WO2018210029A1 - 一种可通过图像识别进行手表对时的系统及对时方法 - Google Patents
一种可通过图像识别进行手表对时的系统及对时方法 Download PDFInfo
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- WO2018210029A1 WO2018210029A1 PCT/CN2018/077701 CN2018077701W WO2018210029A1 WO 2018210029 A1 WO2018210029 A1 WO 2018210029A1 CN 2018077701 W CN2018077701 W CN 2018077701W WO 2018210029 A1 WO2018210029 A1 WO 2018210029A1
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- Prior art keywords
- time
- watch
- pointer
- mobile phone
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- G—PHYSICS
- G04—HOROLOGY
- G04R—RADIO-CONTROLLED TIME-PIECES
- G04R20/00—Setting the time according to the time information carried or implied by the radio signal
-
- G—PHYSICS
- G06—COMPUTING OR CALCULATING; COUNTING
- G06V—IMAGE OR VIDEO RECOGNITION OR UNDERSTANDING
- G06V10/00—Arrangements for image or video recognition or understanding
- G06V10/10—Image acquisition
Definitions
- the present invention relates to a system for watch and a method of time, particularly when the method relates to a system for watch and by image recognition.
- the current watch is usually observed by the human eye, and if there is a difference with the network time, manual adjustment is performed.
- the method of automatic timing is generally limited to electronic watches. The reason is that the watch of the quartz movement or the mechanical movement is mechanically controlled, and there is no feedback on the position of the pointer relative to the dial. Therefore, even if a smart module is installed for the quartz movement or the mechanical movement, it is impossible to know where the current pointer is. .
- the present invention provides a controller in a wristwatch having a stepping motor, and determines the position of the pointer by externally acquiring an image, thereby adjusting the time.
- the technical solution of the present invention is as follows:
- a system for performing watch time alignment by image recognition comprising a watch, the watch comprising a movement, the movement comprising a pointer and a dial, the pointer being connected to a stepper motor, the movement further comprising a controller connected to the stepping motor; the system further comprising a mobile phone, the mobile phone comprising image analysis software, the image analysis software can open a camera of the mobile phone, take a photo of the dial of the movement, and Taking the image obtained by the photographing for analysis to obtain the display time of the dial; the mobile phone includes a microprocessor, and the image analyzing software may call the microprocessor to compare the display time with the actual time of the image acquisition, Deriving a time difference; the mobile phone may send the time difference to the watch through a wireless communication module, the controller accepting a time difference sent from the mobile phone, and adjusting the pointer; the mobile phone and the watch Each includes a wireless communication module, a wireless communication module of the mobile phone and the watch, and a pairing connection.
- the mobile phone includes a storage module
- the image analysis software may record the actual time t1 when the photographing is taken and analyze the display time t2, and store the actual time t1 and the display time t2 to the storage.
- a time threshold T is set in the controller, and after receiving the time difference ⁇ t transmitted by the mobile phone, the controller controls the stepping motor to adjust the physical pointer, and starts timing at the same time.
- the adjusted adjustment amount is ⁇ t+T.
- the controller controls the physical pointer to stop rotating until the controller counts the time threshold T, The physical pointer begins to rotate again.
- the controller starts counting from 2 according to the natural number, and counts every other time threshold T. And the adjustment amount is increased by T every other time threshold T; if the stepping motor controls the physical pointer to complete the increased adjustment amount, the count value of the count is N, then the controller controls the entity The pointer stops rotating until the controller counts to the Nth time threshold T, and the physical pointer begins to rotate again.
- a timing method according to the above system, characterized in that the method comprises the following steps:
- Step 1 performing image acquisition on the dial of the watch
- Step 2 analyzing the acquired image to obtain a display time of the dial when the image is acquired;
- Step 3 comparing the display time in the second step with the actual time of the image acquired in the first step, and obtaining a time difference
- step four the pointer of the watch is adjusted according to the time difference in the third step.
- the image analysis software analyzes the image, analyzes the position of the physical pointer on the watch dial at the time t1, and obtains the display time t2 of the watch when the image is acquired.
- a time threshold T is set in the controller, and in the step 4, the time difference ⁇ t obtained in the third step is sent to the controller (via a communication module), and the controller controls the The stepping motor adjusts the physical pointer and starts timing at the same time, and the adjustment amount of the adjustment is ⁇ t+T.
- stepper motor controls the physical pointer to complete the adjustment amount within the time threshold T
- the controller controls the entity pointer to stop rotating until the controller counts the time threshold T, the entity The pointer starts to turn again.
- the controller starts counting from 2 according to the natural number, and counts every other time threshold T, and every a time threshold T is increased by T; if the stepping motor controls the physical pointer to complete the increased adjustment amount, the count value of the count is N, the controller controls the physical pointer to stop rotating Until the controller counts to the Nth time threshold T (ie, the time of NT), the physical pointer begins to rotate again.
- the user only needs to take a picture of the dial with a mobile phone, and transmits the processed data to the watch, and the watch can automatically adjust the time.
- Figure 1 is a schematic illustration of the system of the present invention.
- a system for performing watch time alignment by image recognition comprising a watch, the watch comprising a movement, the movement comprising a pointer and a dial, the pointer being connected to a stepping motor,
- the movement further includes a controller coupled to the stepper motor;
- the system further comprising a handset, the handset including image analysis software, the image analysis software being capable of turning on the camera of the handset, the movement
- the dial is photographed, and the image acquired by the photograph is analyzed to obtain a display moment of the dial;
- the mobile phone includes a microprocessor, and the image analysis software may call the microprocessor to display the time and the image
- the obtained actual time is compared to obtain a time difference;
- the mobile phone may send the time difference to the watch through a wireless communication module, and the controller accepts a time difference sent from the mobile phone, and the pointer may be adjusted.
- the mobile phone includes a storage module, and the image analysis software may record the actual time t1 when the photographing is taken and analyze the display time t2, and store the actual time t1 and the display time t2 to the storage. Module.
- the mobile phone and the watch each comprise a wireless communication module, and the wireless communication module of the mobile phone and the watch are connected with a pair.
- a time threshold T is set in the controller, and after receiving the time difference ⁇ t transmitted by the mobile phone, the controller controls the stepping motor to adjust the physical pointer, and starts timing at the same time.
- the adjusted adjustment amount is ⁇ t+T.
- the controller controls the physical pointer to stop rotating until the controller counts the time threshold T, The physical pointer begins to rotate again.
- the controller starts counting from 2 according to the natural number, and counts every other time threshold T. And the adjustment amount is increased by T every other time threshold T; if the stepping motor controls the physical pointer to complete the increased adjustment amount, the count value of the count is N, then the controller controls the entity The pointer stops rotating until the controller counts to the Nth time threshold T, and the physical pointer begins to rotate again.
- the timing method of the above system is as follows:
- the method includes the following steps:
- Step 1 performing image acquisition on the dial of the watch
- Step 2 analyzing the acquired image to obtain a display time of the dial when the image is acquired;
- Step 3 comparing the display time in the second step with the actual time of the image acquired in the first step, and obtaining a time difference
- step four the pointer of the watch is adjusted according to the time difference in the third step.
- the image of the dial is acquired by using a mobile phone, and the actual time when the image is acquired is recorded, and the time t1 is recorded.
- the image of the dial is acquired by using image analysis software of the mobile phone, and the image analysis software can record the actual time when the image is acquired, and record the time t1.
- the image analysis software may analyze the image, analyze the position of the physical pointer on the watch dial at the time t1, and obtain the display time of the watch when the image is acquired. T2.
- the watch includes a movement, the movement includes the pointer, the pointer is a physical pointer, the solid pointer is connected to a stepping motor, and the movement further includes a control connected to the stepping motor Device.
- a time threshold T is set in the controller, and in the step 4, the time difference ⁇ t obtained in the third step is sent to the controller (via a communication module), and the controller controls the The stepping motor adjusts the physical pointer and starts timing at the same time, and the adjustment amount of the adjustment is ⁇ t+T.
- the controller controls the physical pointer to stop rotating until the controller counts the time threshold T, The physical pointer begins to rotate again.
- the controller starts counting from 2 according to the natural number, and counts every other time threshold T. And the adjustment amount is increased by T every other time threshold T; if the stepping motor controls the physical pointer to complete the increased adjustment amount, the count value of the count is N, then the controller controls the entity The pointer stops rotating until the controller counts to the Nth time threshold T (i.e., the time of NT), and the physical pointer begins to rotate again.
- Nth time threshold T i.e., the time of NT
- the image analysis software uses the image analysis software of the mobile phone to take a picture of the watch's dial, the image analysis software not only acquires the image of the dial, but also records the actual time t1 of the photograph, such as t1 is 5:3:20, and stores the actual time t1 in In the storage module of the phone.
- the image analysis software analyzes the acquired image to obtain a display time t2 of the dial, such as t2 is 5:2:55, and the display time t2 is stored in the storage module of the mobile phone.
- the mobile phone transmits the time difference of 25s to the watch through the wireless communication module, and after receiving the time difference, the controller of the watch adjusts the pointer and starts timing from 0 at the same time.
- the controller controls the pointer to stop rotating until the timing reaches the time threshold T.
- the image analysis software uses the image analysis software of the mobile phone to take a picture of the watch's dial, the image analysis software not only acquires the image of the dial, but also records the actual time t1 of the photograph, such as t1 is 5:3:20, and stores the actual time t1 in In the storage module of the phone.
- the image analysis software analyzes the acquired image to obtain a display time t2 of the dial, such as t2 is 5:5:20, and the display time t2 is stored in the storage module of the mobile phone.
- the mobile phone transmits the time difference of 25s to the watch through the wireless communication module, and after receiving the time difference, the controller of the watch adjusts the pointer and starts timing from 0 at the same time.
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Abstract
一种可通过图像识别进行手表对时的系统,包括手表,手表包括机芯,机芯包括指针和表盘,指针连接步进电机,机芯还包括与步进电机连接的控制器;所述系统还包括手机,手机包括图像分析软件,图像分析软件可开启手机的摄像头,对机芯的表盘进行拍照,且对拍照获取的图像进行分析,得出表盘的显示时刻;手机包括微处理器,图像分析软件可调用微处理器对所述显示时刻与所述图像获取的实际时间进行比较,得出时间差;手机可将所述时间差通过无线通讯模块发送至手表,控制器接受来自手机发送的时间差,可对指针进行调整。通过该系统,用户仅仅只需要用手机对表盘进行拍照,将处理后的数据传输给手表,手表即可自动进行对时调整。还提供一种通过图像识别进行手表对时的方法。
Description
本发明涉及一种手表对时的
系统及对时方法,特别涉及一种通过图像识别进行手表对时的
系统及对时方法。
目前的手表对时一般通过人眼观察,若与网络时间存在差异,则进行人工调整。随着智能设备的兴起,逐渐有了自动对时的方法,但是自动对时的方法一般仅限于电子表。原因在于石英机芯或者机械机芯的手表属于机械控制,对于指针相对于表盘的位置没有反馈,因此即使给石英机芯或者机械机芯安装一个智能模块,但是无法得知目前指针指在什么位置。
目前的手表很难通过自身的反馈获取其物理指针的物理位置。
本发明为了解决上述技术问题,在具有步进电机的手表中设置一个控制器,通过外部获取图像的方式判断指针的位置,从而进行时间的调整。本发明的技术方案如下:
一种可通过图像识别进行手表对时的系统,所述系统包括手表,所述手表包括机芯,所述机芯包括指针和表盘,所述指针连接步进电机,所述机芯还包括与所述步进电机连接的控制器;所述系统还包括手机,所述手机包括图像分析软件,所述图像分析软件可开启所述手机的摄像头,对所述机芯的表盘进行拍照,且对拍照获取的图像进行分析,得出表盘的显示时刻;所述手机包括微处理器,所述图像分析软件可调用所述微处理器对所述显示时刻与所述图像获取的实际时间进行比较,得出时间差;所述手机可将所述时间差通过无线通讯模块发送至所述手表,所述控制器接受来自所述手机发送的时间差,可对所述指针进行调整;所述手机和所述手表均包括无线通讯模块,所述手机和所述手表的无线通讯模块和配对连接。
进一步地,所述手机包括存储模块,所述图像分析软件可记录所述拍照时的实际时间t1且分析出所述显示时刻t2,并将所述实际时间t1和显示时刻t2存储至所述存储模块;所述图像分析软件可调用所述微处理器对所述实际时间t1和显示时刻t2的时间差Δt=t1-t2进行计算,经将计算结果时间差Δt存储至所述存储模块。
进一步地,所述控制器中设置有时间阈值T,所述控制器接收到所述手机传输的所述时间差Δt后,控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
进一步地,若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
进一步地,若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T,所述实体指针再次开始转动。
一种根据上述的系统的对时方法,其特征在于,所述方法包括如下步骤:
步骤一,对所述手表的表盘进行图像获取;
步骤二,对所述获取的图像进行分析,得出所述表盘在被进行图像获取时的显示时刻;
步骤三,对所述步骤二中的显示时刻与所述步骤一中图像获取的实际时间进行比较,得出时间差;
步骤四,根据所述步骤三中的时间差,对所述手表的指针进行调整。
进一步地,在所述步骤二中,所述图像分析软件对所述图像进行分析,分析所述手表表盘上实体指针在所述时刻t1的位置,得出图像获取时所述手表的显示时刻t2;在所述步骤三种,所述图像分析软件计算出所述时间差Δt=t1-t2。
进一步地,所述控制器中设置时间阈值T,在所述步骤四中,将所述步骤三中得出的时间差Δt输送至(通过通讯模块)所述控制器,所述控制器控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T(即NT的时间),所述实体指针再次开始转动。
通过上述的技术方案,用户仅仅只需要用手机对表盘进行拍照,将处理后的数据传输给手表,手表即可自动进行对时调整。
通过参照附图详细描述其示例实施例,本发明的上述和其它目标、特征及优点将变得更加显而易见。
附图1为本发明的系统的示意图。
现在将参考附图更全面地描述示例实施方式。然而,示例实施方式能够以多种形式实施,且不应被理解为限于在此阐述的范例;相反,提供这些实施方式使得本发明将更加全面和完整,并将示例实施方式的构思全面地传达给本领域的技术人员。附图仅为本发明的示意性图解,并非一定是按比例绘制。图中相同的附图标记表示相同或类似的部分,因而将省略对它们的重复描述。
此外,所描述的特征、结构或特性可以以任何合适的方式结合在一个或更多实施方式中。在下面的描述中,提供许多具体细节从而给出对本发明的实施方式的充分理解。然而,本领域技术人员将意识到,可以实践本发明的技术方案而省略所述特定细节中的一个或更多,或者可以采用其它的方法、组元、装置、步骤等。在其它情况下,不详细示出或描述公知结构、方法、装置、实现或者操作以避免喧宾夺主而使得本发明的各方面变得模糊。
如附图1所示,一种可通过图像识别进行手表对时的系统,所述系统包括手表,所述手表包括机芯,所述机芯包括指针和表盘,所述指针连接步进电机,所述机芯还包括与所述步进电机连接的控制器;所述系统还包括手机,所述手机包括图像分析软件,所述图像分析软件可开启所述手机的摄像头,对所述机芯的表盘进行拍照,且对拍照获取的图像进行分析,得出表盘的显示时刻;所述手机包括微处理器,所述图像分析软件可调用所述微处理器对所述显示时刻与所述图像获取的实际时间进行比较,得出时间差;所述手机可将所述时间差通过无线通讯模块发送至所述手表,所述控制器接受来自所述手机发送的时间差,可对所述指针进行调整。
进一步地,所述手机包括存储模块,所述图像分析软件可记录所述拍照时的实际时间t1且分析出所述显示时刻t2,并将所述实际时间t1和显示时刻t2存储至所述存储模块。
进一步地,所述图像分析软件可调用所述微处理器对所述实际时间t1和显示时刻t2的时间差Δt=t1-t2进行计算,经将计算结果时间差Δt存储至所述存储模块。
进一步地,所述手机和所述手表均包括无线通讯模块,所述手机和所述手表的无线通讯模块和配对连接。
进一步地,所述控制器中设置有时间阈值T,所述控制器接收到所述手机传输的所述时间差Δt后,控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
进一步地,若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
进一步地,若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T,所述实体指针再次开始转动。
上述系统的对时方法如下:
,所述方法包括如下步骤:
步骤一,对所述手表的表盘进行图像获取;
步骤二,对所述获取的图像进行分析,得出所述表盘在被进行图像获取时的显示时刻;
步骤三,对所述步骤二中的显示时刻与所述步骤一中图像获取的实际时间进行比较,得出时间差;
步骤四,根据所述步骤三中的时间差,对所述手表的指针进行调整。
进一步地,在所述步骤一中,利用手机获取所述表盘的图像,记录获取图像时的实际时间,记做时刻t1。
进一步地,在所述步骤一中,利用所述手机的图像分析软件获取所述表盘的图像,所述图像分析软件可记录获取图像时的实际时间,并记做时刻t1。
进一步地,在所述步骤二中,所述图像分析软件可对所述图像进行分析,分析所述手表表盘上实体指针在所述时刻t1的位置,得出图像获取时所述手表的显示时刻t2。
进一步地,所述图像分析软件计算出所述时间差Δt=t1-t2。
进一步地,所述手表包括机芯,所述机芯包括所述指针,所述指针为实体指针,所述实体指针连接步进电机,所述机芯还包括与所述步进电机连接的控制器。
进一步地,所述控制器中设置时间阈值T,在所述步骤四中,将所述步骤三中得出的时间差Δt输送至(通过通讯模块)所述控制器,所述控制器控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
进一步地,若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
进一步地,若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T(即NT的时间),所述实体指针再次开始转动。
下面通过实施例描述该系统的运行:
实施例1:
利用手机的图像分析软件对手表的表盘进行拍照,该图像分析软件除了获取表盘的图像外,同时记录拍照的实际时间t1,如t1为5时3分20秒,并将该实际时间t1存储在手机的存储模块中。
图像分析软件对获取的图像进行分析,得出表盘的显示时间t2,如t2为5时2分55秒,并该该显示时间t2存储在所述手机的存储模块中。
所述图像分析软件计算时间差Δt=t1-t2=25秒。
手机通过无线通讯模块将该时间差25s传输至手表,手表的控制器接收到该时间差后,对指针进行调整,并同时开始从0计时。控制器中存储时间阈值T=30秒,那么调整量为Δt+T,即55s,55s为正值,那么将表盘指针向前(顺时针)旋转55s。
当调整完毕时,若上述从0计时的时间在所述时间阈值30s内,则控制器控制指针停止旋转,直至所述计时达到所述时间阈值T。
实施例2:
利用手机的图像分析软件对手表的表盘进行拍照,该图像分析软件除了获取表盘的图像外,同时记录拍照的实际时间t1,如t1为5时3分20秒,并将该实际时间t1存储在手机的存储模块中。
图像分析软件对获取的图像进行分析,得出表盘的显示时间t2,如t2为5时5分20秒,并该该显示时间t2存储在所述手机的存储模块中。
所述图像分析软件计算时间差Δt=t1-t2=-120秒。
手机通过无线通讯模块将该时间差25s传输至手表,手表的控制器接收到该时间差后,对指针进行调整,并同时开始从0计时。控制器中存储时间阈值T=30秒,那么调整量为Δt+T,即-90s,-90s为负值,那么将表盘指针向后(逆时针)旋转90s。
若计时器从0计时到30s,仍然未调整完璧,则所述控制器启动所述计数器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加30s,若计数器计数值为5时,调整完毕,此时的调整量为-120s+5*30=30,即最后的实际调整量为30s。调整完后,控制器控制指针停止,直至所述计时到5*30s=150s,控制器再控制指针继续旋转。
最后应说明的是:以上各实施例仅用以说明本发明的技术方案,而非对其限制;尽管参照前述各实施例对本发明进行了详细的说明,本领域的普通技术人员应当理解:其依然可以对前述各实施例所记载的技术方案进行修改,或者对其中部分或者全部技术特征进行等同替换;而这些修改或者替换,并不使相应技术方案的本质脱离本发明各实施例技术方案的范围。
Claims (10)
- 一种可通过图像识别进行手表对时的系统,所述系统包括手表,所述手表包括机芯,所述机芯包括指针和表盘,所述指针连接步进电机,所述机芯还包括与所述步进电机连接的控制器;所述系统还包括手机,所述手机包括图像分析软件,所述图像分析软件可开启所述手机的摄像头,对所述机芯的表盘进行拍照,且对拍照获取的图像进行分析,得出表盘的显示时刻;所述手机包括微处理器,所述图像分析软件可调用所述微处理器对所述显示时刻与所述图像获取的实际时间进行比较,得出时间差;所述手机可将所述时间差通过无线通讯模块发送至所述手表,所述控制器接受来自所述手机发送的时间差,可对所述指针进行调整;所述手机和所述手表均包括无线通讯模块,所述手机和所述手表的无线通讯模块和配对连接。
- 根据权利要求1所述的系统,其特征在于,所述手机包括存储模块,所述图像分析软件可记录所述拍照时的实际时间t1且分析出所述显示时刻t2,并将所述实际时间t1和显示时刻t2存储至所述存储模块;所述图像分析软件可调用所述微处理器对所述实际时间t1和显示时刻t2的时间差Δt=t1-t2进行计算,经将计算结果时间差Δt存储至所述存储模块。
- 根据权利要求2所述的系统,其特征在于,所述控制器中设置有时间阈值T,所述控制器接收到所述手机传输的所述时间差Δt后,控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
- 根据权利要求3所述的系统,其特征在于,若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
- 根据权利要求3所述的系统,其特征在于,若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T,所述实体指针再次开始转动。
- 一种根据权利要求1-5任一项所述的系统的对时方法,其特征在于,所述方法包括如下步骤:步骤一,对所述手表的表盘进行图像获取;步骤二,对所述获取的图像进行分析,得出所述表盘在被进行图像获取时的显示时刻;步骤三,对所述步骤二中的显示时刻与所述步骤一中图像获取的实际时间进行比较,得出时间差;步骤四,根据所述步骤三中的时间差,对所述手表的指针进行调整。
- 根据权利要求6所述的对时方法,其特征在于,在所述步骤二中,所述图像分析软件对所述图像进行分析,分析所述手表表盘上实体指针在所述时刻t1的位置,得出图像获取时所述手表的显示时刻t2;在所述步骤三种,所述图像分析软件计算出所述时间差Δt=t1-t2。
- 根据权利要求7所述的对时方法,其特征在于,所述控制器中设置时间阈值T,在所述步骤四中,将所述步骤三中得出的时间差Δt输送至(通过通讯模块)所述控制器,所述控制器控制所述步进电机对所述实体指针进行调整,并同时开始计时,调整的调整量为Δt+T。
- 根据权利要求8所述的对时方法,其特征在于,若在时间阈值T内,所述步进电机控制所述实体指针完成所述调整量,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到时间阈值T,所述实体指针再次开始转动。
- 根据权利要求8所述的对时方法,其特征在于,若在所述时间阈值T内,所述步进电机控制所述实体指针未完成所述调整量,则所述控制器从2按照自然数开始计数,每隔一个时间阈值T计数一次,且每隔一个时间阈值T所述调整量增加T;若所述步进电机控制所述实体指针完成增加后的调整量时所述计数的计数值为N,则所述控制器控制所述实体指针停止转动,直到所述控制器计时到第N个时间阈值T,所述实体指针再次开始转动。
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