doc: fix some typos (#490)

Co-authored-by: Tunç Başar Köse <tunc.kose@relevant-digital.com>

Author: tuncbkose

en/option/component/geo-common.md

@@ -174,11 +174,11 @@ Note: `stream` is not required in the `projection`.
 
 #${prefix} aspectScale(number) = 0.75
 
-Used to scale aspect of geo. It will be ignored if [proejction](~${componentNameInLink}.projection) is set.
+Used to scale aspect of geo. It will be ignored if [projection](~${componentNameInLink}.projection) is set.
 
-The final calculated `pixelWidth` and `pixelHeight` of the map will satisfy `pixelWidth / pixelHeight = lngSpan / latSpan * aspectScale` (assume [proejction](~${componentNameInLink}.projection) is not specified, and [preserveAspect](~${componentNameInLink}.preserveAspect) is truthy).
+The final calculated `pixelWidth` and `pixelHeight` of the map will satisfy `pixelWidth / pixelHeight = lngSpan / latSpan * aspectScale` (assume [projection](~${componentNameInLink}.projection) is not specified, and [preserveAspect](~${componentNameInLink}.preserveAspect) is truthy).
 
-If no [proejction](~${componentNameInLink}.projection) is applied, the latitudes and longitudes in GeoJSON are linearly mapped to pixel coordinates diarectly. `aspectScale` offers a simple way to visually compensates for the distortion caused by the fact that the longitudinal spacing shrinks as latitude increases. For example, an `aspectScale` can be roughly calculated as `aspectScale = Math.cos(center_latitude * Maht.PI / 180)`, which is similar to a sinusoidal projection.
+If no [projection](~${componentNameInLink}.projection) is applied, the latitudes and longitudes in GeoJSON are linearly mapped to pixel coordinates diarectly. `aspectScale` offers a simple way to visually compensates for the distortion caused by the fact that the longitudinal spacing shrinks as latitude increases. For example, an `aspectScale` can be roughly calculated as `aspectScale = Math.cos(center_latitude * Maht.PI / 180)`, which is similar to a sinusoidal projection.
 
 See [example](${galleryEditorPath}geo-graph&edit=1&reset=1).
 

en/option/partial/view-coord-sys.md

@@ -29,7 +29,7 @@
 Notice: the values in `center` are based on the original layout coordinates, rather than the viewport (canvas) coordinates. If you intend to adjust the position and size of ${sourceName} by viewport coordinates, use [${componentNameInLink}.left](~${componentNameInLink}.left) / [.right](~${componentNameInLink}.right) / [.top](~${componentNameInLink}.top) / [.bottom](~${componentNameInLink}.bottom) / [.width](~${componentNameInLink}.width) / [.height](~${componentNameInLink}.height) {{ if: ${isGeoOrMap} }} or [${componentNameInLink}.layoutCenter](~${componentNameInLink}.layoutCenter) / [layoutSize](~${componentNameInLink}.layoutSize){{ /if }}.
 
 {{ if: ${isGeoOrMap} }}
-`center` is in longitude and latitude by default. Use the projected coordinates if [proejction](~${componentNameInLink}.projection) is set.
+`center` is in longitude and latitude by default. Use the projected coordinates if [projection](~${componentNameInLink}.projection) is set.
 
 Example:
 
@@ -72,7 +72,7 @@ If using absolute numbers in `center`:
 Using absolute numbers in `center` is unfeasible, as the absolute numbers typically represent the original coordinates, which is calculated by auto-layout strategy and is not user-determinable.
 {{ /if }}
 
-A percentage string can also be used in `center`, like `'30%'`, based on the bounding rect{{ if: ${isGeoOrMap} }}(determined min/max latitude/longitude, or min/max projected coordinates if [proejction](~${componentNameInLink}.projection) is set){{ /if }}. You can use `'0%'` to place the top or left of bounding rect to the center of the viewport (typically, canvas), or use `'100%'` to place the right or bottom to the center of the viewport, or use `'50%'` to place the entire ${sourceName} at the the center of the viewport.
+A percentage string can also be used in `center`, like `'30%'`, based on the bounding rect{{ if: ${isGeoOrMap} }}(determined min/max latitude/longitude, or min/max projected coordinates if [projection](~${componentNameInLink}.projection) is set){{ /if }}. You can use `'0%'` to place the top or left of bounding rect to the center of the viewport (typically, canvas), or use `'100%'` to place the right or bottom to the center of the viewport, or use `'50%'` to place the entire ${sourceName} at the the center of the viewport.
 For example:
 ```ts
 center: [115, '30%']

zh/option/component/geo-common.md

@@ -172,11 +172,11 @@ series: {
 
 #${prefix} aspectScale(number) = 0.75
 
-这个参数用于 scale 地图的长宽比。如果设置了 [proejction](~${componentNameInLink}.projection) 则无效。
+这个参数用于 scale 地图的长宽比。如果设置了 [projection](~${componentNameInLink}.projection) 则无效。
 
-地图最终计算得到的 `pixelWidth` 和 `pixelHeight` 将满足以下关系：`pixelWidth / pixelHeight = lngSpan / latSpan * aspectScale`（假设未指定 [proejction](~${componentNameInLink}.projection)，且 [preserveAspect](~${componentNameInLink}.preserveAspect) 设为保持长宽比）。
+地图最终计算得到的 `pixelWidth` 和 `pixelHeight` 将满足以下关系：`pixelWidth / pixelHeight = lngSpan / latSpan * aspectScale`（假设未指定 [projection](~${componentNameInLink}.projection)，且 [preserveAspect](~${componentNameInLink}.preserveAspect) 设为保持长宽比）。
 
-当不使用真正的投影公式（[proejction](~${componentNameInLink}.projection)）时，GeoJSON 里的经纬度会被线性映射到像素坐标。`aspectScale` 提供了一种简单方式，用于视觉上补偿这种映射所造成的形变（由于地球是球形，经度对应的物理尺寸在高纬度地区会收缩）。例如，`aspectScale` 可以通过以下公式粗略计算：`aspectScale = Math.cos(center_latitude * Math.PI / 180)`，这与正弦投影（sinusoidal projection）相似。
+当不使用真正的投影公式（[projection](~${componentNameInLink}.projection)）时，GeoJSON 里的经纬度会被线性映射到像素坐标。`aspectScale` 提供了一种简单方式，用于视觉上补偿这种映射所造成的形变（由于地球是球形，经度对应的物理尺寸在高纬度地区会收缩）。例如，`aspectScale` 可以通过以下公式粗略计算：`aspectScale = Math.cos(center_latitude * Math.PI / 180)`，这与正弦投影（sinusoidal projection）相似。
 
 参见 [示例](${galleryEditorPath}geo-graph&edit=1&reset=1)。
 

zh/option/partial/view-coord-sys.md

@@ -30,7 +30,7 @@
 
 
 {{ if: ${isGeoOrMap} }}
-`center` 默认使用原始坐标（经纬度）。如果设置了 [proejction](~${componentNameInLink}.projection) 则用投影后的坐标。
+`center` 默认使用原始坐标（经纬度）。如果设置了 [projection](~${componentNameInLink}.projection) 则用投影后的坐标。
 
 示例：
 ```ts