FTTR terminal equipment attitude monitoring system

Abstract

The embodiment of the invention provides an FTTR terminal equipment attitude monitoring system, and relates to the technical field of FTTR terminal equipment fault monitoring. The FTTR terminal equipment attitude monitoring system comprises a direction sensing sensor which is arranged in FTTR terminal equipment and is used for acquiring data; and the control platform is used for determining the working posture of the FTTR terminal equipment based on the data, and generating an early warning prompt under the condition that the working posture is inconsistent with a preset posture. According to the embodiment of the invention, the problem that the housing is deformed due to the overheating phenomenon of the FTTR terminal equipment which is in an unexpected placement state for a long time in related technologies is solved, and the effect of reducing the failure rate of the FTTR terminal equipment is further achieved.

Description

Technical Field

[0001] The embodiments of the present invention relate to the technical field of fault monitoring of FTTR terminal devices. Specifically, it relates to an attitude monitoring system for FTTR terminal devices. Background Art

[0002] With the rapid development of information technology, the fiber-to-the-home (FTTH) network has become the basis for high-speed data transmission in modern homes and enterprises. On this basis, the home Fiber to the Room (FTTR) products have emerged, aiming to achieve a faster and more stable wireless network coverage by directly connecting each room with optical fibers. Home FTTR products usually include a main gateway and multiple distributed optical fiber routers, which work together through optical fiber links to provide users with a comprehensive network solution. However, the realization of this advanced network architecture not only depends on high-speed optical fiber communication technology but also poses higher requirements for the thermal management of devices.

[0003] In recent years, in order to meet the needs of modern home environments, home FTTR products are gradually developing towards miniaturization and aestheticization. Although this improves the portability and space adaptability of the devices, it also brings challenges to the heat dissipation design. Miniaturized devices mean more compact internal space and denser component layout, which pose higher requirements for the efficiency of the heat dissipation system. Especially with technological progress and function upgrades, the power consumption of home FTTR products continues to increase. For example, the new generation of home FTTR devices may integrate functions such as multi-band Wi-Fi, intelligent gateways, and storage services. These additional functions will significantly increase the power consumption of the devices, thereby exacerbating the heat dissipation pressure.

[0004] Currently, the thermal design of home FTTR products mainly focuses on the normal placement state of the devices, that is, the vertical or horizontal placement methods. At the initial stage of design, manufacturers usually assume that the devices will be placed in a predetermined manner and optimize the heat dissipation structure accordingly. However, in actual applications, users may change the placement method of the devices arbitrarily according to personal preferences or space limitations. For example, a device originally designed to be vertical may be placed horizontally or sideways by the user. Such changes in the placement method often disrupt the original thermal balance state of the devices, resulting in ineffective heat dissipation inside, especially when a vertical device is placed horizontally or sideways. Devices that are in an unexpected placement state for a long time are prone to overheating due to the lack of thermal management optimization for abnormal placement methods, leading to a series of problems. The most direct risk is that the device shell expands due to heat, resulting in physical deformation, which not only affects the appearance of the device but may also cause damage to the internal circuit boards and components, thereby shortening the service life of the device and affecting network performance and user experience. Summary of the Invention

[0005] The embodiment of the present invention provides a FTTR terminal device posture monitoring system, which at least solves the problem in the related art that the FTTR terminal device that is placed in an unexpected state for a long time overheats and causes shell deformation.

[0006] According to one embodiment of the present invention, a FTTR terminal device posture monitoring system is provided, comprising: a direction sensing sensor, arranged in the FTTR terminal device, for collecting data; and a control platform, for determining the working posture of the FTTR terminal device based on the data, and generating an early warning prompt when the working posture is inconsistent with a preset posture.

[0007] The thermal design of traditional household FTTR products is mostly aimed at the normal placement state. In the context of miniaturization of equipment, increased functions and increased power consumption, users can easily destroy the thermal balance by arbitrarily changing the placement mode, causing problems such as overheating and shell deformation. Through the embodiment of the present invention, due to the use of a direction sensing sensor set in the FTTR terminal device to collect data, the control platform determines the working posture of the device based on these data, and generates a technical solution for early warning when the working posture is inconsistent with the preset posture. This technical solution can timely detect the unexpected placement state of the device and issue an early warning, so that the user can adjust the device to the correct posture, ensure the normal operation of the heat dissipation system, prevent the device from overheating, reduce the failure rate, avoid the shell from expanding and deforming due to heat, and damage the internal circuit, ensure network performance and user experience, and effectively respond to the heat dissipation and reliability challenges of household FTTR products under the trend of miniaturization. Therefore, the problem of overheating of FTTR terminal equipment in the related technology that has been in an unexpected placement state for a long time and causes shell deformation is solved, thereby achieving the effect of reducing the failure rate of FTTR terminal equipment. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 Schematic diagram of the structure of the FTTR terminal device posture monitoring system according to an embodiment of the present invention Figure 1 ;

[0009] Figure 2 is a schematic structural diagram of an FTTR terminal device having a direction sensing sensor installed therein according to an embodiment of the present invention at a first viewing angle;

[0010] Figure 3 is a schematic structural diagram of an FTTR terminal device with a direction sensing sensor installed therein according to an embodiment of the present invention at a second viewing angle with a back panel of the FTTR terminal device disassembled;

[0011] Figure 4 is a schematic diagram of the structure of an FTTR terminal device having six direction sensing sensors installed therein according to an embodiment of the present invention;

[0012] Figure 5 Schematic structure of the FTTR terminal device attitude monitoring system according to an embodiment of the present invention Figure 2 ;

[0013] Figure 6 Schematic diagram of the state where the indicator light is lit when the working attitude of the FTTR terminal device is inconsistent with the preset attitude according to an embodiment of the present invention;

[0014] Figure 7 Schematic diagram of the state where the indicator light is not lit when the working attitude of the FTTR terminal device is consistent with the preset attitude according to an embodiment of the present invention;

[0015] Figure 8 Flowchart of the FTTR terminal device attitude monitoring method according to an embodiment of the present invention.

[0016] Explanation of reference numerals: 1, FTTR terminal device; 2, direction sensing sensor; 21, first gravity switch; 22, second gravity switch; 23, third gravity switch; 24, fourth gravity switch; 25, fifth gravity switch; 26, sixth gravity switch; 3, control platform; 4, user terminal interface; 5, indicator light; 6, printed circuit board. Detailed implementation manners

[0017] In the following, embodiments of the present invention will be described in detail with reference to the drawings and in conjunction with the embodiments.

[0018] It should be noted that the terms "first", "second", etc. in the description and claims of the present invention and the above-mentioned drawings are used to distinguish similar objects, and do not necessarily need to describe a specific order or sequence.

[0019] In this embodiment, an FTTR terminal device attitude monitoring system is provided. Figure 1 Schematic structure of the FTTR terminal device attitude monitoring system according to an embodiment of the present invention Figure 1 , Figure 2 Schematic diagram of the structure of the FTTR terminal device with a direction sensing sensor installed inside according to an embodiment of the present invention from the first perspective, as shown in Figure 1 and Figure 2 shown, the FTTR terminal device attitude monitoring system includes:

[0020] A direction sensing sensor 2, disposed in the FTTR terminal device 1, for collecting data;

[0021] A control platform 3, for determining the working attitude of the FTTR terminal device 1 based on the data, and generating a warning prompt when the working attitude is inconsistent with the preset attitude.

[0022] In an exemplary embodiment, the direction sensing sensor 2 can be one or more.

[0023] Figure 3 FIG. is a schematic structural diagram of an FTTR terminal device with a direction sensing sensor installed inside according to an embodiment of the present invention from a second perspective and with the back plate of the FTTR terminal device removed, as Figure 2 and Figure 3 shown. For example, the direction sensing sensor 2 is a gyroscope, an acceleration sensor, a gravity sensor, etc. and can be set to only one, and one direction sensing sensor 2 is disposed inside the FTTR terminal device 1 to collect data related to the attitude of the FTTR terminal device 1 by using the direction sensing sensor 2.

[0024] Alternatively, the direction sensing sensor 2 can also be multiple, and multiple direction sensing sensors are respectively installed at different positions inside the FTTR terminal device 1 to collect data related to the attitude of different positions of the FTTR terminal device 1. The control platform 3 receives these data, processes and analyzes these data to determine the working attitude of the FTTR terminal device 1 at this time, that is, the real-time attitude of the FTTR terminal device 1 during operation. And compare this working attitude with a pre-stored preset attitude. When the working attitude is inconsistent with the preset attitude, a warning prompt is generated to remind the installer or user to adjust the attitude of the FTTR terminal device 1 in time. Among them, since the direction sensing sensor 2 is installed inside the FTTR terminal device 1, therefore in Figure 2 the direction sensing sensor 2 is represented by a circular dotted line. In Figure 3 when the back plate of the FTTR terminal device 1 is removed, inside the FTTR terminal device 1, it can be seen that most of the space is used to install the printed circuit board 6, and the area not covered by the printed circuit board 6 can be used to install the direction sensing sensor 2, and in Figure 3 the direction sensing sensor 2 is represented by a circular solid line. So that the direction sensing sensor 2 collects data of the FTTR terminal device 1 inside the FTTR terminal device 1, which will not only not affect the appearance of the FTTR terminal device 1 but also can save the space of the FTTR terminal device 1.

[0025] In one embodiment, the direction sensing sensor 2 includes multiple gravity sensors, and the multiple gravity sensors are respectively located at different positions of the FTTR terminal device 1.

[0026] Figure 4 FIG. is a schematic structural diagram of an FTTR terminal device with six gravity sensors installed inside according to an embodiment of the present invention, as Figure 4As shown, in an exemplary embodiment, for example, there are six gravity sensors, and they can be six gravity switches. For example, they are respectively: the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26, and the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26 are all installed inside the FTTR terminal device 1. Among them, the first gravity switch 21 is installed at the top inside the FTTR terminal device 1, the second gravity switch 22 is installed at the bottom inside the FTTR terminal device 1, the third gravity switch 23 is installed on the left side inside the FTTR terminal device 1, the fourth gravity switch 24 is installed on the right side inside the FTTR terminal device 1, the fifth gravity switch 25 is installed on the front side inside the FTTR terminal device 1, and the sixth gravity switch 26 is installed on the rear side inside the FTTR terminal device 1.

[0027] The thermal design of traditional home FTTR products mostly targets the normal placement state. Against the background of the miniaturization of devices and the increase in functions leading to an increase in power consumption, if users randomly change the placement method, it is easy to disrupt the thermal balance and cause problems such as overheating and deformation of the shell. Through the embodiments of the present invention, since the direction sensing sensor 2 is arranged in the FTTR terminal device 1 to collect data, and the control platform 3 determines the working posture of the device based on these data, and generates a warning prompt when the working posture is inconsistent with the preset posture. This technical solution can timely detect the unexpected placement state of the device and give a warning, enabling users to adjust the device to the correct posture, ensuring the normal operation of the heat dissipation system, preventing the device from overheating, reducing the failure rate, avoiding the shell from expanding and deforming due to heat and internal circuit damage, ensuring network performance and user experience, and effectively coping with the heat dissipation and reliability challenges of home FTTR products under the trend of miniaturization. Therefore, the problem that the FTTR terminal device 1 in the related art has overheating phenomenon and causes the shell to deform when it is in an unexpected placement state for a long time is solved, and further the effect of reducing the failure rate of the FTTR terminal device 1 is achieved.

[0028] In one embodiment, the control platform 3 is further configured to:

[0029] Obtain the first state of the FTTR terminal device 1 after a preset interval time;

[0030] When the first state is that the shell of the FTTR terminal device 1 has not deformed relative to the shell of the FTTR terminal device 1 before the preset interval time, determine the working posture as the preset posture.

[0031] In an exemplary embodiment, when the FTTR terminal device 1 is working, if the heat dissipation effect in the FTTR terminal device 1 is poor when it is in an incorrect posture for a long time, it may cause local overheating and problems such as deformation or melting of the outer shell. Therefore, the control platform 3 is used to obtain the state of the FTTR terminal device 1 in real time or intermittently, for example, detect the first state of the FTTR terminal device 1 after a preset interval time, and compare the outer shell of the FTTR terminal device 1 in the first state with the outer shell of the FTTR terminal device 1 before the preset interval time to determine whether there is deformation or melting of the outer shell in the first state after the preset interval time. For example, if the first state is that there is no deformation or melting of the outer shell, it means that the corresponding working posture of the FTTR terminal device 1 is correct, and then this working posture can be determined as the preset posture. Or, for example, if the first state is that there is deformation or melting of the outer shell, it means that the corresponding working posture of the FTTR terminal device 1 is incorrect and is recorded as an incorrect posture. Among them, the above preset interval time can be set based on the actual situation.

[0032] In one embodiment, the control platform 3 is further configured to: determine the working posture of the FTTR terminal device 1 based on the data collected by multiple gravity sensors.

[0033] In an exemplary embodiment, the control platform 3 collects the data of the top, bottom, left, right, front, and rear sides of the FTTR terminal device 1 based on the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26 respectively, and sends the data of the top, bottom, left, right, front, and rear sides of the FTTR terminal device 1 to the control platform 3, so that the control platform 3 comprehensively determines the working posture of the FTTR terminal device 1 based on the data of the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26.

[0034] Alternatively, although the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26 are installed in the FTTR terminal device 1, the control platform 3 is not limited to determining the working attitude of the FTTR terminal device 1 based on the comprehensive data of the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26. For example, when the bottom of the FTTR terminal device 1 touches the desktop and the attitude is the preset attitude, the working attitude of the FTTR terminal device 1 can also be determined only based on any one of the data of the first gravity switch 21, the second gravity switch 22, the third gravity switch 23, the fourth gravity switch 24, the fifth gravity switch 25, and the sixth gravity switch 26 in the FTTR terminal device 1.

[0035] Specifically, for example, the state of the first gravity switch 21 when the top of the FTTR terminal device 1 touches the desktop is different from the state of the first gravity switch 21 when the bottom of the FTTR terminal device 1 touches the desktop, or different from the state of the first gravity switch 21 when the left side of the FTTR terminal device 1 touches the desktop, or different from the state of the first gravity switch 21 when the right side of the FTTR terminal device 1 touches the desktop, or different from the state of the first gravity switch 21 when the front side of the FTTR terminal device 1 touches the desktop, or different from the state of the first gravity switch 21 when the rear side of the FTTR terminal device 1 touches the desktop. Then, the working attitude of the FTTR terminal device 1 at this time can also be determined to be an incorrect attitude only based on the state of the first gravity switch 21. That is, the working attitude of the FTTR terminal device 1 corresponding to the first gravity switch 21 is the correct attitude only when the bottom of the FTTR terminal device 1 touches the desktop. Then, the working attitude of the FTTR terminal device 1 can be determined only based on the data collected by the first gravity switch 21. The principle of the control platform 3 determining the working attitude of the FTTR terminal device 1 only based on the data collected by the second gravity switch 22, or the third gravity switch 23, or the fourth gravity switch 24, or the fifth gravity switch 25, or the sixth gravity switch 26 is the same, and will not be elaborated here.

[0036] In one implementation, the control platform 3 is further configured to: sequentially obtain the binary values corresponding to the data collected by multiple gravity sensors and generate a binary sequence, and determine and store the mapping relationship between the binary sequence and the working attitude of the FTTR terminal device 1.

[0037] In an exemplary embodiment, for example, the first gravity switch 21 is turned on only when the bottom of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the first gravity switch 21 is in the off state, and the output signal value is 1. The second gravity switch 22 is turned on only when the top of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the second gravity switch 22 is in the off state, and the output signal value is 1. The third gravity switch 23 is turned on only when the right side of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the third gravity switch 23 is in the off state, and the output signal value is 1. The fourth gravity switch 24 is turned on only when the left side of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the fourth gravity switch 24 is in the off state, and the output signal value is 1. The fifth gravity switch 25 is turned on only when the rear side of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the fifth gravity switch 25 is in the off state, and the output signal value is 1. The sixth gravity switch 26 is turned on only when the front side of the FTTR terminal device 1 touches the desktop, and the output signal value is 0. In other postures of the FTTR terminal device 1, the sixth gravity switch 26 is in the off state, and the output signal value is 1. And the control platform 3 sorts the binary values output by the sixth gravity switch 26, the fifth gravity switch 25, the fourth gravity switch 24, the third gravity switch 23, the second gravity switch 22, and the first gravity switch 21 from low to high in the order of the sixth gravity switch 26, the fifth gravity switch 25, the fourth gravity switch 24, the third gravity switch 23, the second gravity switch 22, and the first gravity switch 21 to obtain a binary sequence, and determines and stores the mapping relationship between the binary sequence and the working posture of the FTTR terminal device 1. The mapping relationship table between the binary sequence and the working posture of the FTTR terminal device 1 is as follows:

[0038]

[0039] Figure 5 is a schematic structure of the FTTR terminal device attitude monitoring system according to an embodiment of the present invention Figure 2 , such as Figure 5 shown, in one embodiment, the FTTR terminal device attitude monitoring system further includes: a user terminal interface 4 for receiving and displaying the working posture sent by the control platform 3.

[0040] In an exemplary embodiment, for example, when the control platform 3 determines based on the received data that the working posture of the FTTR terminal device 1 corresponding to the data is that the bottom touches the desktop, or the top touches the desktop, or the right side touches the desktop, or the left side touches the desktop, or the rear side touches the desktop, or the front side touches the desktop, it can display "bottom touches the desktop", or "top touches the desktop", or "right side touches the desktop", or "left side touches the desktop", or "rear side touches the desktop", or "front side touches the desktop" on the user terminal interface 4 for the user to intuitively understand the working posture of the FTTR terminal device 1 at a certain moment.

[0041] In one embodiment, the control platform 3 is further configured to: send the binary sequence to the user terminal interface 4 so that the user terminal interface 4 displays the binary sequence.

[0042] In an exemplary embodiment, for example, when the control platform 3 determines based on the received data that the binary sequence corresponding to the data is "011111", or "101111", or "110111", or "111011", or "111101", or "111110", it can directly send "011111", or "101111", or "110111", or "111011", or "111101", or "111110" to the user terminal interface 4 so that the user determines the working posture of the FTTR terminal device 1 at a certain moment based on the binary sequence displayed on the user terminal interface 4.

[0043] In one embodiment, the control platform 3 is further configured to:

[0044] Convert the binary sequence into posture information;

[0045] Send the posture information to the user terminal interface 4 so that the user terminal interface 4 displays the posture information.

[0046] In an exemplary embodiment, when the binary sequence corresponding to the data received by the control platform 3 is "011111", it is determined that the working posture corresponding to "011111" of the FTTR terminal device 1 is the bottom contacting the desktop, and then "The working posture of the FTTR terminal device is the bottom contacting the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the data received by the control platform 3 is "101111", it is determined that the working posture corresponding to "101111" of the FTTR terminal device 1 is the top contacting the desktop, and then "The working posture of the FTTR terminal device is the top contacting the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the data received by the control platform 3 is "110111", it is determined that the working posture corresponding to "110111" of the FTTR terminal device 1 is the right side contacting the desktop, and then "The working posture of the FTTR terminal device is the right side contacting the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the data received by the control platform 3 is "111011", it is determined that the working posture corresponding to "111011" of the FTTR terminal device 1 is the left side contacting the desktop, and then "The working posture of the FTTR terminal device is the left side contacting the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the data received by the control platform 3 is "111101", it is determined that the working posture corresponding to "111101" of the FTTR terminal device 1 is the rear side contacting the desktop, and then "The working posture of the FTTR terminal device is the rear side contacting the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the data received by the control platform 3 is "111110", it is determined that the working posture corresponding to "111110" of the FTTR terminal device 1 is the front side contacting the desktop, and then "The working posture of the FTTR terminal device is the front side contacting the desktop" can be displayed on the user terminal interface 4. So that the user can intuitively understand the posture information of the FTTR terminal device 1 based on the user terminal interface 4.

[0047] In one embodiment, the control platform 3 is further configured to:

[0048] Convert the binary sequence into a decimal value;

[0049] Send the decimal value to the user terminal interface 4 so that the user terminal interface 4 can display the decimal value.

[0050] In an exemplary embodiment, the control platform 3 can not only determine the working posture of the FTTR terminal device 1 based on the binary sequence, but of course can also establish a mapping relationship between the decimal value and the working posture of the FTTR terminal device 1 to determine the corresponding working posture of the FTTR terminal device 1 based on the decimal value. Further, the control platform 3 can also display the decimal value converted from the binary sequence on the user terminal interface 4 so that the user can determine the corresponding working posture of the FTTR terminal device 1 based on the decimal value. Alternatively, a mapping relationship comparison table between the decimal value and the working posture of the FTTR terminal device 1 is displayed on the user terminal interface 4 to facilitate the user to determine the working posture of the FTTR terminal device 1 corresponding to the decimal value based on the comparison table. The mapping relationship comparison table between the decimal value and the working posture of the FTTR terminal device 1 is as follows:

[0051]

[0052] In one embodiment, the control platform 3 is further configured to:

[0053] Convert the decimal value into posture information;

[0054] Send the posture information to the user terminal interface 4 so that the user terminal interface 4 displays the posture information.

[0055] In an exemplary embodiment, when the binary sequence corresponding to the received data by the control platform 3 is "011111", the control platform 3 converts "011111" into the decimal value "31", and then converts the decimal value "31" into "bottom contacting the desktop", so that the "The working posture of the FTTR terminal device is that the bottom contacts the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the received data by the control platform 3 is "101111", the control platform 3 converts "101111" into the decimal value "47", and then converts the decimal value "47" into "top contacting the desktop", so that the "The working posture of the FTTR terminal device is that the top contacts the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the received data by the control platform 3 is "110111", the control platform 3 converts "110111" into the decimal value "55", and then converts the decimal value "55" into "right side contacting the desktop", so that the "The working posture of the FTTR terminal device is that the right side contacts the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the received data by the control platform 3 is "111011", the control platform 3 converts "111011" into the decimal value "59", and then converts the decimal value "59" into "left side contacting the desktop", so that the "The working posture of the FTTR terminal device is that the left side contacts the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the received data by the control platform 3 is "111101", the control platform 3 converts "111101" into the decimal value "61", and then converts the decimal value "61" into "rear side contacting the desktop", so that the "The working posture of the FTTR terminal device is that the rear side contacts the desktop" can be displayed on the user terminal interface 4. When the binary sequence corresponding to the received data by the control platform 3 is "111110", the control platform 3 converts "111110" into the decimal value "62", and then converts the decimal value "62" into "front side contacting the desktop", so that the "The working posture of the FTTR terminal device is that the front side contacts the desktop" can be displayed on the user terminal interface 4.

[0056] In one embodiment, the control platform 3 is further configured to: when the working posture is inconsistent with the preset posture, control the indicator light 5 of the FTTR terminal device 1 to light up to generate a warning prompt.

[0057] Figure 6 FIG. is a schematic diagram of the state where the indicator light of the FTTR terminal device according to the embodiment of the present invention lights up when the working posture is inconsistent with the preset posture. Figure 7 FIG. is a schematic diagram of the state where the indicator light of the FTTR terminal device according to the embodiment of the present invention does not light up when the working posture is consistent with the preset posture. In an exemplary embodiment, such as Figure 6 and Figure 7As shown, the control platform 3 compares the recognized working posture with the preset posture. When the working posture is inconsistent with the preset posture, the control platform 3 controls the indicator light 5 of the FTTR terminal device 1 to light up to generate a warning prompt. When the working posture of the FTTR terminal device 1 is consistent with the preset posture, the control platform 3 controls the indicator light 5 of the FTTR terminal device 1 not to light up. Among them, the separate prompt indicator light 5 can be set to determine whether the posture of the FTTR terminal device 1 is correct, or the unused indicator light 5 in the FTTR terminal device 1 can be borrowed.

[0058] In one implementation, the control platform 3 is further configured to: when the working posture is inconsistent with the preset posture, control the user terminal interface 4 to display a prompt message to generate a warning prompt.

[0059] In an exemplary implementation, the control platform 3 compares the recognized working posture with the preset posture. When the working posture is inconsistent with the preset posture, the control platform 3 controls the user terminal interface 4 to display a prompt message to generate a warning prompt. Among them, the warning prompt can be to display "The working posture of the FTTR terminal device is incorrect. Please adjust the placement posture of the FTTR terminal device", or the warning prompt can be to display "The working posture of the FTTR terminal device is incorrect. Please place the bottom of the FTTR terminal device on the desktop (the correct placement posture of the vertically placed FTTR terminal device)", or the warning prompt can be to display "The working posture of the FTTR terminal device is incorrect. Please place the rear side of the FTTR terminal device on the desktop (the correct placement posture of the horizontally placed FTTR terminal device)".

[0060] In one implementation, the working posture is the posture in which the FTTR terminal device 1 is placed when powered on.

[0061] In an exemplary implementation, by adopting the above technical solution, a clear monitoring benchmark and starting state are provided for the FTTR terminal device posture monitoring system. By defining the posture at the moment when the device is powered on as the working posture, the system can monitor the posture change of the device in real time on this basis, and timely discover whether the device is placed in an unexpected position or angle. This definition ensures the accuracy and pertinence of the monitoring, enabling the control platform 3 to accurately judge whether the current posture is consistent with the preset posture based on the data collected by the direction sensing sensor 2, and generating a warning prompt when they are inconsistent, effectively preventing problems such as overheating and shell deformation caused by improper placement of the device, and ensuring the normal operation and service life of the device.

[0062] In one implementation, the control platform 3 is further configured to: when the working posture is inconsistent with multiple sub-postures, generate a warning prompt, where the preset posture includes multiple sub-postures.

[0063] In an exemplary embodiment, for the vertically placed FTTR terminal device 1, the heat dissipation path inside the FTTR terminal device 1 mainly follows the height direction of the FTTR terminal device 1. Therefore, the placement posture of the FTTR terminal device 1 can be that the bottom of the FTTR terminal device 1 touches the desktop, or the top of the FTTR terminal device 1 touches the desktop, both of which can enable the FTTR terminal device 1 to have good heat dissipation performance. Then, the bottom of the FTTR terminal device 1 touching the desktop and the top of the FTTR terminal device 1 touching the desktop can be used as sub-postures, that is, the preset correct placement postures. When the working posture is inconsistent with both the bottom of the FTTR terminal device 1 touching the desktop and the top of the FTTR terminal device 1 touching the desktop, a warning prompt is generated. Therefore, the right side of the FTTR terminal device 1 touching the desktop, or the left side touching the desktop, or the back side touching the desktop, or the front side touching the desktop can all be used as incorrect placement postures of the FTTR terminal device 1.

[0064] For the horizontally placed FTTR terminal device 1, the heat dissipation path inside the FTTR terminal device 1 mainly follows the horizontal direction of the FTTR terminal device 1. Therefore, the placement posture of the FTTR terminal device 1 can be the posture where the right side of the FTTR terminal device 1 touches the desktop, or the left side touches the desktop, or the back side touches the desktop, or the front side touches the desktop. Then, the right side of the FTTR terminal device 1 touching the desktop, the left side touching the desktop, the back side touching the desktop, and the front side touching the desktop can be used as sub-postures, that is, the preset correct placement postures. When the working posture is inconsistent with the right side of the FTTR terminal device 1 touching the desktop, the left side touching the desktop, the back side touching the desktop, and the front side touching the desktop, a warning prompt is generated. Therefore, the bottom of the FTTR terminal device 1 touching the desktop or the top of the FTTR terminal device 1 touching the desktop can both be used as incorrect placement postures of the FTTR terminal device 1.

[0065] In an embodiment, the control platform 3 is further configured to: generate a warning prompt when the working posture is inconsistent with the first sub-posture, where the first sub-posture is one of the sub-postures in the preset postures.

[0066] In an exemplary embodiment, for example, for the vertically placed FTTR terminal device 1, the heat dissipation path in the FTTR terminal device 1 mainly follows the height direction of the FTTR terminal device 1, and there is an optimal heat dissipation path. Therefore, the placement posture of the FTTR terminal device 1 is relatively strict. For example, the bottom of the FTTR terminal device 1 contacting the desktop is the optimal placement posture of the FTTR terminal device 1. Any other placement postures except the bottom of the FTTR terminal device 1 contacting the desktop may cause deformation or melting of the shell of the FTTR terminal device 1. Therefore, for the vertically placed FTTR terminal device 1, the control platform 3 determines that the bottom of the FTTR terminal device 1 contacting the desktop among the bottom of the FTTR terminal device 1 contacting the desktop and the top of the FTTR terminal device 1 contacting the desktop is the first sub-posture. The control platform 3 compares the working posture with the first sub-posture, and generates a warning prompt when the working posture is inconsistent with the first sub-posture.

[0067] For example, for the horizontally placed FTTR terminal device 1, the heat dissipation path in the FTTR terminal device 1 mainly follows the horizontal direction of the FTTR terminal device 1, and there is an optimal heat dissipation path. Therefore, the placement posture of the FTTR terminal device 1 is relatively strict. For example, the rear side of the FTTR terminal device 1 contacting the desktop is the optimal placement posture of the FTTR terminal device 1. Any other placement postures except the rear side of the FTTR terminal device 1 contacting the desktop may cause deformation or melting of the shell of the FTTR terminal device 1. Therefore, for the horizontally placed FTTR terminal device 1, the control platform 3 determines that the rear side of the FTTR terminal device 1 contacting the desktop among the right side of the FTTR terminal device 1 contacting the desktop, the left side of the FTTR terminal device 1 contacting the desktop, the rear side of the FTTR terminal device 1 contacting the desktop, and the front side of the FTTR terminal device 1 contacting the desktop is the first sub-posture. The control platform 3 compares the working posture with the first sub-posture, and generates a warning prompt when the working posture is inconsistent with the first sub-posture.

[0068] In one embodiment, the control platform 3 is further configured to: generate a warning prompt when the working posture is inconsistent with the second sub-posture, where the second sub-posture is the optimal posture for the FTTR terminal device 1 to be placed during operation.

[0069] In an exemplary embodiment, for example, for the vertically placed FTTR terminal device 1, the heat dissipation path in the FTTR terminal device 1 mainly follows the height direction of the FTTR terminal device 1, and there is an optimal heat dissipation path. Therefore, the placement posture of the FTTR terminal device 1 is relatively strict. For example, the best placement posture of the FTTR terminal device 1 is when the bottom of the FTTR terminal device 1 touches the desktop. Any other placement postures except when the bottom of the FTTR terminal device 1 touches the desktop may cause deformation or melting of the shell of the FTTR terminal device 1. Therefore, the control platform 3 determines that the bottom of the FTTR terminal device 1 touching the desktop is the second sub-posture. The control platform 3 compares the working posture with the second sub-posture, and generates a warning prompt when the working posture is inconsistent with the second sub-posture.

[0070] For example, for the horizontally placed FTTR terminal device 1, the heat dissipation path in the FTTR terminal device 1 mainly follows the horizontal direction of the FTTR terminal device 1, and there is an optimal heat dissipation path. Therefore, the placement posture of the FTTR terminal device 1 is relatively strict. For example, the best placement posture of the FTTR terminal device 1 is when the rear side of the FTTR terminal device 1 touches the desktop. Any other placement postures except when the rear side of the FTTR terminal device 1 touches the desktop may cause deformation or melting of the shell of the FTTR terminal device 1. Therefore, the control platform 3 determines that the rear side of the FTTR terminal device 1 touching the desktop is the second sub-posture. The control platform 3 compares the working posture with the second sub-posture, and generates a warning prompt when the working posture is inconsistent with the second sub-posture.

[0071] In one embodiment, the control platform 3 includes:

[0072] A controller, connected to multiple gravity sensors. When the first gravity sensor is conductive, it outputs the binary value of the first gravity sensor as 0. When the first gravity sensor is non-conductive, it outputs the binary value of the first gravity sensor as 1. Among them, the first gravity sensor is any one of the multiple gravity sensors, the first gravity sensor is installed at a preset position of the FTTR terminal device 1, and the conductive state or non-conductive state of the first gravity sensor is related to the orientation of the preset position of the FTTR terminal device 1.

[0073] In an exemplary embodiment, when the FTTR terminal device 1 is in a certain posture, the gravity sensors installed at different positions thereof will generate corresponding on or off states according to their different orientations. For example, when the bottom of the FTTR terminal device 1 touches the desktop, the first gravity sensor installed at the top closes and outputs a signal value of 0; when other positions of the FTTR terminal device 1 touch the desktop, the first gravity sensor remains in an off state and outputs a signal value of 1. Therefore, the working posture of the FTTR terminal device 1 can be determined based on the output signal value of the first gravity sensor.

[0074] Alternatively, when the bottom of the FTTR terminal device 1 touches the desktop, the first gravity sensor installed at the top closes and outputs a signal value of 0; while the gravity switches installed at other positions remain in an off state and output a signal value of 1. The controller continuously monitors the output signals of each gravity sensor and processes these signals according to pre-set rules. Specifically, the controller sequentially obtains the binary values of each gravity sensor in a certain order and generates a binary sequence. For example, in the order of the sixth gravity switch 26, the fifth gravity switch 25, the fourth gravity switch 24, the third gravity switch 23, the second gravity switch 22, and the first gravity switch 21, the binary values of each gravity switch are sorted from the lowest bit to the highest bit to obtain a set of binary sequences. Through the pre-established mapping relationship between the binary sequence and the working posture of the FTTR terminal device 1, the controller can quickly and accurately determine the working posture corresponding to the current binary sequence. For example: "011111" means the bottom touches the desktop, "101111" means the top touches the desktop, "110111" means the right side touches the desktop, "111011" means the left side touches the desktop, "111101" means the back side touches the desktop, and "111110" means the front side touches the desktop.

[0075] Therefore, after determining the working posture, the controller compares this working posture with the pre-stored preset posture. If the working posture is inconsistent with the preset posture, the controller will generate a warning prompt. The warning prompt can be presented in various ways, such as controlling the indicator light 5 of the FTTR terminal device 1 to light up, or displaying a prompt message on the user terminal interface 4 to remind the installer or user to adjust the posture of the FTTR terminal device 1 in time.

[0076] During the system initialization process, the controller will detect and calibrate each gravity sensor to ensure that they can accurately output signals. It can include operations such as adjusting the sensitivity of the sensor and filtering noise to improve the accuracy of system monitoring. The controller will continuously monitor the signals of the gravity sensors and update the binary sequence and working posture information in real time. This can promptly detect changes in the device posture and quickly generate a warning prompt when an abnormality occurs.

[0077] Therefore, by adopting the above technical means, it is convenient to control the platform 3 for subsequent logical processing and attitude judgment, laying a foundation for realizing the functions of accurate monitoring and early warning. By converting the conduction state of the gravity switch into binary values and generating a binary sequence, the controller can represent different working postures of the device in a unified and standardized digital form, making the subsequent attitude analysis, comparison, and generation of early warning prompts more efficient and reliable. This conversion process is a key step for the entire monitoring system to achieve intelligent and automated monitoring, providing basic data support for subsequent real-time monitoring, generation of early warning prompts, and display on the user terminal interface 4, etc.

[0078] In this embodiment, a method for monitoring the attitude of an FTTR terminal device is also provided. Figure 8 It is a flowchart of the method for monitoring the attitude of an FTTR terminal device according to an embodiment of the present invention, as Figure 8 shown, including:

[0079] Collect data of the FTTR terminal device. Among them, direction sensing sensors (which can be one or more, such as gyroscopes, acceleration sensors, gravity sensors, etc.) are arranged in the FTTR terminal device to collect data related to the device's attitude and transmit this data back to the data analysis center of the operator or manufacturer. In an exemplary implementation, multiple gravity sensors are respectively installed at different positions (such as the top, bottom, left, right, front, and back) inside the FTTR terminal device, and the control platform determines the working attitude of the FTTR terminal device based on the data collected by each gravity sensor. When the working attitude is inconsistent with the preset attitude, an early warning prompt is generated. The control platform can also sequentially obtain the binary values corresponding to the data collected by multiple gravity sensors and generate a binary sequence, determine and store the mapping relationship between the binary sequence and the device's working attitude, and then judge whether the device's attitude is correct.

[0080] If the control platform determines that the FTTR terminal device is placed correctly, it will feedback the data to the installer or manufacturer, prompt that the device is placed correctly and the installation is completed, and will also perform real-time tracking on the data subsequently to continuously monitor the device's attitude, ensuring that the FTTR terminal device can always be in the correct placement state to ensure the normal operation of the FTTR terminal device and the normal functioning of functions such as heat dissipation.

[0081] If the control platform determines that the FTTR terminal device is not placed correctly, the data analysis center of the operator or manufacturer will feedback to the installer according to the actual placement method of the user. After the engineering installer communicates with the user, the engineering installer will then confirm the correct placement method of the device according to the communication situation, and then place the FTTR terminal device correctly and perform operations such as data feedback again through relevant processes, forming a closed-loop monitoring and adjustment process until the FTTR terminal device is placed correctly.

[0082] The control platform will also send the analysis results to the user terminal interface for display. Among them, the user terminal interface will display the posture of the FTTR terminal device with different graphic identifiers. Among them, a circle represents correct placement, a rectangle represents incorrect placement, and a triangle represents the actual posture of the FTTR terminal device placed, so that users can intuitively understand the current placement state of the FTTR terminal device.

[0083] Among them, it should be noted that the direction perception sensor is installed inside the FTTR terminal device, such as Figure 2 , Figure 3 , Figure 4 as shown. When the control platform judges the working posture of the FTTR terminal device, in addition to the data collected by the direction perception sensor, it can also obtain the state of the device after a preset interval time, such as detecting whether the outer shell is deformed, etc., and comprehensively judge whether the working posture is the preset posture, further improving the accuracy and reliability of posture monitoring. It also involves converting binary sequences into posture information, decimal values, etc., to facilitate the display on the user terminal interface and the user's understanding of the real-time posture of the FTTR terminal device, or generating warning prompts in ways such as controlling the indicator light of the FTTR terminal device to light up and displaying prompt information on the user terminal interface, realizing effective monitoring and reminder of the device posture from multiple aspects, ensuring the normal operation and performance of the FTTR terminal device, and solving problems such as overheating and deformation of the outer shell caused by the device being in an unexpected placement state for a long time in the related technology, so as to reduce the device failure rate.

[0084] By adopting the above technical solutions, a perfect FTTR terminal device posture monitoring solution is constructed, realizing the whole-process monitoring and processing from data collection, analysis and judgment to feedback adjustment, and effectively coping with challenges such as heat dissipation and reliability under the development trend of miniaturization of home FTTR products.

[0085] It should be noted that the above-mentioned various modules can be implemented by software or hardware. For the latter, it can be achieved in the following ways, but not limited to this: the above-mentioned modules are all located in the same processor; or, the above-mentioned various modules are located in different processors in any combination form.

[0086] Obviously, those skilled in the art should understand that the various modules or steps of the present invention described above can be implemented by a general-purpose computing device. They can be concentrated on a single computing device or distributed on a network composed of multiple computing devices. They can be implemented by program codes executable by the computing device. Thus, they can be stored in a storage device and executed by the computing device. And in some cases, the steps shown or described can be executed in a different order from here, or they can be separately fabricated into individual integrated circuit modules, or multiple modules or steps among them can be fabricated into a single integrated circuit module for implementation. In this way, the present invention is not limited to any specific combination of hardware and software.

[0087] The above are only the preferred embodiments of the present invention and are not used to limit the present invention. For those skilled in the art, the present invention can have various changes and modifications. Any modification, equivalent replacement, improvement, etc. made within the principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A FTTR terminal equipment posture monitoring system, characterized in that: include: Direction sensing sensors are installed in FTTR terminal equipment to collect data; The control platform is used to determine the working posture of the FTTR terminal device based on the data, and generate an early warning prompt when the working posture is inconsistent with a preset posture.

2. The system according to claim 1, characterized in that The control platform is also used for: Acquire a first state of the FTTR terminal device after a preset interval time; When the first state is that the housing of the FTTR terminal device has not been deformed relative to the housing of the FTTR terminal device before the preset interval time, the working posture is determined as the preset posture.

3. The system according to claim 1, characterized in that The direction sensing sensor includes a plurality of gravity sensors, and the plurality of gravity sensors are respectively located at different positions of the FTTR terminal device.

4. The system according to claim 3, characterized in that The control platform is also used to determine the working posture of the FTTR terminal device based on the data collected by the multiple gravity sensors.

5. The system according to claim 4, characterized in that The control platform is also used to: sequentially acquire binary values ​​corresponding to the data collected by the multiple gravity sensors and generate a binary sequence, and determine and store a mapping relationship between the binary sequence and the working posture of the FTTR terminal device.

6. The system according to claim 5, characterized in that Also includes: The user terminal interface is used to receive and display the working posture sent by the control platform.

7. The system according to claim 6, characterized in that The control platform is also used to: send the binary sequence to the user terminal interface, so that the user terminal interface displays the binary sequence.

8. The system according to claim 6, characterized in that The control platform is also used for: Converting the binary sequence into posture information; The posture information is sent to the user terminal interface so that the user terminal interface displays the posture information.

9. The system according to claim 6, characterized in that The control platform is also used for: converting the binary sequence to a decimal value; The decimal value is sent to the user terminal interface so that the user terminal interface displays the decimal value.

10. The system according to claim 9, characterized in that The control platform is also used for: Converting the decimal value into attitude information; The posture information is sent to the user terminal interface so that the user terminal interface displays the posture information.

11. The system according to claim 1, characterized in that The control platform is also used to control the indicator light of the FTTR terminal device to light up when the working posture is inconsistent with the preset posture, so as to generate an early warning prompt.

12. The system according to claim 7, characterized in that The control platform is also used to: when the working posture is inconsistent with the preset posture, control the user terminal interface to display prompt information to generate an early warning prompt.

13. The system according to claim 1, characterized in that The working posture is the posture in which the FTTR terminal device is placed when it is powered on.

14. The system according to claim 1, characterized in that The control platform is also used to generate an early warning prompt when the working posture is inconsistent with multiple sub-postures, wherein the preset posture includes multiple sub-postures.

15. The system according to claim 14, characterized in that The control platform is also used to generate an early warning prompt when the working posture is inconsistent with the first sub-posture, wherein the first sub-posture is one of the sub-postures in the preset postures.

16. The system according to claim 1, characterized in that The control platform is also used to generate an early warning prompt when the working posture is inconsistent with the second sub-posture, wherein the second sub-posture is the best posture for the FTTR terminal device to be placed during operation.

17. The system according to claim 5, characterized in that The control platform comprises: A controller is connected to the multiple gravity sensors, and when the first gravity sensor is turned on, the controller outputs the binary value of the first gravity sensor as 0, and when the first gravity sensor is turned off, the controller outputs the binary value of the first gravity sensor as 1; wherein the first gravity sensor is any one of the multiple gravity sensors, the first gravity sensor is installed at a preset position of the FTTR terminal device, and the on state or off state of the first gravity sensor is related to the orientation of the preset position of the FTTR terminal device.

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