th { font-size: 35px; text-decoration-line: underline; text-decoration-style: wavy; }如何使得文本中被字母y挡住的波浪线显示出来

时间: 2024-05-03 22:17:43 浏览: 8
您可以尝试在CSS中使用以下代码来为波浪线添加一些间距,以避免被字母y挡住: ```css th { font-size: 35px; text-decoration-line: underline; text-decoration-style: wavy; text-decoration-color: black; /* 添加波浪线颜色 */ text-decoration-skip-ink: none; /* 防止字母y挡住波浪线 */ padding-bottom: 4px; /* 添加底部间距 */ } ``` 您可以通过调整padding-bottom的值来调整波浪线与文本之间的间距。
相关问题

th { font-size: 35px; text-decoration-line: underline; text-decoration-style: wavy; text-decoration-position: relative; }下划线位置没有反应

在CSS中,`text-decoration-position`属性只有在`text-decoration-line`属性值为`underline`或`overline`时才有效。所以你需要将`text-decoration-line`的属性值设置为`underline`才能让`text-decoration-position`属性生效。以下是一个示例: ```html <!DOCTYPE html> <html> <head> <title>Text Decoration Example</title> <style> th { font-size: 35px; text-decoration-line: underline; text-decoration-style: wavy; text-decoration-position: relative; } </style> </head> <body> <table> <tr> <th>Header 1</th> <th>Header 2</th> <th>Header 3</th> </tr> <tr> <td>Content 1</td> <td>Content 2</td> <td>Content 3</td> </tr> </table> </body> </html> ``` 在这个例子中,所有的表头都会有一个波浪线的下划线,而且下划线的位置会相对于文本的基线上移一定距离。

text-decoration-color、text-decoration-thickness、text-decoration-style的作用是什么,及其配置属性和范例

text-decoration-color用于定义文本装饰线的颜色;text-decoration-thickness用于定义文本装饰线的宽度;text-decoration-style用于定义文本装饰线的样式。它们通常与text-decoration属性一起使用。 配置属性: text-decoration-color: <color> | <initial> | <inherit>; text-decoration-thickness: <length> | <initial> | <inherit>; text-decoration-style: <dotted> | <dashed> | <solid> | <double> | <wavy> | <initial> | <inherit>; 示例: a { text-decoration: line-through; text-decoration-color: red; text-decoration-thickness: 2px; text-decoration-style: dotted; } 以上样式定义了一个红色的2像素宽度的虚线删除线。

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用中文总结以下内容: A number of experimental and numerical investigations have been conducted to study the MBPP stack and wavy flow field characteristics with various designs [10,11]. T. Chu et al. conducted the durability test of a 10-kW MBPP fuel cell stack containing 30 cells under dynamic driving cycles and analyzed the performance degradation mechanism [12]. X. Li et al. studied the deformation behavior of the wavy flow channels with thin metallic sheet of 316 stainless steel from both experimental and simulation aspects [13]. J. Owejan et al. designed a PEMFC stack with anode straight flow channels and cathode wavy flow channels and studied the in situ water distributions with neutron radiograph [14]. T. Tsukamoto et al. simulated a full-scale MBPP fuel cell stack of 300 cm2 active area at high current densities and used the 3D model to analyze the in-plane and through-plane parameter distributions [15]. G. Zhang et al. developed a two-fluid 3D model of PEMFC to study the multi-phase and convection effects of wave-like flow channels which are symmetric between anode and cathode sides [16]. S. Saco et al. studied the scaled up PEMFC numerically and compared straight parallel, serpentine zig-zag and straight zig-zag flow channels cell with zig-zag flow field with a transient 3D numerical model to analyze the subfreezing temperature cold start operations [18]. P. Dong et al. introduced discontinuous S-shaped and crescent ribs into flow channels based on the concept of wavy flow field for optimized design and improved energy performance [19]. I. Anyanwu et al. investigated the two-phase flow in sinusoidal channel of different geometric configurations for PEMFC and analyzed the effects of key dimensions on the droplet removal in the flow channel [20]. Y. Peng et al. simulated 5-cell stacks with commercialized flow field designs, including Ballard-like straight flow field, Honda-like wavy flow field and Toyota-like 3D mesh flow field, to investigate their thermal management performance [21]. To note, the terms such as sinusoidal, zig-zag, wave-like and Sshaped flow channels in the aforementioned literatures are similar to the so called wavy flow channels in this paper with identical channel height for the entire flow field. The through-plane constructed wavy flow channels with periodically varied channel heights are beyond the scope of this paper [22,23].

用中文翻译:A coupled three-dimensional model is developed to study the internal parameter distributions of the MBPP fuel cell stack, considering fluid dynamics, electro-chemical reactions, multi-species mass transfer, twophase flow of water and thermal dynamics. The model geometry domains include anode MBPP, anode gas wavy flow field (5 parallel flow channels), anode GDL, anode catalyst layer (CL), membrane, cathode CL, cathode GDL, cathode gas wavy flow field (5 parallel flow channels), cathode MBPP and the two-layered coolant wavy flow fields at anode/cathode sides. According to the stack design, the design parameters of wavy flow fields for anode and cathode sides are the same but the phase deviation between their wave cycles presents 180◦. The two wavy flow fields of coolant, at the respective back sides of the anode and cathode plates, form the intercrossed two-layered coolant flow fields inside the MBPP, due to the phase difference of 180◦ between the wave cycles (Fig. 3). The mismatched flow field patterns between the neighbored fluid flows lead to complicated geometry and mesh building. The presented model geometry is divided into several layers (xz plane) according to the different domain materials so that the thin metallic plate and fluid domains with complicated 3D morphologies could be finely meshed layer by layer. As the real geometry of the experimental stack is too large for calculation, the modeled flow field consists of 5 parallel wavy channels, each of which includes 2 wave periods and corresponding inlet/outlet portions as well. To study the detailed thermal behavior of the presented design, the two-layered coolant fluid flow at the back side of the anode plate is considered and so is for the cathode plate. The counter flow operation is conducted where the air flows at the same direction with coolant but the opposite with hydrogen, shown in Fig. 3 (b).

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