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This paper proposes a tracking syst
This paper proposes a tracking system considering a
shadow influence in order to improve the efficiency of PV
system. If distance of between PV arrays is not enough,
shadow can be occurred to PV module. The influence of
this shadow is decreased efficiency and generating of PV
system. Distance of between PV arrays and length of
shadow is changed according to position of solar.
Therefore, this paper proposes the back-tracking method
which is not shaded to a PV module using azimuth and
altitude of solar. The proposed method calculates distance
of between PV arrays using azimuth of solar, and calculates
shadow length of PV array using altitude of solar. The
proposed method calculates distance of between PV arrays
using azimuth of solar, and calculates shadow length of PV
array using altitude of solar and then compares with the
distance of between PV arrays and the shadow length.
When the shadow length is longer than the distance
between arrays, the algorithm adjusts altitude of array to
avoid the shadow influence.
Tracking system applying the proposed method in this
paper is compared with conventional tracking system about
AC power and generating in radiation changing condition.
The proposed system is higher power generation
(6.86[kW] a day and 123[kW] a month) than conventional
system. Therefore, the validity of the shadow
compensation algorithm proposed in the paper was verified.
shadow influence in order to improve the efficiency of PV
system. If distance of between PV arrays is not enough,
shadow can be occurred to PV module. The influence of
this shadow is decreased efficiency and generating of PV
system. Distance of between PV arrays and length of
shadow is changed according to position of solar.
Therefore, this paper proposes the back-tracking method
which is not shaded to a PV module using azimuth and
altitude of solar. The proposed method calculates distance
of between PV arrays using azimuth of solar, and calculates
shadow length of PV array using altitude of solar. The
proposed method calculates distance of between PV arrays
using azimuth of solar, and calculates shadow length of PV
array using altitude of solar and then compares with the
distance of between PV arrays and the shadow length.
When the shadow length is longer than the distance
between arrays, the algorithm adjusts altitude of array to
avoid the shadow influence.
Tracking system applying the proposed method in this
paper is compared with conventional tracking system about
AC power and generating in radiation changing condition.
The proposed system is higher power generation
(6.86[kW] a day and 123[kW] a month) than conventional
system. Therefore, the validity of the shadow
compensation algorithm proposed in the paper was verified.
0/5000
这份文件提出了一个跟踪系统考虑
阴影影响提高光伏效率
系统。如果光伏阵列之间的距离是不够的
阴影可以发生到光伏模块。影响
这个阴影是降低的效率和光伏发电
系统。光伏阵列和的长度之间的距离
阴影更改位置的太阳能.
因此，本文提出的后面跟踪方法
不是阴影对光伏模块使用方位和
的太阳高度。所提出的方法计算距离
的之间光伏阵列使用太阳能、 方位和计算
影使用海拔高度的太阳能光伏数组的长度。
提议方法计算光伏阵列之间的距离
使用太阳能、 方位和计算阴影长度的 PV
数组使用太阳能的高度，然后比较与
光伏阵列和阴影长度之间的距离
当阴影长度大于距离
之间的数组，该算法将调整到数组的高度
避免阴影的影响。
跟踪系统应用所提出的方法在这
纸相比常规跟踪系统约
交流电源并产生辐射变化条件。
拟议的系统是较高的发电
(6.86 [kW] 一天和 123 [kW] 一个月) 比常规
系统。因此，阴影的有效性
文件中提出的补偿算法已经过验证。
阴影影响提高光伏效率
系统。如果光伏阵列之间的距离是不够的
阴影可以发生到光伏模块。影响
这个阴影是降低的效率和光伏发电
系统。光伏阵列和的长度之间的距离
阴影更改位置的太阳能.
因此，本文提出的后面跟踪方法
不是阴影对光伏模块使用方位和
的太阳高度。所提出的方法计算距离
的之间光伏阵列使用太阳能、 方位和计算
影使用海拔高度的太阳能光伏数组的长度。
提议方法计算光伏阵列之间的距离
使用太阳能、 方位和计算阴影长度的 PV
数组使用太阳能的高度，然后比较与
光伏阵列和阴影长度之间的距离
当阴影长度大于距离
之间的数组，该算法将调整到数组的高度
避免阴影的影响。
跟踪系统应用所提出的方法在这
纸相比常规跟踪系统约
交流电源并产生辐射变化条件。
拟议的系统是较高的发电
(6.86 [kW] 一天和 123 [kW] 一个月) 比常规
系统。因此，阴影的有效性
文件中提出的补偿算法已经过验证。
正在翻譯中..
This paper proposes a tracking system considering a
shadow influence in order to improve the efficiency of PV
system. If distance of between PV arrays is not enough,
shadow can be occurred to PV module. The influence of
this shadow is decreased efficiency and generating of PV
system. Distance of between PV arrays and length of
shadow is changed according to position of solar.
Therefore, this paper proposes the back-tracking method
which is not shaded to a PV module using azimuth and
altitude of solar. The proposed method calculates distance
of between PV arrays using azimuth of solar, and calculates
shadow length of PV array using altitude of solar. The
proposed method calculates distance of between PV arrays
using azimuth of solar, and calculates shadow length of PV
array using altitude of solar and then compares with the
distance of between PV arrays and the shadow length.
When the shadow length is longer than the distance
between arrays, the algorithm adjusts altitude of array to
avoid the shadow influence.
Tracking system applying the proposed method in this
paper is compared with conventional tracking system about
AC power and generating in radiation changing condition.
The proposed system is higher power generation
(6.86[kW] a day and 123[kW] a month) than conventional
system. Therefore, the validity of the shadow
compensation algorithm proposed in the paper was verified.
shadow influence in order to improve the efficiency of PV
system. If distance of between PV arrays is not enough,
shadow can be occurred to PV module. The influence of
this shadow is decreased efficiency and generating of PV
system. Distance of between PV arrays and length of
shadow is changed according to position of solar.
Therefore, this paper proposes the back-tracking method
which is not shaded to a PV module using azimuth and
altitude of solar. The proposed method calculates distance
of between PV arrays using azimuth of solar, and calculates
shadow length of PV array using altitude of solar. The
proposed method calculates distance of between PV arrays
using azimuth of solar, and calculates shadow length of PV
array using altitude of solar and then compares with the
distance of between PV arrays and the shadow length.
When the shadow length is longer than the distance
between arrays, the algorithm adjusts altitude of array to
avoid the shadow influence.
Tracking system applying the proposed method in this
paper is compared with conventional tracking system about
AC power and generating in radiation changing condition.
The proposed system is higher power generation
(6.86[kW] a day and 123[kW] a month) than conventional
system. Therefore, the validity of the shadow
compensation algorithm proposed in the paper was verified.
正在翻譯中..
本文提出了一种跟踪系统考虑为一个
阴影的影响
提高光伏系统效率。如果光伏阵列之间的距离是不够的，
影子可以发生在光伏模块。
阴影的影响降低的效率和光伏
系统生成。
阴影的光伏阵列和长度之间的距离是根据位置的太阳能
因此改变，本文提出了追踪不到使用
阴影方位和高度的太阳能光伏模块的方法
。所提出的方法计算距离
使用太阳能光伏阵列之间的方位角，并计算
使用高度的太阳能光伏阵列的影子的长度。该方法计算出的
光伏阵列的
用方位角太阳之间的距离，并计算PV
影子的长度利用高度的太阳能电池阵列然后与
距离的光伏阵列和阴影的长度之间的比较。
当影子的长度比数组之间的距离
再调整算法，海拔阵列
避免阴影的影响。
跟踪系统所提出的方法在这
纸应用与传统的跟踪系统关于
相比交流功率和辐射变化的条件下产生的。
所提出的系统具有更高的发电
（6.86 [瓦]一天123 [千瓦]一个月）比传统的
系统。因此，在本文提出的阴影
补偿算法的有效性进行了验证。
阴影的影响
提高光伏系统效率。如果光伏阵列之间的距离是不够的，
影子可以发生在光伏模块。
阴影的影响降低的效率和光伏
系统生成。
阴影的光伏阵列和长度之间的距离是根据位置的太阳能
因此改变，本文提出了追踪不到使用
阴影方位和高度的太阳能光伏模块的方法
。所提出的方法计算距离
使用太阳能光伏阵列之间的方位角，并计算
使用高度的太阳能光伏阵列的影子的长度。该方法计算出的
光伏阵列的
用方位角太阳之间的距离，并计算PV
影子的长度利用高度的太阳能电池阵列然后与
距离的光伏阵列和阴影的长度之间的比较。
当影子的长度比数组之间的距离
再调整算法，海拔阵列
避免阴影的影响。
跟踪系统所提出的方法在这
纸应用与传统的跟踪系统关于
相比交流功率和辐射变化的条件下产生的。
所提出的系统具有更高的发电
（6.86 [瓦]一天123 [千瓦]一个月）比传统的
系统。因此，在本文提出的阴影
补偿算法的有效性进行了验证。
正在翻譯中..
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