
Cholesteryl esters to total lipids ratio in very large HDL | 0.006 | ↑ | 2.40 |
Phospholipids to total lipids ratio in very large HDL | 0.017 | ↓ | 2.37 |
Free cholesterol to total lipids ratio in large HDL | 0.014 | ↓ | 1.73 |
Concentration of small HDL particles | 0.002 | ↑ | 2.78 |
Total lipids in small HDL | 0.007 | ↑ | 2.38 |
Total cholesterol in small HDL | 0.004 | ↑ | 2.83 |
Free cholesterol in small HDL | 0.027 | ↑ | 1.91 |
Cholesterol esters in small HDL | 0.002 | ↑ | 3.04 |
Phospholipids in small HDL | 0.022 | ↑ | 2.05 |
Cholesterol to total lipids ratio in small LDL | 0.002 | ↑ | 2.28 |
Cholesteryl esters to total lipids ratio in small LDL | 0.004 | ↑ | 1.16 |
Phospholipids to total lipids ratio in small LDL | 0.001 | ↓ | 1.85 |
Cholesterol to total lipids ratio in very large VLDL | 0.045 | ↑ | 1.22 |
Cholesteryl esters to total lipids ratio in very large VLDL | 0.038 | ↑ | 1.55 |
Normal FBG group | |||
Phenylalanine | <0.001 | ↑ | 1.64 |
Leucine | 0.005 | ↑ | 1.01 |
Albumin | 0.030 | ↑ | 1.35 |
Cholesterol to total lipids ratio in very large HDL | 0.043 | ↑ | 2.22 |
Cholesteryl esters to total lipids ratio in very large HDL | 0.014 | ↑ | 2.57 |
Phospholipids to total lipids ratio in very large HDL | 0.044 | ↓ | 2.14 |
Free cholesterol in very large HDL | 0.048 | ↓ | 2.32 |
Free cholesterol to total lipids ratio in large HDL | 0.022 | ↓ | 1.50 |
Concentration of small HDL particles | 0.005 | ↑ | 2.95 |
Total lipids in small HDL | 0.011 | ↑ | 2.60 |
Free cholesterol in small HDL | 0.030 | ↑ | 2.19 |
Total cholesterol in small HDL | 0.008 | ↑ | 2.97 |
Cholesterol esters in small HDL | 0.006 | ↑ | 3.14 |
Phospholipids in small HDL | 0.029 | ↑ | 2.29 |
Cholesterol to total lipids ratio in small LDL | 0.003 | ↑ | 2.70 |
Cholesteryl esters to total lipids ratio in small LDL | 0.003 | ↑ | 1.71 |
Phospholipids to total lipids ratio in small LDL | 0.002 | ↓ | 2.26 |
Cholesterol to total lipids ratio in very large VLDL | 0.042 | ↑ | 1.40 |
Cholesteryl esters to total lipids ratio in very large VLDL | 0.043 | ↑ | 1.64 |
High FBG group | |||
Concentration of medium LDL particles | 0.031 | ↑ | 1.93 |
Total lipids in medium LDL | 0.030 | ↑ | 2.15 |
Cholesterol esters in medium LDL | 0.033 | ↑ | 2.15 |
Phospholipids in medium LDL | 0.023 | ↑ | 2.18 |
Phospholipids to total lipids ratio in IDL | 0.037 | ↓ | 1.94 |
Total lipids in small LDL | 0.036 | ↑ | 1.96 |
Cholesterol esters in small LDL | 0.049 | ↑ | 1.95 |
Phospholipids in small LDL | 0.043 | ↑ | 1.82 |
1 | 《中国老年2型糖尿病防治临床指南》编写组. 中国老年2型糖尿病防治临床指南(2022年版)[J]. 中国糖尿病杂志, 2022, 30(1): 2-51. |
Authoring Committee for the Clinical Guidelines on the Prevention and Treatment of Elderly Diabetes in China. Clinical guidelines for the prevention and treatment of type 2 diabetes mellitus in the elderly in China (2022 edition)[J]. Chinese Journal of Diabetes Mellitus, 2022, 30(1): 2-51. | |
2 | 中华医学会内分泌学分会. 糖尿病患者认知功能障碍专家共识[J]. 中华糖尿病杂志, 2021, 13(7): 678-694. |
Chinese Society of Endocrinology. Expert consensus on cognitive dysfunction in patients with diabetes mellitus[J]. Chinese Journal of Diabetes Mellitus, 2021, 13(7): 678-694. | |
3 | HOWARTH C, GLEESON P, ATTWELL D. Updated energy budgets for neural computation in the neocortex and cerebellum[J]. J Cereb Blood Flow Metab, 2012, 32(7): 1222-1232. |
4 | CAMANDOLA S, MATTSON M P. Brain metabolism in health, aging, and neurodegeneration[J]. EMBO J, 2017, 36(11): 1474-1492. |
5 | SZABLEWSKI L. Glucose transporters in brain: in health and in Alzheimer's disease[J]. J Alzheimers Dis, 2017, 55(4): 1307-1320. |
6 | BAO H, LIU Y M, ZHANG M G, et al. Increased β-site APP cleaving enzyme 1-mediated insulin receptor cleavage in type 2 diabetes mellitus with cognitive impairment[J]. Alzheimers Dement, 2021, 17(7): 1097-1108. |
7 | QU M L, ZUO L H, ZHANG M R, et al. High glucose induces tau hyperphosphorylation in hippocampal neurons via inhibition of ALKBH5-mediated Dgkh m6A demethylation: a potential mechanism for diabetic cognitive dysfunction[J]. Cell Death Dis, 2023, 14(6): 385. |
8 | WANG J, LI L, ZHANG Z, et al. Extracellular vesicles mediate the communication of adipose tissue with brain and promote cognitive impairment associated with insulin resistance[J]. Cell Metab, 2022, 34(9): 1264-1279.e8. |
9 | NHO K, KUEIDER-PAISLEY A, MAHMOUDIANDEHKORDI S, et al. Altered bile acid profile in mild cognitive impairment and Alzheimer's disease: relationship to neuroimaging and CSF biomarkers[J]. Alzheimers Dement, 2019, 15(2): 232-244. |
10 | SOININEN P, KANGAS A J, WÜRTZ P, et al. High-throughput serum NMR metabonomics for cost-effective holistic studies on systemic metabolism[J]. Analyst, 2009, 134(9): 1781-1785. |
11 | PETERSEN R C, AISEN P S, BECKETT L A, et al. Alzheimer's Disease Neuroimaging Initiative (ADNI): clinical characterization[J]. Neurology, 2010, 74(3): 201-209. |
12 | MCKHANN G, DRACHMAN D, FOLSTEIN M, et al. Clinical diagnosis of Alzheimer's disease: report of the NINCDS-ADRDA Work Group under the auspices of Department of Health and Human Services Task Force on Alzheimer's Disease[J]. Neurology, 1984, 34(7): 939-944. |
13 | JAGIELSKI A C, JIANG C Q, XU L, et al. Glycaemia is associated with cognitive impairment in older adults: the Guangzhou Biobank Cohort Study[J]. Age Ageing, 2015, 44(1): 65-71. |
14 | GONZÁLEZ H M, TARRAF W, GONZÁLEZ K A, et al. Diabetes, cognitive decline, and mild cognitive impairment among diverse Hispanics/Latinos: study of Latinos-investigation of neurocognitive aging results (HCHS/SOL)[J]. Diabetes Care, 2020, 43(5): 1111-1117. |
15 | WOODIE L, BLYTHE S. The differential effects of high-fat and high-fructose diets on physiology and behavior in male rats[J]. Nutr Neurosci, 2018, 21(5): 328-336. |
16 | TAN B L, NORHAIZAN M E. Effect of high-fat diets on oxidative stress, cellular inflammatory response and cognitive function[J]. Nutrients, 2019, 11(11): 2579. |
17 | REITZ C, TANG M X, LUCHSINGER J, et al. Relation of plasma lipids to Alzheimer disease and vascular dementia[J]. Arch Neurol, 2004, 61(5): 705-714. |
18 | BAUMGART M, SNYDER H M, CARRILLO M C, et al. Summary of the evidence on modifiable risk factors for cognitive decline and dementia: a population-based perspective[J]. Alzheimer's Dement, 2015, 11(6): 718-726. |
19 | STROM B L, SCHINNAR R, KARLAWISH J, et al. Statin therapy and risk of acute memory impairment[J]. JAMA Intern Med, 2015, 175(8): 1399-1405. |
20 | OLSSON A G, ANGELIN B, ASSMANN G, et al. Can LDL cholesterol be too low? Possible risks of extremely low levels[J]. J Intern Med, 2017, 281(6): 534-553. |
21 | ISO H, JACOBS D R Jr, WENTWORTH D, et al. Serum cholesterol levels and six-year mortality from stroke in 350 977 men screened for the multiple risk factor intervention trial[J]. N Engl J Med, 1989, 320(14): 904-910. |
22 | WHITE P J, MCGARRAH R W, HERMAN M A, et al. Insulin action, type 2 diabetes, and branched-chain amino acids: a two-way street[J]. Mol Metab, 2021, 52: 101261. |
23 | SHIDA Y, ENDO H, OWADA S, et al. Branched-chain amino acids govern the high learning ability phenotype in Tokai high avoider (THA) rats[J]. Sci Rep, 2021, 11(1): 23104. |
24 | COLE J T, MITALA C M, KUNDU S, et al. Dietary branched chain amino acids ameliorate injury-induced cognitive impairment[J]. Proc Natl Acad Sci U S A, 2010, 107(1): 366-371. |
25 | SIDDIK M A B, MULLINS C A, KRAMER A, et al. Branched-chain amino acids are linked with Alzheimer's disease-related pathology and cognitive deficits[J]. Cells, 2022, 11(21): 3523. |
26 | EUSER S M, SATTAR N, WITTEMAN J C M, et al. A prospective analysis of elevated fasting glucose levels and cognitive function in older people: results from PROSPER and the Rotterdam Study[J]. Diabetes, 2010, 59(7): 1601-1607. |
27 | GANGULI M, BEER J C, ZMUDA J M, et al. Aging, diabetes, obesity, and cognitive decline: a population-based study[J]. J Am Geriatr Soc, 2020, 68(5): 991-998. |
28 | NAGAI N, ITO Y, SASAKI H. Hyperglycemia enhances the production of amyloid β1-42 in the lenses of Otsuka Long-Evans Tokushima Fatty rats, a model of human type 2 diabetes[J]. Invest Ophthalmol Vis Sci, 2016, 57(3): 1408-1417. |
29 | YANG Y, WU Y L, ZHANG S T, et al. High glucose promotes Aβ production by inhibiting APP degradation[J]. PLoS One, 2013, 8(7): e69824. |
30 | EXALTO L G, van der FLIER W M, SCHELTENS P, et al. Glycemia and levels of cerebrospinal fluid amyloid and tau in patients attending a memory clinic[J]. J Am Geriatr Soc, 2010, 58(7): 1318-1321. |
31 | LU Y H, JIANG X J, LIU S L, et al. Changes in cerebrospinal fluid tau and β-amyloid levels in diabetic and prediabetic patients: a meta-analysis[J]. Front Aging Neurosci, 2018, 10: 271. |
32 | ARNOLD S E, ARVANITAKIS Z, MACAULEY-RAMBACH S L, et al. Brain insulin resistance in type 2 diabetes and Alzheimer disease: concepts and conundrums[J]. Nat Rev Neurol, 2018, 14(3): 168-181. |
33 | BUTTERFIELD D A, HALLIWELL B. Oxidative stress, dysfunctional glucose metabolism and Alzheimer disease[J]. Nat Rev Neurosci, 2019, 20(3): 148-160. |
34 | NGUYEN T T, TA Q T H, NGUYEN T K O, et al. Type 3 diabetes and its role implications in Alzheimer's disease[J]. Int J Mol Sci, 2020, 21(9): 3165. |
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