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Each phone also uses a new, custom-built \"brain\" to interpret information captured by these sensors. On the Pixel 6 Pro, we have the Tensor, an entire full-blown SoC, while on the X70 Pro Plus, Vivo built a custom image signal processor (ISP) chip to accompany the Snapdragon 888+ SoC.
Below is another high contrast scene and once again, Vivo's shot has noticeably bolder colors, with brighter shadows. But also just like the above set, zooming in no longer reveals a sharper Pixel image.
For example, in this above set, taken on an elevated train platform shortly after sunset in Bangkok, we can see the trees on the right side and the street below, are noticeably better illuminated, but Vivo's image shows greater contrast, which in this scene works in its favor. The Pixel's shot almost doesn't feel like a night shot at all.
Effects of Iranian crack (IC) on the hepatic mitochondrial reactive oxygen species (ROS) production. (A) Fluorescent microscopic images of DCF-stained mitochondria in the liver tissue. (Aa) normal saline control group; (Ab) IC-received (0.9 mg/kg/day) group. (B) Quantified DCF fluorescence by Fluorimeter (Biotek), which was normalized against mg protein in mitochondrial extract and presented as fold of control per group. Values are represented as mean SEM (n=5); ***P
Effects of Iranian crack (IC) on the phosphorylation of p38 MAPK and JNK in the liver tissue. (A) Immunoblotting images of phosphor-p38 MAPK, total p38 MAPK, phosphor-JNK and total JNK proteins in normal saline (NS)-received rat and IC-treated rats. (B) Densitometry analysis of phosphor-p38 MAPK normalized against total p38 MAPK and presented as fold change of control. (C) Densitometry analysis of phosphor-JNK normalized against total JNK and presented as fold change of control. Values are represented as meanSEM; **P
Effects of Iranian crack (IC) on the expression of tumor necrosis factor-alpha (TNF-α) and interleukin 1β (IL-1β) in the liver tissue. (A) Immunoblotting images of TNF-α, IL-1β, β-actin proteins (as the internal control) in the normal saline (NS)-received rat and IC-treated rats. (B) Densitometry analysis of TNF-α normalized against β-actin and presented as fold change of control (C) Densitometry analysis of IL-1β normalized against β-actin and presented as fold change of control. Values are represented as mean SEM; **P
Effect of Iranian crack (IC) on the liver tissue inflammation and fibrosis. A) 400 hematoxylin and eosin (H&E)- stained sections and B) Trichrome Masson (MT)-stained sections. (Aa) Photomicrographs of liver sections of normal control group showed well-structured and arrangement of the normal liver architecture and few inflammatory cell infiltration; (Ab) Photomicrographs of liver sections of IC-administered group showed inflammation and mononuclear cell infiltration in the liver tissue (black arrow); (Ba) the rate of collagen as a marker of fibrosis in normal saline control group (blue color) (Bb) representative of the collagen and other fibrotic agents accumulation in the liver tissue of IC-treated rats (blue color). (C) The score of liver fibrosis in different groups. Values are presented as mean SEM (n=5); *P
The specimen preparation process was as follows. After drying the site soil in the oven and passing through a 2 mm sieve, the sample was prepared by weighing the corresponding mass of soil and water, mixing the soil and water evenly, and trying to pinch the larger clusters apart, and then the soil sample was sealed for 24 h using cling film. Due to the different stress changes in the dry shrinkage process for specimens with different aspect ratios [14], the soil samples were mixed with different aspect ratios in combination with the excavation step ratio of the state bridge site, and the different aspect ratio specimens were taken as 12:1, 6:1, 3:1, and 1.5:1. The height was uniformly taken as 2 cm. Finally, the length width height of the specimens was 60 cm 5 cm 2 cm, 60 cm 10 cm 2 cm, 30 cm 10 cm 2 cm, and 30 cm 20 cm 2 cm, respectively. The samples under different conditions sit on three sets of the same parallel samples. The data processing variances of the crack area, crack orientation and crack angle are shown in Table 3, Table 4 and Table 5.
Microscopically, soil cracking is a typical form of tensile failure and is the result of stress. During the drying process of the soil, matrix suction will be generated. When the tensile stress field caused by the matrix suction exceeds the tensile strength of the soil itself, cracks will form, and the tip of the crack will form a new tensile stress field concentration point, resulting in cracks. There will be continuous development under tip traction. Therefore, the matrix suction and the tensile strength of the soil are two key mechanical indicators restricting the development of cracks. It can be seen from the figure that the matrix suction of silty clay increased with the decrease in saturation, and the tensile strength decreased with it. As the test proceeded, the matrix suction inside the sample exceeded the tensile strength of the sample. When the sample was cracked, the moisture content decreased continuously, and the suction force and tensile stress of the matrix continued to change, until the water evaporation rate decreased to 0 in the residual stage [21].
Cracking of specimens with a size of 30 cm 10 cm 2 cm. (a) Initial stage; (b) crack development stage; (c) crack development stage; (d) final crack morphology.
Cracking of specimens with a size of 30 cm 20 cm 2 cm. (a) initial stage; (b) crack development stage; (c) crack development stage; (d) final crack morphology.
Cracking of specimens with a size of 60 cm 10 cm 2 cm. (a) initial stage; (b) crack development stage; (c) crack development stage; (d) final crack morphology.
Cracking of specimens with a size of 60 cm 5 cm 2 cm. (a) initial stage; (b) crack development stage; (c) crack development stage; (d) final crack morphology.
Fracture area curve. (a) the change curve of crack area under 21% initial moisture content and 30% humidity; (b) the crack area change curve under 21% initial moisture content and 67% humidity; (c) the change curve of crack area under 21% initial moisture content and 95% humidity; (d) the crack area change curve under 30% initial moisture content and 30% humidity; (e) the crack area change curve under 30% initial moisture content and 67% humidity; (f) the change curve of crack area under 30% initial moisture content and 95% humidity; (g) the variation curve of crack area under 38% initial moisture content and 30% humidity; (h) the change curve of crack area under 38% initial moisture content and 67% humidity; (i) the change curve of crack area under 38% initial moisture content and 95% humidity.
Crack orientation curve. (a) the change curve of crack orientation under 21% initial moisture content and 30% humidity; (b) the change curve of crack orientation under 21% initial moisture content and 67% humidity; (c) the change curve of crack orientation under 21% initial moisture content and 95% humidity; (d) the crack orientation change curve under 30% initial moisture content and 30% humidity; (e) the crack orientation change under 30% initial moisture content and 67% humidity; (f) the change curve of crack orientation under 30% initial moisture content and 95% humidity; (g) the crack change curve 38% initial moisture content and 30% humidity; (h) the change curve of crack orientation under 38% initial moisture content and 67% humidity; (i) the change curve of crack orientation under 38% initial moisture content and 95% humidity.
As shown in Figure 8c,f,i, compared with the low humidity conditions of 30% and 67%, the aspect ratio of the closed figure fluctuated less in high humidity conditions. Combined with the experimental samples, it can be seen that the sample developed cracks in a high humidity environment to form a closed pattern with a small area and a large crack area, indicating that the sample had many and small closed patterns, a complex development, and the transfer distribution of the stress field was disordered and varied. Therefore, under the condition of low humidity, the damage degree of the sample was less, and this kind of environment was more conducive to the protection of the site soil.
Crack angle change curve. (a) the change curve of crack angle under 21% initial moisture content and 30% humidity; (b) the change curve of crack angle under 21% initial moisture content and 67% humidity; (c) the change curve of crack angle under 21% initial moisture content and 95% humidity; (d) the crack angle change curve under 30% initial moisture content and 30% humidity, (e) the crack angle change under 30% initial moisture content and 67% humidity Curve; (f) the change curve of crack angle under 30% initial moisture content and 95% humidity; (g) the change curve of crack angle under 38% initial moisture content and 30% humidity; (h) the change curve of crack angle under 38% initial moisture content and 67% humidity; (i) the change curve of crack angle under 38% initial moisture content and 95% humidity.
(2) The soil sample with an aspect ratio of less than 3:1 had a faster crack area increase rate than the sample with an aspect ratio of more than 3:1, and the total crack area was the largest. The soil samples with a high moisture content lost water faster, and the cracks appeared earlier and the number of cracks was more than that of the soil samples with a low moisture content, which were more prone to cracking. 153554b96e
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