CN115865725A - Stability testing method, system, equipment and storage medium of lighting IoT platform - Google Patents

Abstract

The invention discloses a method, system, device and storage medium for testing the stability of a lighting Internet of Things platform, and relates to the field of lighting technology. The method includes: building a connection between the lighting Internet of Things platform and a target device through a data gateway, so that Connect the lighting IoT platform with the target device; obtain the request interface of the target device through the lighting IoT platform; build a test plan according to the request interface, data gateway and target device; execute the test plan in turn and adjust the thread delay time to record the stable critical value; Generate test reports based on stability thresholds. By adopting the present invention, the stability of all interaction processes with target devices in the lighting Internet of Things platform under different environments can be quantified by continuously scheduling the response time of the devices, and the efficiency of field deployment of devices can be improved.

Description

Stability testing method, system, equipment and storage medium of lighting IoT platform

technical field

The invention relates to the field of lighting technology, in particular to a stability testing method, system, equipment and storage medium of a lighting Internet of Things platform.

Background technique

With the continuous advancement of information technology, the scale of Internet of Things products has become stronger and stronger, and the technology of Internet of Things has also been continuously improved. In the life cycle of product development, the stable interaction between the Internet of Things platform and IoT devices is the core element of the product.

In the field of lighting technology, the traditional stability test only changes the equipment environment, network, signal and other factors to judge whether the use case is passed, and cannot show the stability through specific data. When the product is applied to the actual scene, various environmental factors will change. This leads to large errors in the test results and affects the deployment progress.

Contents of the invention

The technical problem to be solved by the present invention is to provide a lighting IoT platform stability testing method, system, equipment and storage medium, which can continuously schedule the response time of the equipment, quantify the stability of the interaction process of the target equipment, and improve the stability of the equipment. Deployment efficiency in the field.

In order to solve the above technical problems, the present invention provides a method for testing the stability of the lighting Internet of Things platform, including: establishing a connection between the lighting Internet of Things platform and the target device through a data gateway, so that the lighting Internet of Things platform and the The target device is connected; the request interface of the target device is obtained through the lighting Internet of Things platform; the test plan is constructed according to the request interface, data gateway and target device; the test plan is executed in sequence and the thread delay time is adjusted to record stable Threshold; generate a test report based on the stable threshold.

As an improvement of the above solution, the step of constructing a test solution according to the request interface, data gateway and target device includes: constructing a thread group according to the execution mode of the request interface and target device; , constructing a connection mode; combining the thread group and the connection mode to construct a test scheme.

As an improvement of the above scheme, the thread group includes a single thread group and an independent thread group; in the single thread group, the target devices are placed in the same thread group and send instructions sequentially according to the channels; in the independent thread In the group, one target device corresponds to one thread group and sends instructions sequentially according to the channel.

As an improvement of the above solution, the connection mode includes a single bus mode and an independent bus mode; in the single bus mode, the target devices are connected to the data gateway in parallel through the same bus; in the independent bus mode, One target device corresponds to one bus and each target device is connected to the data gateway through the corresponding bus.

As an improvement of the above scheme, the step of executing the test scheme in sequence and adjusting the thread delay time to record the stable critical value includes: S1, connecting the target device according to the connection mode of the current test scheme; S2, modifying the thread delay time ; S3, the thread group executing the current test plan; S4, judging whether there is a stable critical value, if it is judged to be yes, record the stable critical value and execute the next test plan, if it is judged to be no, return to step S1.

As an improvement of the above solution, the step of judging whether there is a stable critical value includes: judging whether the target device cannot normally perform logical jumping; The delay time is used as a stable critical value in the interaction process between the lighting Internet of Things platform and the target device; when the judgment is negative, it means that there is no stable critical value.

As an improvement of the above scheme, when executing the same test scheme, modify the thread delay time according to the formula N=n/M, where N is the modified thread delay time, n is the last normal execution thread delay time, and M is greater than 1 positive integer of .

Correspondingly, the present invention also provides a stability test system for the lighting IoT platform, including: a connection module, configured to establish a connection between the lighting IoT platform and the target device through a data gateway, so that the lighting IoT platform Unicom with the target device; an acquisition module, used to obtain the request interface of the target device through the lighting IoT platform; a construction module, used to construct a test plan according to the request interface, data gateway and target device; an execution module , for sequentially executing the test scheme and adjusting the thread delay time, so as to record a stable critical value; a reporting module, used for generating a test report according to the stable critical value.

As an improvement of the above solution, the construction module includes: a thread construction unit, configured to construct a thread group according to the execution mode of the request interface and the target device; a connection construction unit, configured to construct a thread group according to the data gateway and the target device A connection mode; a program combination unit, configured to combine the thread group and the connection mode to construct a test program.

As an improvement of the above solution, the execution module includes: a connection execution unit, used to connect the target device according to the connection mode of the current test solution; a delay setting unit, used to modify the thread delay time; a thread execution unit, used to execute the current test program. The thread group of the test scheme; the processing unit is used to judge whether there is a stable critical value, and if it is judged to be yes, record the stable critical value and drive the connection execution unit to execute the next test scheme; if it is judged to be no, it will re-drive the connection execution unit.

Correspondingly, the present invention also provides a computer device, including a memory and a processor, the memory stores a computer program, wherein, when the processor executes the computer program, the above method for testing the stability of the lighting Internet of Things platform is realized. step.

Correspondingly, the present invention also provides a computer-readable storage medium, on which a computer program is stored, wherein, when the computer program is executed by a processor, the steps of the above-mentioned method for testing the stability of the lighting Internet of Things platform are realized.

Implement the present invention, have following beneficial effect:

The present invention introduces performance automation testing technology into the original product stability testing process, and obtains the stability parameters of the lighting IoT platform in most cases by continuously scheduling the response time of the equipment, thereby quantifying all lighting IoT platform The stability of the interaction process with the target device in different environments makes the "platform-device" interaction process stable and controllable, and improves the efficiency of field deployment of equipment.

Description of drawings

Fig. 1 is the flow chart of an embodiment of the method for testing the stability of the lighting Internet of Things platform of the present invention;

Fig. 2 is a schematic diagram of the network interaction protocol relationship in the present invention;

Fig. 3 is a schematic diagram of a single thread group in the present invention;

Fig. 4 is the schematic diagram of independent thread group among the present invention;

Fig. 5 is a schematic diagram of a single bus mode in the present invention;

Fig. 6 is the schematic diagram of independent bus mode among the present invention;

Fig. 7 is a flow chart of an embodiment of sequentially executing a test scheme and adjusting a thread delay time in the present invention to record a stable critical value;

Fig. 8 is a structural schematic diagram of the stability test system of the lighting Internet of Things platform of the present invention;

Fig. 9 is a schematic structural diagram of the building blocks in the lighting Internet of Things platform stability testing system of the present invention;

Fig. 10 is a schematic structural diagram of the execution module in the stability test system of the lighting Internet of Things platform of the present invention.

Detailed ways

In order to make the object, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below in conjunction with the accompanying drawings.

Referring to Fig. 1, Fig. 1 shows the flow chart of an embodiment of the method for testing the stability of the lighting Internet of Things platform of the present invention, which includes:

S101, constructing a connection between the lighting IoT platform and the target device through the data gateway, so that the lighting IoT platform and the target device are connected;

Preferably, the target device may be a Dali relay, but not limited thereto.

As shown in Figure 2, all target devices are connected to the same data gateway, and the target devices are connected to the WEB server of the deployed lighting IoT platform through the data gateway through the LAN, so as to ensure the communication between the lighting IoT platform and the target devices.

S102, obtaining the request interface of the target device through the lighting Internet of Things platform;

Obtain the request interface for command sending from the man-machine operation interface of the lighting IoT platform through browsers and Postman tools;

For example, the request interface is: [POST]/device/control l ForAddressEndpoi nt

The request parameters in the request interface are shown in Table 1 below:

Table 1

serial number name type meaning 1 control_channel Int Relay switch channel (1/2/3/4) 2 control_type Int Device type (relay switch is 7) 3 device_dbindex Str Device (relay) identification 4 device_endpoint Int Device (relay) identification related 5 device_level Int Operation command (0-off/254-on) 8 device_nwkaddress Int Equipment map identification(256) 9 device_onoff1 Int Current channel 1 status (0/1) 10 device_onoff2 Int Current channel 2 status (0/1) 11 device_onoff3 Int Current channel 3 status (0/1) 12 device_onoff4 Int Current channel 4 status (0/1)

S103, constructing a test plan according to the request interface, the data gateway and the target device;

It should be noted that the test plan includes thread groups and connection methods. Specifically, the steps of constructing the test plan according to the request interface, data gateway and target device include:

(1) Construct a thread group according to the request interface and the execution mode of the target device;

Thread groups include single thread groups and independent thread groups; in a single thread group, target devices are placed in the same thread group and send instructions sequentially according to the channel; in an independent thread group, a target device corresponds to a thread group and are sequentially sent according to the channel Send instructions.

As shown in Figure 3, in a single thread group, the device Da l i-1-01 and the device Da l i-2-01 are placed in the same thread group at the same time, and instructions are sent sequentially according to the channel;

As shown in Figure 4, in the independent thread group, the device Dali-1-01 and the device Dali-2-01 are respectively placed in different thread groups, and instructions are sent sequentially according to the channels.

(2) According to the data gateway and the target device, construct the connection mode;

The connection methods include single bus mode and independent bus mode; in the single bus mode, the target devices are connected to the data gateway in parallel through the same bus; in the independent bus mode, one target device corresponds to a bus and each target device passes through the corresponding bus Connect to the data gateway.

As shown in Figure 5, in the single bus mode, use a single bus 1 to connect Dali relay 1 and Dali relay 2 to the data gateway in parallel;

As shown in Figure 6, in the independent bus mode, the data gateway uses bus 1 and bus 2 to connect to Dali relay 1 and Dali relay 2 respectively.

(3) Combining thread groups and connection methods to build test solutions.

Combined with Figure 3-Figure 6, the following four test schemes can be combined according to different thread groups and connection methods:

Solution A: Single thread group + single bus mode

Option B: Single thread group + independent bus mode

Solution C: independent thread group + single bus mode

Solution D: independent thread group + independent bus mode

Therefore, through the combination of different thread groups and connection methods, all test situations can be covered and omissions can be avoided.

S104, execute the test plan in sequence and adjust the thread delay time, so as to record the stable critical value;

It should be noted that a fixed timer can be added separately in the transaction controller of each test plan, and the stable critical value of interaction stability can be recorded by adjusting the thread delay time of the fixed timer.

Specifically, the steps of sequentially executing the test scheme and adjusting the thread delay time to record a stable critical value include:

(1) Connect the target device according to the connection method of the current test plan;

(2) Modify the thread delay time;

In general, the number of threads can be set to 1 for each thread group, each execution time is 1 minute, and the initial thread delay time is 3000ms;

Further, when executing the same test scheme, modify the thread delay time according to the formula N=n/M, wherein, N is the modified thread delay time, n is the thread delay time of the last normal execution, and M is a positive integer greater than 1; When executing different test scenarios, the thread delay time is reset from the initial value.

For example, when the value of M is 2, when the same test plan is executed, the modification of the thread delay time is realized by adopting a compromise value method, so as to ensure that the thread delay time takes a value between 0-3000ms.

(3) Execute the thread group of the current test plan;

(4) Judging whether there is a stable critical value, if it is judged to be yes, record the stable critical value and execute the next test plan, if it is judged to be no, return to step S1.

Further, the steps of judging whether there is a stable critical value include:

(4.1) Determine whether the target device cannot perform logical jumping normally;

(4.2) When it is judged to be yes, it means that there is a stable critical value, and the thread delay time of the last normal execution is used as the stable critical value of the interaction process between the lighting IoT platform and the target device;

(4.3) When the judgment is no, it means that there is no stable critical value.

That is to say, when it is judged that there is no stable critical value, repeat steps (1)-step (4) until the target device cannot jump according to the script execution logic, record the thread delay time of the last normal execution, and Take it as a stable threshold for the interaction process between the lighting IoT platform and the target device.

S105. Generate a test report according to the stability threshold.

S104 is further described in detail in conjunction with FIG. 7 below:

In the embodiment shown in Figure 7, the following four test schemes can be combined according to different thread groups and connection modes:

Solution A: Single thread group + single bus mode

Option B: Single thread group + independent bus mode

Solution C: independent thread group + single bus mode

Solution D: independent thread group + independent bus mode

Step 1: Connect the device according to a single bus, modify the thread delay time, and execute a single thread group;

Step 2: Determine whether there is a stable critical value, if it is judged to be yes, enter step 3 and output the stable critical value of scheme A, if judged to be no, return to step 1;

Step 3: Connect the device according to a single bus, modify the thread delay time, and execute an independent thread group;

Step 4: Judging whether there is a stable critical value, if it is judged to be yes, enter step 5 and output the stable critical value of scheme B, if it is judged to be no, return to step 3;

Step 5: Connect the device according to the independent bus, modify the thread delay time, and execute a single thread group;

Step 6: Determine whether there is a stable critical value, if it is judged to be yes, go to step 7 and output the stable critical value of scheme C, if it is judged to be no, return to step 5;

Step 7: Connect the device according to the independent bus, modify the thread delay time, and execute the independent thread group;

Step 8: Determine whether there is a stable critical value, if it is judged yes, output the stable critical value of scheme D, if judged no, return to step 7.

Therefore, the present invention introduces performance automation testing technology, and through continuous scheduling of device response time, the stability parameters of the lighting IoT platform in most cases are obtained, thereby quantifying all interaction processes between the lighting IoT platform and the target device in different The stability of the environment makes the "platform-device" interaction process stable and controllable, and improves the efficiency of field deployment of devices.

Referring to Fig. 8, Fig. 8 shows the specific structure of the lighting Internet of Things platform stability test system 100 of the present invention, which includes a connection module 1, an acquisition module 2, a construction module 3, an execution module 4 and a report module 5, specifically:

The connection module 1 is used to construct the connection between the lighting IoT platform and the target device through the data gateway, so that the lighting IoT platform can communicate with the target device; preferably, the target device can be a Dali relay, but not limited thereto. As shown in Figure 2, the connection module 1 can connect all target devices to the same data gateway, and through the data gateway, the target devices can be connected to the WEB server of the deployed lighting IoT platform through a local area network, thus ensuring that the lighting IoT platform is compatible with the target Device connectivity.

The acquisition module 2 is used to obtain the request interface of the target device through the lighting Internet of Things platform; specifically, the acquisition module 2 obtains the request interface for instruction transmission from the man-machine operation interface of the lighting Internet of Things platform through a browser and a Postman tool; preferably, The request parameters in the request interface include: relay switch channel, device type, device ID, device ID correlation, operation command, device map ID, and current channel status, etc., but not limited to this.

The construction module 3 is used to construct a test plan according to the request interface, the data gateway and the target device; wherein, the test plan includes a thread group and a connection mode.

The execution module 4 is used to execute the test schemes in turn and adjust the thread delay time to record the stable critical value; it should be noted that a fixed timer can be added separately in the transaction controller of each test scheme, and by adjusting the thread Delay time, the stability threshold at which the recording interaction is stable.

The report module 5 is used to generate a test report according to the stable critical value.

As shown in Figure 9, the construction module 3 includes a thread construction unit 31, a connection construction unit 32 and a scheme combination unit 33, wherein:

The thread construction unit 31 is used to construct a thread group according to the execution mode of the request interface and the target device;

The connection construction unit 32 is used to construct a connection method according to the data gateway and the target device;

The scheme combination unit 33 is used to combine thread groups and connection modes to construct test schemes.

Thread groups include single thread groups and independent thread groups; in a single thread group, target devices are placed in the same thread group and send instructions sequentially according to the channel; in an independent thread group, a target device corresponds to a thread group and are sequentially sent according to the channel Send instructions. As shown in Figure 3, in a single thread group, the device Da l i-1-01 and the device Da l i-2-01 are placed in the same thread group at the same time, and the instructions are sent sequentially according to the channel; as shown in Figure 4, in the independent In the thread group, the device Da l i-1-01 and the device Da l i-2-01 are respectively placed in different thread groups, and instructions are sent sequentially according to the channels.

The connection methods include single bus mode and independent bus mode; in the single bus mode, the target devices are connected to the data gateway in parallel through the same bus; in the independent bus mode, a target device corresponds to a bus and each target device passes through the corresponding bus Connect to the data gateway. As shown in Figure 5, in the single bus mode, use a single bus 1 to connect Dali relay 1 and Dali relay 2 to the data gateway in parallel; as shown in Figure 6, in the independent bus mode, the data gateway uses bus 1, bus 2 are connected to Dali relay 1 and Dali relay 2 respectively.

Combined with Figure 3-Figure 6, the following four test schemes can be combined according to different thread groups and connection methods: Scheme A: single thread group + single bus mode; scheme B: single thread group + independent bus mode; scheme C : Independent thread group + single bus mode; Scheme D: Independent thread group + independent bus mode.

As shown in Figure 10, the execution module 4 includes a connection execution unit 41, a delay setting unit 42, a thread execution unit 43 and a processing unit 44, specifically he:

The connection execution unit 41 is used to connect the target device according to the connection mode of the current test scheme;

The delay setting unit 42 is used to modify the thread delay time; generally, the number of threads can be set to 1 for each thread group, each execution time is 1 minute, and the initial thread delay time is 3000ms.

The thread execution unit 43 is used to execute the thread group of the current test scheme;

The processing unit 44 is used to judge whether there is a stable critical value. If it is judged to be yes, it will record the stable critical value and drive the connection execution unit to execute the next test scheme. If it is judged to be no, it will re-drive the connection execution unit.

Further, when executing the same test scheme, modify the thread delay time according to the formula N=n/M, wherein, N is the modified thread delay time, n is the thread delay time of the last normal execution, and M is a positive integer greater than 1; When executing different test scenarios, the thread delay time is reset from the initial value. For example, when the value of M is 2, when the same test plan is executed, the modification of the thread delay time is realized by adopting a compromise value method, so as to ensure that the thread delay time takes a value between 0-3000ms.

Preferably, the step of processing unit 44 judging whether there is a stable critical value includes: judging whether the target device cannot normally perform logical jumping; The stable critical value of the interaction process between the lighting IoT platform and the target device; if the judgment is no, it means that there is no stable critical value. That is to say, when it is judged that there is no stable critical value, the connection execution unit 41, the delay setting unit 42 and the thread execution unit 43 are repeatedly started until the target device cannot jump according to the script execution logic, and the last normal execution is recorded. The thread delay time is used as the stable critical value of the interaction process between the lighting IoT platform and the target device.

Correspondingly, the present invention also discloses a computer device, including a memory and a processor, and the memory stores a computer program, wherein, when the processor executes the computer program, the steps of the above method for testing the stability of the lighting Internet of Things platform are realized. At the same time, the present invention also discloses a computer-readable storage medium, on which a computer program is stored, wherein, when the computer program is executed by a processor, the steps of the above method for testing the stability of the lighting Internet of Things platform are realized.

It can be seen from the above that the present invention introduces performance automation testing technology, and through continuous scheduling of equipment response time, the stability parameters of the lighting IoT platform in most cases are obtained, thereby quantifying all interaction processes with the target equipment in the lighting IoT platform The stability in different environments makes the "platform-device" interaction process stable and controllable, and improves the efficiency of field deployment of devices.

The above description is a preferred embodiment of the present invention, and it should be pointed out that for those skilled in the art, without departing from the principle of the present invention, some improvements and modifications can also be made, and these improvements and modifications are also considered Be the protection scope of the present invention.

Claims (12)

1. A method for testing stability of an illumination Internet of things platform is characterized by comprising the following steps:

establishing connection between an illumination Internet of things platform and target equipment through a data gateway so as to enable the illumination Internet of things platform to be communicated with the target equipment;

acquiring a request interface of the target equipment through the lighting Internet of things platform;

constructing a test scheme according to the request interface, the data gateway and the target equipment;

sequentially executing the test scheme and adjusting thread delay time to record a stable critical value;

and generating a test report according to the stable critical value.

2. The lighting internet of things platform stability testing method of claim 1, wherein the step of constructing a testing scheme according to the request interface, the data gateway and the target device comprises:

constructing a thread group according to the request interface and the execution mode of the target equipment;

constructing a connection mode according to the data gateway and the target equipment;

and combining the thread groups and the connection modes to construct a test scheme.

3. The lighting internet of things platform stability testing method of claim 2, wherein the thread group comprises a single thread group and an independent thread group;

in the single thread group, the target devices are all arranged in the same thread group and send instructions in sequence according to channels;

in the independent thread groups, one target device corresponds to one thread group and sequentially sends instructions according to channels.

4. The lighting internet of things platform stability testing method of claim 2, wherein the connection mode comprises a single bus mode and an independent bus mode;

in the single bus mode, the target devices are connected in parallel to the data gateway through the same bus;

in the independent bus mode, one target device corresponds to one bus and each target device is connected to the data gateway through the corresponding bus.

5. The lighting internet of things platform stability testing method of claim 2, wherein the step of sequentially executing the test scheme and adjusting thread delay time to record a stability threshold comprises:

s1, connecting the target equipment according to the connection mode of the current test scheme;

s2, modifying thread delay time;

s3, executing the thread group of the current test scheme;

and S4, judging whether a stable critical value exists or not, recording the stable critical value and executing the next test scheme if the stable critical value exists, and returning to the step S1 if the stable critical value does not exist.

6. The lighting internet of things platform stability testing method of claim 5, wherein the step of determining whether a stability threshold exists comprises:

judging whether the target equipment can not normally execute logic jumping or not;

if so, indicating that a stable critical value exists, and taking the thread delay time of the last normal execution as the stable critical value of the interaction process of the lighting Internet of things platform and the target equipment;

and if not, indicating that no stable critical value exists.

7. The lighting internet of things platform stability testing method according to claim 5, wherein when the same testing scheme is executed, the thread delay time is modified according to a formula N = N/M, where N is the modified thread delay time, N is the thread delay time of the last normal execution, and M is a positive integer greater than 1.

8. The utility model provides a lighting thing networking platform stability test system which characterized in that includes:

the connection module is used for establishing connection between the lighting Internet of things platform and target equipment through a data gateway so as to enable the lighting Internet of things platform to be communicated with the target equipment;

the acquisition module is used for acquiring a request interface of the target equipment through the lighting Internet of things platform;

the construction module is used for constructing a test scheme according to the request interface, the data gateway and the target equipment;

the execution module is used for sequentially executing the test scheme and adjusting thread delay time so as to record a stable critical value;

and the report module is used for generating a test report according to the stable critical value.

9. The lighting internet of things platform stability testing system of claim 8, wherein the building module comprises:

the thread constructing unit is used for constructing a thread group according to the request interface and the execution mode of the target equipment;

the connection construction unit is used for constructing a connection mode according to the data gateway and the target equipment;

and the scheme combination unit is used for combining the thread groups and the connection modes to construct a test scheme.

10. The lighting internet of things platform stability testing system of claim 8, wherein the execution module comprises:

the connection execution unit is used for connecting the target equipment according to the connection mode of the current test scheme;

the delay setting unit is used for modifying the thread delay time;

the thread execution unit is used for executing the thread group of the current test scheme;

and the processing unit is used for judging whether the stable critical value exists or not, recording the stable critical value and driving the connection execution unit to execute the next test scheme if the stable critical value exists, and re-driving the connection execution unit if the stable critical value does not exist.

11. A computer device comprising a memory and a processor, the memory storing a computer program, characterized in that the processor, when executing the computer program, implements the steps of the method of any of claims 1 to 7.

12. A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the steps of the method according to any one of claims 1 to 7.

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