TWM457364U - Portable solar wireless monitor - Google Patents

Description

Portable solar wireless monitor

This creation is about a monitor, especially a portable solar wireless monitor.

In general, most indoor and outdoor monitors require extra wiring (for example, power cables and video cables). Therefore, when setting up the monitor, the constructor is bound to pull the power cord and consider the wiring. The length and the surrounding conditions, in other words, the action of simply setting the monitor, is often limited by the influence of the wiring, increasing the complexity of the construction and the high labor cost.

Therefore, how to provide a kind of monitor through a means or mechanism to change the traditional dependence on the power supply to reduce the complexity of wiring construction, thereby reducing the cost and increasing the flexibility of the position of the monitor, has become the goal of the relevant manufacturers.

In view of the above shortcomings and creative motives, the creator has made every effort to finally develop this creation. One of the areas of this creation is to provide a portable solar wireless monitor that integrates solar power systems, monitoring systems and wireless transmission systems to achieve portable and ready-to-use functionality.

Another area of the creation is to provide a portable solar wireless monitor that passes through an independent cycle power supply system, eliminating the need for power distribution at the installation location and reducing the cost of setting up the monitor.

According to one embodiment disclosed in the present creation, portable solar wireless monitoring The visual device includes a photovoltaic module, a power module, a monitoring module and a wireless transmission module. The photovoltaic module is used to convert a light energy into a DC voltage. The power module connects the photovoltaic module and obtains the DC voltage from the photovoltaic module. The monitoring module is connected to the power module, and captures at least one image data according to the surrounding environment information. The wireless transmission module is respectively connected to the power module and the monitoring module, and sends the image data to a remote host, and sends at least one prompt according to the operating state of the power module and the monitoring module. Signal to the remote host.

Therefore, according to the structure disclosed above, the portable solar wireless monitor of the present invention achieves self-sufficient energy and wireless transmission through the power generation of the solar power, so that the creation does not need to additionally consider the wiring required for power or signal transmission. In addition to increasing the convenience of installation settings, it also reduces the cost of installation.

The present invention will be described in detail only by way of examples.

Please refer to FIG. 1 , which is a schematic diagram of an embodiment of a portable portable solar wireless monitor. In this embodiment, the portable solar wireless monitor includes a photovoltaic module 10, a power module 20, a monitoring module 30, and a wireless transmission module 40. The photovoltaic module 10 is configured to convert a light energy into a DC voltage. The power module 20 is coupled to the photovoltaic module 10 and obtains the DC voltage from the photovoltaic module 10 . The monitoring module 30 is connected to the power module 20 and captures at least one image data according to the surrounding environment information. The wireless transmission module 40 is connected to the power module 20 and the monitoring module 30 for transmitting the image data to a remote host 50, and according to the power module 20 and one of the monitoring modules 30, and sending at least one prompt signal to the remote host 50.

The power module 20 includes a power storage unit 200, a processor 210, and a memory unit 220. The power storage unit 200 stores the DC voltage converted by the photovoltaic module 10, and supplies the DC voltage to the power module. The group 20 itself, the monitoring module 30 and the wireless transmission module 40.

The processor 210 monitors the operating state of the power storage unit 200 and the monitoring module 30. When the operating state is abnormal, the processor 210 drives the wireless transmission module 40 to cause the wireless transmission module 40 to send a prompt. The signal is sent to the remote host 50 to notify the remote engineering maintenance team to come to the processing.

For example, when the processor 210 does not detect the image data captured by the monitoring module 30 for a predetermined period of time, the processor 210 sends a prompt signal to the remote transmission module 40. The end host 50 or a receiving device such as a mobile phone allows the remote control personnel to know that the lens or other components of the monitoring module 30 have failed, resulting in no image data capture. In this way, maintenance personnel can instantly grasp the operation status of the monitor, especially in remote or mountainous monitors, which greatly reduces the maintenance cost.

The memory unit 220 is configured to store the image data captured by the monitoring module 30 and the operating state of the power module 20 and the monitoring module 30.

The wireless transmission module 40 obtains the image data or the prompt signal from the memory unit 220, and the image data or the prompt signal is transmitted by WiFi or WiMax (wireless area network) wireless transmission, or uses other IEEE 802 compliant. The transmission of the wireless transmission specification.

According to this, the user can access the image through the mobile phone through the network connection, which is more convenient and instant than the traditional monitor. In addition, the user can perform bidirectional data transmission through the wireless transmission module 40 and the processor 210 to indirectly control the shooting angle of the monitoring module 30.

In another embodiment, the monitoring module 30 can be a conventional conventional monitor, and the power module 20 and the photovoltaic module 10 are connected by an external line. The processor 210 of the power module 20 receives the image data. And storing in the memory unit 220 according to a processing rule for the wireless transmission module 40 to perform a subsequent transmission operation (for example, compressing the captured image data). In addition, the photovoltaic module 10 can be disposed on or integrated with the outer casing of the monitoring module 30 to form an outer surface of the monitoring module.

Moreover, the processor 210 further includes a control mode to adjust the working time of the power module 20, the monitoring module 30 or the wireless transmission module 40 according to the usage requirement. For example, since the power source of the portable portable solar wireless monitor is derived from solar energy, the processor 210 can control the wireless transmission module 40 to perform high data volume transmission during the daytime to ensure sufficient operating power. The frequency of the transmission operation is reduced at night time, and even when the stored power of the power storage unit 200 is lower than a threshold, the wireless transmission module 40 is turned off.

Since there is no wiring problem, all conventional power lines or signal lines are replaced by photovoltaic modules and wireless transmission modules, and the power source is not stopped due to line damage or power failure. Therefore, this creation can be carried. In addition to home care, security monitoring or traffic monitoring, solar wireless monitors can also be used to set up on coasts, earth-rock disaster areas or warning bridges. In other regions, it is difficult to install monitors due to power wiring or infrastructure-free telecommunications.

In summary, with the above structure, the present portable wireless solar monitor achieves self-sufficient energy and wireless transmission through the power generation of the solar power, so that the creation does not need to additionally consider the wiring required for power or signal transmission. In addition to increasing the convenience of installation settings, it also reduces the cost of installation and subsequent maintenance.

However, the above descriptions are only preferred embodiments of the present invention. When it is not possible to limit the scope of implementation of this creation, any changes and modifications that are apparent to those skilled in the art will be considered as not Deviate from the essence of this creation.

10‧‧‧Photovoltaic Module

20‧‧‧Power Module

200‧‧‧Power storage unit

210‧‧‧ processor

220‧‧‧ memory unit

30‧‧‧Monitoring module

40‧‧‧Wireless Transmission Module

50‧‧‧Remote host

Figure 1 is a schematic diagram of one embodiment of a creative portable solar wireless monitor.

10‧‧‧Photovoltaic Module

20‧‧‧Power Module

200‧‧‧Power storage unit

210‧‧‧ processor

220‧‧‧ memory unit

30‧‧‧Monitoring module

40‧‧‧Wireless Transmission Module

50‧‧‧Remote host

Claims (6)

A portable solar wireless monitor includes: a photovoltaic module for converting a light energy into a DC voltage; a power module connecting the photovoltaic module and obtaining the DC voltage from the photovoltaic module; a monitoring module that connects the power module and captures at least one image data according to the surrounding environment information; and a wireless transmission module that connects the power module and the monitoring module to send the image data to A remote host sends another at least one prompt signal to the remote host according to the operating state of the power module and the monitoring module. The portable solar radio monitor of claim 1 , wherein the power module further includes: a power storage unit for storing the DC voltage converted by the photovoltaic module, and the DC voltage Provided to the power module itself, the monitoring module and the wireless transmission module; a processor for monitoring the operation state of the power storage unit and the monitoring module; and a memory unit for storing the monitoring module The image data captured and the operating state of the power module and the monitoring module. The portable solar radio monitor of claim 2 , wherein the wireless transmission module acquires the image data or the prompt signal from the memory unit, and transmits the image data in a manner consistent with the IEEE 802 wireless transmission specification. With the prompt signal. The portable solar wireless monitor of claim 2 , wherein when the operating state is abnormal, the processor drives the wireless transmission module, and the wireless transmission module sends the prompt signal to the remote End host. The portable solar wireless monitor of claim 2 , wherein the processor further comprises a control mode, wherein the power module, the monitoring module or the wireless transmission mode is adjusted according to usage requirements by time scheduling. Group of working hours. The portable solar radio monitor of claim 1 , wherein the monitoring module is an independent monitor that connects the power module and the photovoltaic module by an external line.