TWI402747B - Method for combining data and electronic apparatus and computer program product using the method thereof - Google Patents

Description

Method for merging data and electronic device and computer program product thereof

The present invention relates to a method of merging data, and in particular to a method of merging data in combination with time factors.

With the rapid development of technology, investors have to grasp the stock market information is no longer limited to listening to the radio or watching cable channels. At present, a variety of stock machines appear on the market, which are not only easy to carry, but also simple to operate and increasingly diversified functions. According to this, many investors have switched to stock machines to keep abreast of stock market information. Through the stock machine, investors can view the latest real-time stock market trading information with them, anytime, anywhere.

However, the portable stock machine is limited by volume and cost, so the memory capacity of a general stock machine is very limited. According to this, if the trading volume of the day is too large, it will easily lead to the exhaustion of memory.

The invention provides a method for merging data and an electronic device thereof, so that the merging of the data is evenly distributed within a preset time range.

The invention provides an electronic device, which comprises a storage module, a receiving module and an arithmetic module. The storage module has a preset storage space. The receiving module receives the plurality of data transmitted by the server from the remote end within a preset time range. The computing module divides the preset time range into multiple time check points, and monitors the storage space usage of the storage module at each time check point. When the computing module detects that the usage status of the storage space reaches a preset condition, the data received between the time check point and the next time check point is processed according to a preset merge rule, and then processed. These data are updated to the storage module.

In an embodiment of the invention, the electronic device further includes a temporary storage space. The temporary storage space is used for temporarily storing the data received by the receiving module, so that the computing module updates the data into the storage module.

In an embodiment of the present invention, the operation module further includes: when the percentage of passage of the time range is less than or equal to the usage percentage of the storage space, increasing the quantity to be merged according to a merge rule, and the quantity is Combine these materials for the combined units. Moreover, when the percentage of passage of the time range is greater than the percentage of use of the storage space, according to the above-mentioned merger rule, the number of the materials to be merged is reduced, and the quantity is merged, and the data is combined.

From another point of view, the present invention proposes a method of merging data applied to an electronic device. The electronic device has a storage module with a preset storage space, and receives a plurality of pieces of data transmitted by the server from the remote end within a preset time range. The above method first divides the time range into multiple time checkpoints. Then, the usage status of the storage space of the storage module is monitored at each time checkpoint. When the usage status of the storage space reaches the preset condition, the data received between the time check point and the next time check point at this time is processed according to the preset merge rule, and then the processed data is updated to Storage module.

In an embodiment of the present invention, the method for merging data further includes providing a temporary storage space for temporarily storing the received data, and then updating the data to the storage module.

In an embodiment of the invention, the preset condition is established according to the percentage of use of the storage space and the percentage of the time range.

In an embodiment of the present invention, the step of processing according to the merging rule includes: when the percentage of passage of the time range is less than or equal to the percentage of use of the storage space, increasing the quantity to be merged according to the merging rule, and Combine these materials with the quantity as the unit of consolidation. In addition, when the percentage of passage of the time range is greater than the percentage of use of the storage space, according to the merger rule, the amount of the above-mentioned data to be merged is reduced, and the quantity is merged, and the data is combined. In addition, when the percentage of passage of the time range is less than or equal to the percentage of use of the storage space, the priority order of the above materials to be merged may be determined according to the merger rule to merge the materials according to the priority order.

In an embodiment of the present invention, the step of updating the processed data to the storage module may further adjust the storage format of the storage module to store the data. The storage format is, for example, 2 bytes, 4 bytes, 8 bytes, or 16 bytes.

In addition, the present invention provides a method of merging data applied to an electronic device. The electronic device is connected to the remote stock market real-time transaction information server, and the storage module having the preset storage space in the electronic device is configured to receive the information transmitted from the stock market real-time transaction information server within a preset transaction time range. Multiple instant transaction data. The above method first divides the trading time range into multiple time checkpoints. Then, the usage status of the storage space of the monitoring storage module is executed when each time check point is reached. When the usage status of the storage space reaches the preset condition, the real-time transaction data received between the time check point and the next time check point at this time is processed according to the preset merge rule, and then the processed instant is processed. The transaction data is updated to the storage module.

The present invention further provides a computer program product for performing the above method of merging data. The computer program product is basically composed of a plurality of code segments, and the code segments are loaded into an electronic device and executed. , the method of merging the above materials can be completed.

In summary, the present invention adds time factors to determine the usage status of the storage module, and accordingly determines whether to merge the data received from the remote server. In this way, the combination of the data will not be concentrated in the second half of the preset time range, but can be evenly distributed within the preset time range, so that the user is not easy to detect.

The above described features and advantages of the present invention will be more apparent from the following description.

In order to clarify the content of the present invention, the following specific examples are given as examples in which the present invention can be implemented.

1 is a block diagram of an electronic device in accordance with an embodiment of the present invention. Referring to FIG. 1 , the electronic device 100 includes a receiving module 110 , a temporary storage space 120 , a storage module 130 , and an operation module 140 . In the embodiment, the computing module 140 is configured to store the plurality of data received by the receiving module 110 into the storage module 130.

In detail, the receiving module 110 receives a server (not shown) from a remote end via a wired or wireless manner within a preset time range (eg, 9:00 to 16:00 every day). Multiple data transmitted. The temporary storage space 120 is used to temporarily store the data received by the receiving module 110, so that the computing module 140 updates the data to the storage module 130. The temporary storage space 120 can also be directly divided by the storage module 130. Part of the storage space is formed. The storage module 130 (for example, a memory) has a preset storage space for storing the data received by the receiving module 110.

In addition, the computing module 140 divides the preset time range into a plurality of time check points, and monitors the usage status of the storage space of the storage module 130 at each time check point. When the usage status of the storage space of the storage module 130 reaches a preset condition, the operation module 140 processes the data received between the time check point and the next time check point according to a preset merge rule. And processing the processed data to the storage module 130.

For example, the operation module 140 can divide the time from 9:00 to 16:00 into 41 time check points, and the operation module 140 checks the usage of the storage space every 10 minutes from 9:00 in the morning to It is determined whether the data in the temporary storage space 120 is merged and stored in the storage module 130 according to a preset merge rule. That is to say, the operation module 140 checks the usage status of the storage space when the time reaches 9:10, 9:20, ..., 15:40, and 15:50.

Compared with the foregoing electronic device 100, the present invention also provides a corresponding method for merging data, and the following is a detailed description of each component in the electronic device 100. 2 is a flow chart of a method of merging materials in accordance with an embodiment of the present invention. Referring to FIG. 1 and FIG. 2 simultaneously, first, in step S210, the operation module 140 divides the preset time range into a plurality of time check points.

Then, as shown in step S220, the operation module 140 can monitor the usage status of the storage space of the storage module 130 (for example, the percentage of use of the storage space) at each time checkpoint. In other words, the computing module 140 can check the current usage status of the storage space of the storage module 130 every time period. Here, the time lengths of the above-mentioned time check points may be the same, and may be different depending on the situation. In addition, the time checkpoint settings can be defined by default or by the user.

Next, in step S230, when the usage status of the storage space reaches a preset condition, the operation module 140 performs the data received between the time check point and the next time check point at this time according to a preset merge rule. After processing, the processed data is updated to the storage module 130.

For example, when the computing module 140 monitors that the usage percentage of the storage space reaches a preset condition at 10:00 in the morning, the computing module 140 receives the data received by the module 110 between 10:00 and 10:10. (At this time, the received data will be temporarily stored in the temporary storage space 120) merged, for example, two pieces of data are combined into one piece of data. Afterwards, the computing module 140 stores the merged data in the storage module 130.

The following is another example of a merger rule that details the merger of data. 3 is a flow chart of a method of merging materials in accordance with another embodiment of the present invention. Referring to FIG. 1 and FIG. 3 simultaneously, first, in step S305, the operation module 140 divides the preset time range into a plurality of time check points. Accordingly, as shown in step S310, the computing module 140 can monitor the usage status of the storage space of the storage module 130 at each time checkpoint.

Next, in step S315, the operation module 140 determines whether the percentage of the passage of the time range is less than or equal to the percentage of use of the storage space. When the computing module 140 determines that the percentage of the time range is less than or equal to the usage percentage of the storage space, as shown in step S320, the computing module 140 increases the number of combinations to be merged according to the merge rule. For example, the number of mergers is increased by the difference method, that is, 2 strokes, 3 strokes, 4 strokes, and the like.

Thereafter, in step S325, the operation module 140 merges the received data by using the increased number as a unit of combination. Further, after the merging condition is reached (ie, the percentage of the time range is less than or equal to the usage percentage of the storage space), the data received by the receiving module 110 is temporarily stored in the temporary storage space 120. When the quantity of data stored in the temporary storage space 120 satisfies the quantity in the merge rule, the operation module 140 then extracts the data for merging. Afterwards, the computing module stores the merged data to the storage module 130.

For example, when the receiving module 110 starts receiving data from the remote server, the computing module 110 can directly store the received data into the storage module 130. When the merge condition is reached, the operation module 140 adds 1 to the amount of data to be merged, and combines 2 data into one data. At this time, the computing module 140 temporarily stores the data received by the receiving module 110 into the temporary storage space 120. When two data are stored in the temporary storage space 120, the two data are taken out and combined. Afterwards, the computing module stores the merged data to the storage module 130. When the number of data to be merged is increased to three, the computing module 140 will extract and merge the three data in the temporary storage space 120, and so on.

In step S325, another embodiment is included. After the merge condition is reached (ie, the percentage of the time range is less than or equal to the usage percentage of the storage space), the data to be combined received by the receiving module 110 will be temporarily The direct merge is stored in the temporary storage space 120. When the quantity of the data stored in the temporary storage space 120 and the merged data meets the quantity in the merge rule, the operation module 140 stores the merged data in the storage module 130.

For example, the computing module 140 first temporarily stores the first data to be merged received by the receiving module 110 into the temporary storage space 120, and when the receiving module 110 receives the second data to be merged, The first data in the temporary storage space 120 is directly merged, for example, the aggregation of the data is performed in a cumulative manner. Then, the computing module 140 stores the merged data in the storage module 130, and simultaneously deletes the original data stored in the temporary storage space 120 and zeros the amount of the data. Similarly, when the number of data to be merged is increased to three, the computing module 140 temporarily stores the first data to be merged in the temporary storage space 120; and continues to receive the second to be merged. In the case of pen data, the second data is directly merged with the first data in the storage space 120; finally, when the third data to be merged is received, the third data is directly directly connected to the storage space 120. The first and second merged data are merged in the same manner as described above, and the computing module 140 stores the merged data in the storage module 130 and simultaneously stores the internal storage space 120. Data deletion and the amount of data are zeroed, and so on.

In the embodiment, the computing module 140 can adjust the storage format of the storage module 130 to store the data. The storage format is, for example, 2-byte (short format), 4-byte (medium format), 8-byte (long format), or 16-byte (long format). For example, a bit in a short format is used to record the difference between two pieces of data. The difference between the two formats used to record two pieces of data can be 16 bits. The long format can be recorded using 32 bits. Accordingly, the larger the storage format, the larger the value that can be stored.

It is to be noted that, in this embodiment, when the percentage of the time range is less than or equal to the usage percentage of the storage space, the operation module 140 may further determine the priority order of the data to be merged according to the merge rule, and This prioritization merges the received data. And when the merge effect is not good (for example, the percentage of the time range is still less than or equal to the usage percentage of the storage space), the operation module 140 will again adopt a multi-data merge mechanism.

For example, if the receiving module 110 receives the data of the product A, the product B, and the product C, the computing module 140 may merge the received data according to the priority order preset by the product (or may be set by the user). . It is assumed that the priority order set in advance is item A> item B> item C. When the operation module 140 determines that the merge condition has been reached, the data of the item A is merged in units of two. After that, if the checkpoint is still in compliance with the merge condition at the subsequent time, the materials of the commodity A and the commodity B are combined in units of 2 in accordance with the priority order. If the materials in commodity A, commodity B, and commodity C are combined in two units, and the next time checkpoint is still eligible for the merger, the data of commodity A is combined in three units.

Going back to step S315, when the percentage of passage of the time range is greater than the percentage of storage space usage, as shown in step S330, the operation module 140 first determines whether the currently received data has begun to merge. If the merging has not been started, the computing module 140 directly stores the data received by the receiving module 110 to the storage module 130 as shown in step S345.

If the computing module 140 has started to merge the data, as shown in step S335, the computing module 140 reduces the number of combinations to be merged according to the merge rule. For example, the number of merges is reduced by an equal difference, that is, 3 strokes, 2 strokes, 1 stroke, and the like. Then, in step S340, the computing module 140 merges the received data with the reduced number as a unit of consolidation to store the merged data to the storage module 130.

Similarly, when the computing module 140 has begun to merge data, the computing module 140 may also determine, according to the merge rule, that the data reduces the priority order to be merged, and merge the received data according to the priority order.

In other words, when the next time checkpoint does not reach the merge condition, it indicates that the current storage space of the storage module 130 can accommodate more data than before. Therefore, the computing module 140 can reduce the number of merges. For example, in order to merge 3 pieces of data into 1 piece of data, it is reduced to combine 2 pieces of data into 1 piece of data.

Finally, as shown in step S350, the operation module 140 checks if the current time checkpoint is the last time checkpoint. If the last time checkpoint has been reached, the process of merging the data ends. If the last time checkpoint has not been reached, then return to step S310 until the last time checkpoint.

It should be noted that, in this embodiment, the data stored in the storage module 130 will not be changed any more, and the changed one is stored between the current time check point and the next time check point. The data of the temporary storage space 120. The time interval 9:10 to the time check point 9:20, between 9:10 and 9:20, the computing module 140 temporarily stores the data received by the receiving module 110 in the temporary storage space 120. When the quantity of the data in the temporary storage space 120 reaches the combined quantity, it is taken out and merged.

The invention can be further applied to a one-way stock machine, in the case of a stock machine, fixing an opening and closing time (that is, the above-mentioned preset time range), and trying to limit the memory within the trading time range from the opening to the closing of the stock market. The body (ie, the storage module 130) is optimally used.

In the following, the stock machine is taken as an example, and another embodiment is used to describe a method for setting a data storage rule. 4 is a flow chart of a method for setting a data storage rule according to an embodiment of the invention. Referring to FIG. 1 and FIG. 4 simultaneously, in the embodiment, the electronic device 100 is a stock machine connected to a remote stock market real-time transaction information server (not shown), and is pre-processed by the receiving module 110. Receives multiple real-time transaction data transmitted from the stock market real-time trading information server within the trading time range.

First, in step S405, the operation module 140 divides the preset transaction time range into a plurality of time check points. Accordingly, as shown in step S410, the computing module 140 can check the usage status of the storage space of the storage module 130 at each time checkpoint. Take the opening time of 9:00 and the closing time of 16:00 as an example. The 9:00~16:00 will be divided into 41 time checkpoints, that is, every 10 minutes.

Next, in step S415, the operation module 140 determines whether the percentage of use of the storage space is greater than the percentage of the time range. For example, at 9:10 in the morning, depending on the transaction time elapsed as a percentage of the transaction time range (ie, 1/42), it is determined whether the used storage space of the storage module 130 accounts for the percentage of the total storage space. Real-time transaction data is merged.

When the computing module 140 determines that the usage percentage of the storage space is greater than the percentage of the time range, as shown in step S420, the computing module 140 gradually adds a pre-consolidated product content according to a priority order preset by the product content. range. When the range of merging is established, as shown in step S425, the operation module 140 increases the number of real-time transaction data to be merged.

The above priority order is, for example, the total amount of goods or the number of transactions in the stock market transaction, or whether the commodity is non-renewed or non-selected stocks and the like. For example, FIG. 5 is a schematic diagram of a prioritization of merged materials in accordance with an embodiment of the present invention. Referring to FIG. 5, in this embodiment, the priority order may be set from large to small: no merge, volume is less than the set ratio, merge, the number of transactions is less than the set ratio, and the non-ups and downs are merged. Non-self-selected stocks are combined and other information. When the above combination range is established, the number of combined pens is adjusted to three strokes and one stroke, and the number of merged pens is adjusted to be four strokes until the combined number reaches the set upper limit value. And you can also choose to set the stocks to never merge.

That is to say, the computing module 140 first determines, according to the priority order, which items of real-time transaction data (such as transaction details) need to be merged first. For example, based on the self-selected stocks/non-selected stocks and cold/hot stocks, it is judged whether or not the transaction details need to be merged. The above-mentioned cold/hot stocks are used as a basis for judging whether the volume of transactions or the number of transactions accounted for a percentage of the total market transaction volume (for example, the threshold value is set to 0.1%). If the memory space is still insufficient after all the items that can be merged have been merged, then multiple transactions are merged.

In addition, in the embodiment, the upper limit value of the combined quantity of the real-time transaction data of each commodity can be set (for example, up to 15 times can be combined at a time), thereby controlling the degree to which the real-time transaction data is destroyed.

Going back to step S415, when the percentage of the storage space usage is not greater than the percentage of the time range, as shown in step S430, the operation module 140 first determines whether the currently received real-time transaction data has begun to be merged, if it has already started. The data is merged, as shown in step S435, the number of added consolidated data is reduced. Thereafter, in step S440, when the number of combinable pens reaches the lower limit value, the merge range is reduced in accordance with the priority order set by the merchandise. If the merging has not yet started, proceed to the next step S450 to determine whether the last time checkpoint has been reached, and if the last time checkpoint has been reached, the flow of setting the data storage rule is ended. If the last time checkpoint has not been reached, then return to step S415 until the last time checkpoint.

In the case of Figure 5, when the number of combinable pens has been adjusted to two pens combined into one, then the non-self-selected shares are used to reduce the scope of the merger.

After the determination in the above steps S415 to S440, in step S445, the operation module 140 can start setting the data storage rule to store the real-time transaction data received by the receiving module 110 according to the storage rule.

Finally, as shown in step S450, the operation module 140 checks if the current time checkpoint is the last time checkpoint. If the last time checkpoint has been reached, the process of merging the instant transaction data is ended. If the last time checkpoint has not been reached, then return to step S410 until the last time checkpoint.

Briefly, steps S415~S450 are used to continuously check the usage status of the storage space during the process of receiving data, and change and set the storage rules of the data in real time. According to this, in the process of receiving the data, according to the data storage rules set in steps S415 to S450, it is checked whether the received data belongs to the goods in the scope of the combination, and the data is stored according to the data storage rule.

An additional embodiment will be described below to illustrate the detailed steps of storing data. 6 is a flow chart of a method of storing data in accordance with an embodiment of the present invention. Referring to FIG. 1 and FIG. 6 simultaneously, in step S605, the operation module 140 is used to check whether the real-time transaction data received by the receiving module 110 belongs to the product in the consolidation scope preset in the data storage rule in step S445. . In this embodiment, the real-time transaction data is a product detail.

When the product details are products belonging to the merged range, the calculation module 140 temporarily stores the product details in the temporary storage space 120 as shown in step S610. Next, in step S615, the operation module 140 checks whether the number of items accumulated in the item details in the temporary storage space 120 is the same as the number of combined items set by the data storage rule. If they are the same, as shown in step S620, the computing module 140 merges the product details and then writes them to the storage module 130. If the number of pens accumulated in the product details in the temporary storage space 120 has not yet met the number of merged pens, the number of pens accumulated in the product details is in accordance with the number of combined pens and then merged.

In this embodiment, the computing module 140 directly writes the product details to the storage module. However, in other embodiments, the operation module 140 may directly store the product details in the temporary storage space 120. If the number of products accumulated in the temporary storage space 120 has been consistent with the number of combined items, the operation is performed. The module 140 then writes the merged product details to the storage module 130.

Returning to step S605, when the product details do not belong to the product in the merged range, the operation module 140 directly writes the product details into the storage module 130 as shown in step S625.

For example, FIG. 7A to FIG. 7E are schematic diagrams showing a combination of stock market commodity details according to an embodiment of the present invention. Referring to FIG. 7A to FIG. 7E , in this embodiment, the transaction details of one commodity are taken as an example, and it is assumed that the “single amount” content in the transaction details of each of the two instant transaction materials is merged into one.

Figure 7A is a breakdown of the transaction before the merger. Figures 7B to 7E show the implementation of the "single amount" of the two transaction details into one. When the time passes to 13:02, it indicates that there are two transaction details of 13:00 and 13:02 in the temporary storage space 120. Therefore, the two transaction details of 13:00 and 13:02 can be combined and written to the storage module 130. In another embodiment, when the time passes until 13:00, the 1 transaction details of 13:00 are temporarily stored in the temporary storage space 120, and the time is passed until 13:02, 13:02. One transaction detail will be directly merged with the one transaction detail of 13:00 in the temporary storage space 120, and then written to the storage module 130.

Since the merger is a destructive compression, the way of the merger is also different depending on the characteristics of the data. The content of the merger can be determined based on the content of the application. For example, in terms of time, buy, sell, trade, and quantity, except for the single amount, only the last time, buy, sell, and trade are recorded in the merger, and the total amount is added. As shown in Fig. 7B, the transaction details shown at 13:02, the single quantity 2 at 13:00 plus the single quantity 28 of 13:02 gives a total amount of 30.

Next, in FIG. 7B, when the time passes to 13:05, there is only a transaction detail of 13:05 in the temporary storage space 120. At this time, the transaction details of 13:02 of FIG. 7B have been stored in the storage module 130. Then, in FIG. 7C, when the time passes to 13:06, the transaction details of 13:05 and 13:06 shown in FIG. 7A can be merged into the transaction details of 13:06 of FIG. 7C, that is, 13: The total amount of 06 is 3 plus 9.

In FIG. 7D, when the time passes to 13:07, there is only a transaction detail of 13:07 in the temporary storage space 120. At this time, the transaction details of 13:02 and 13:06 of FIG. 7D have been stored in the storage module 130. Then, in FIG. 7E, when the time passes to 13:08, the two transaction details of 13:07 and 13:08 shown in FIG. 7A can be merged into the transaction details of 13:08 of FIG. 7E, that is, 13: The total amount of 06 is 6 plus 146.

By analogy, when there are two pieces of data in the temporary storage space 120, the merge action can be performed. Or merge directly with the previous data that already exists in the temporary storage space 120.

In addition, the above method of merging data can be performed by a computer program product. The computer program product basically consists of a plurality of code segments, and after the code segments are loaded into the electronic device and executed, the method for combining the data can be completed.

In summary, in the above embodiment, the time factor is added as the basis for judging the data merge, so as to avoid the single storage module to judge and make the data merge in the second half, so that the user is not easy to perceive the merge of the data. In the case of real-time stock trading, as the daily trading volume is different, there may be a dull trading with the hot network. The above embodiment can be used in the environment of limited storage modules and before the time checkpoint arrives. Keep being able to expose considerable information. Moreover, when the transaction volume is large, the storage space of the storage module will not be exhausted.

Although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the invention, and any one of ordinary skill in the art can make some modifications and refinements without departing from the spirit and scope of the invention. Therefore, the scope of the invention is defined by the scope of the appended claims.

100. . . Electronic device

110. . . Receiving module

120. . . Scratch space

130. . . Storage module

140. . . Computing module

S210~S230. . . Method for merging data according to an embodiment of the present invention

S305~S350. . . Method for combining data in another embodiment of the present invention

S405~S450. . . Method for setting data storage rule according to an embodiment of the present invention

S605~S625. . . Method for storing data according to an embodiment of the present invention

1 is a block diagram of an electronic device in accordance with an embodiment of the present invention.

2 is a flow chart of a method of merging materials in accordance with an embodiment of the present invention.

3 is a flow chart of a method of merging materials in accordance with another embodiment of the present invention.

4 is a flow chart of setting data storage rules in accordance with an embodiment of the present invention.

Figure 5 is a schematic illustration of the prioritization of merged material in accordance with an embodiment of the present invention.

6 is a flow chart of a method of storing data in accordance with an embodiment of the present invention.

7A-7E are schematic diagrams showing a combination of stock market commodity details in accordance with an embodiment of the present invention.

S210~S230. . . Method for merging data according to an embodiment of the present invention

Claims (34)

A method for merging data is applied to an electronic device having a storage module of a predetermined storage space and receiving a plurality of packets transmitted from a remote server within a preset time range The method includes the following steps: dividing the time range into a plurality of time check points; monitoring the use condition of the storage space of the storage module at each time check point; and when the use condition of the storage space reaches one When the preset condition is met, the data received between the time check point and the next time check point is processed according to a preset merge rule, and then the processed data is updated to the storage module. . The method for merging the data as described in claim 1 further includes: providing a temporary storage space for temporarily storing the received data and updating the data to the storage module. The method for merging materials according to claim 1, wherein the preset condition is established according to determining a percentage of use of the storage space and a percentage of the time range. The method for merging materials according to claim 3, wherein when the usage status of the storage space reaches the preset condition, the data received between the time check point and the next time check point is based on The step of processing the merge rule includes: when determining that the percentage of the time range is less than or equal to the storage space In the case of the percentage of use, according to the merger rule, the quantity to be merged is added, and the quantity is merged, and the data is combined. The method for merging materials according to claim 3, wherein when the usage status of the storage space reaches the preset condition, the data received between the time check point and the next time check point is based on The step of processing the merging rule includes: when determining that the percentage of the time range is greater than the usage percentage of the storage space, according to the merging rule, reducing a quantity of the data to be merged, and combining the quantity Unit, merge the information. The method for merging materials according to claim 3, wherein when it is determined that the percentage of passage of the time range is greater than the percentage of use of the storage space, the method further comprises the steps of: determining whether the merging of the materials has been performed; If it is judged that the merging of the materials has been started, according to the merging rule, the amount of the data to be merged is reduced, and the data is merged by the number of the merging units. The method for merging materials according to claim 6 of the patent scope further includes the following steps: if it is judged that the merging of the materials is not started, the received materials are directly stored, and the materials are updated to The storage module. The method for merging materials according to claim 3, wherein when the usage status of the storage space reaches the preset condition, the data received between the time check point and the next time check point is based on The The step of processing the merge rule includes: when the percentage of the time range is less than or equal to the usage percentage of the storage space, determining, according to the merge rule, a priority order for the data to be merged, and according to the priority order, Combine the information. The method for merging the data according to the first aspect of the patent application, wherein the step of updating the processed data to the storage module further comprises: adjusting a storage format of the storage module to store the data. The method for merging materials according to claim 9, wherein the storage format comprises one of a 2-byte, a 4-byte, an 8-bit, and a 16-bit. A method for merging data is applied to an electronic device connected to a remote stock market real-time transaction information server, the electronic device having a preset storage space storage module for a preset Receiving a plurality of real-time transaction data transmitted from the stock market real-time transaction information server within the trading time range, the method comprising the steps of: dividing the transaction time range into a plurality of time check points; checking at each time of arrival Performing to monitor the usage status of the storage space of the storage module when the point is used; and when the usage status of the storage space reaches a preset condition, the instant transactions received between the time check point and the next time check point After the data is processed according to a preset merge rule, the processed real-time transaction data is updated to the storage module. For example, the method of combining the materials mentioned in the scope of patent application 11 The method further includes: providing a temporary storage space for temporarily storing the received data, and then updating the data to the storage module. The method for merging materials according to claim 11, wherein the preset condition is established according to a percentage of use of the storage space and a percentage of the transaction time range. The method for merging materials according to claim 13 , wherein when the usage status of the storage space reaches the preset condition, the instant transactions received between the time check point and the next time check point are The step of processing the data according to the merging rule comprises: when determining that the percentage of the time range is less than or equal to the usage percentage of the storage space, according to the merging rule, increasing the quantity of the real-time transaction data to be merged, and Combine the instant transaction data with the quantity as the unit of consolidation. The method for merging materials according to claim 13 , wherein when the usage status of the storage space reaches the preset condition, the instant transactions received between the time check point and the next time check point are The step of processing the data according to the merging rule includes: when determining that the percentage of the time range is greater than the usage percentage of the storage space, according to the merging rule, reducing the quantity of the real-time transaction data to be merged, and The quantity is the combined unit, and the real-time transaction data is merged. The method for merging materials according to claim 13 wherein the percentage of passage of the time range is greater than the storage space. When the percentage is used, the following steps are further included: judging whether the merging of the materials has been performed; and if it is judged that the merging of the materials has been started, according to the merging rules, reducing the amount of the data to be merged, The quantity is the combined unit and the information is combined. The method for merging materials according to claim 16 further includes the following steps: if it is judged that the merging of the materials is not started, the received materials are directly stored, and the materials are updated to The storage module. The method for merging materials according to claim 13 , wherein when the usage status of the storage space reaches the preset condition, the instant transactions received between the time check point and the next time check point are The step of processing the data according to the merging rule includes: when the percentage of the time range is less than or equal to the usage percentage of the storage space, determining a priority order of the real-time transaction materials to be merged according to the merging rule, and According to the priority order, the instant transaction materials are combined. The method for merging the data according to claim 11 , wherein the step of updating the processed real-time transaction data to the storage module further comprises: adjusting a storage format of the storage module to store These instant transaction materials. A method for merging materials as described in claim 19, wherein the storage format comprises 2 bytes, 4 bytes, 8 bytes, and One of the 16-bits. A computer program product that, when loaded into a computer program and executed, can complete the method of applying for the combined data described in item 1 or item 20 of the patent scope. An electronic device comprising: a storage module having a predetermined storage space; a receiving module receiving a plurality of data transmitted from a remote server within a predetermined time range; and a The operation module divides the time range into a plurality of time check points, and monitors the usage status of the storage space of the storage module at each time check point. When the usage condition of the storage space reaches a preset condition, The data received between the time checkpoint and the next time checkpoint is processed according to a preset merge rule, and then the processed data is updated to the storage module. The electronic device of claim 22, further comprising: a temporary storage space for temporarily storing the data received by the receiving module, so that the computing module updates the data to the storage module Inside. The electronic device of claim 22, wherein the computing module further comprises: when the percentage of the time range is less than or equal to the usage percentage of the storage space, adding the data to be merged according to the combining rule a quantity, wherein the quantity is a unit of consolidation, the materials are combined, and when the percentage of passage of the time range is greater than the percentage of use of the storage space, the quantity to be merged is reduced according to the merger rule And the amount is the combined unit, and the funds are combined. material. The electronic device of claim 22, wherein the computing module further comprises: when the percentage of the time range is less than or equal to the percentage of use of the storage space, determining the data to be merged according to the combining rule a priority order, and according to the priority order, merge the materials. A method for setting a data storage rule is applied to an electronic device having a storage module of a predetermined storage space and receiving a transmission from a remote server within a preset time range. The plurality of data includes the following steps: dividing the time range into a plurality of time check points to monitor the usage of the storage space of the storage module at each time check point; when the storage space is used When the percentage of the time range is greater than the percentage of the time range, the range of the data content to be merged is increased, and when the range has reached an upper limit value, the quantity to be merged is increased; and the combination is performed according to the foregoing The range and the number, set a data storage rule. The method for setting a data storage rule according to claim 26, further comprising a priority order set according to the content of the data, and determining the range of the data content to be merged according to the priority order. The method for setting a data storage rule according to claim 26, wherein when the percentage of use of the storage space is less than or equal to the percentage of the time range, the following steps are further included: Determining whether the merging of the materials has been performed; and if it is determined that the merging of the materials has begun, according to the merging rules, the number of the materials to be merged is reduced, and the data storage rules are updated. The method for setting a data storage rule according to claim 27 of the patent application further includes the following steps: when the quantity that can be merged has reached a lower limit, according to the priority order, reducing the data to be merged Scope and update the data storage rules. The method for setting a data storage rule according to claim 27, further comprising the following steps: if it is determined that the combination of the materials is not started, checking whether the current time check point is the last time check point If the result of the check is yes, proceed to the next time checkpoint to monitor the usage of the storage space of the storage module. A method for storing data is applied to an electronic device having a storage module of a predetermined storage space and receiving a plurality of packets transmitted from a remote server within a predetermined time range. Pen data, and a temporary storage space for temporarily storing the data, the method comprising the steps of: checking whether each of the materials meets the data within the scope of the consolidation specified by a predetermined data storage rule; When each of the materials meets the range, each of the data is temporarily stored in the temporary storage space; and whether the number of the accumulated data in the temporary storage space is checked is The data storage rule sets the same number of merged pens; and if they are the same, the data is merged according to the data storage rule and written into the storage module. For example, the method for storing data as described in claim 31 of the patent application further includes the following steps: when checking that each of the materials does not meet the data within the scope specified in the data storage rule, Some data is written to the storage module. A method for storing data is applied to an electronic device having a storage module of a predetermined storage space and receiving a plurality of packets transmitted from a remote server within a predetermined time range. Pen data, and a temporary storage space for temporarily storing the data, the method comprising the steps of: checking whether each of the materials meets the data within the scope of the consolidation specified by a predetermined data storage rule; When each of the materials meets the scope, each of the materials is directly merged and temporarily stored in the temporary storage space; and whether the number of the accumulated data in the temporary storage space is related to the data storage rule The number of combined pens is the same; and if they are the same, the data is written to the storage module. The method for storing data as described in claim 33, further comprising the steps of: when examining each of the materials that do not comply with the scope of the scope specified in the data storage rule, directly Some data is written to the storage module.