JPH026120B2 - - Google Patents

Description

[Detailed Description of the Invention] [Field of Industrial Application] The present invention provides a sales data processing device with a designated data output function that outputs sales data that includes designated specific data among sales data inputted and sequentially stored. Regarding.

[Prior Art] For example, in a sales data processing device with an output function such as an electronic register, sales data is stored in association with a series of numbers in the order of input, and then returned. If something like this occurs, by specifying a series of numbers, the corresponding customer's sales data will be printed out on receipt paper.

[Problem to be Solved by the Invention] Therefore, when checking the sales data of each customer including specific data, for example, the sales data of each customer including the specific data corresponding to the correction key operation must be checked at the time of closing. In order to do this, conventionally, the operator records the series number for each customer that has had to be corrected, etc., and when the store is closed, etc., the operator enters all the series numbers that have been recorded. Sales data for each customer must be printed on the receipt and checked. Therefore, in the past, it took a lot of time for operators to record books, etc.
Furthermore, since all of the serial numbers must be input, it is time-consuming to print out the data, and there is also the risk of input errors.

An object of the present invention is to easily and accurately output sales data for each customer including specific data.

[Means to solve the problem] The means of this invention are as follows.

Storage means (journal memory 7, etc.) for sequentially storing input sales data for each customer; designation means (input unit 1, etc.) for designating specific data among the input sales data; designation by the designation means; searching means (CPU 5, step S15, etc. processed by this CPU 5) for searching the sales data of each customer in the storage means including the specific data searched; It is equipped with a reading means (CPU 5, step S9, etc. processed by this CPU 5) for reading out all data, and an output means for sequentially outputting the read sales data for each customer.

Note that the words in brackets are added for reference in order to clarify how the above-mentioned means are embodied in the embodiments.

[Effect] The operation of the means of this invention is as follows.

For example, sales data for each customer input from an input device is sequentially stored in the storage means. Further, when specific data such as corrections is specified by the specifying means, all sales data for each customer including specific data such as correction data stored in the storage means is searched by the search means, and this searched data is searched by the search means. Sales data for each customer is sequentially read out by the reading means and outputted by the output means. Therefore, output of sales data for each customer including specific data can be easily and accurately obtained.

[Example] An example will be described below with reference to FIGS. 1 to 6.

FIG. 1 shows a schematic system configuration diagram of an electronic register, and this input section 1 includes an amount key, a department key,
In addition to being equipped with keys for each transaction, "registration",
It is equipped with a mode switch to specify each mode such as "inspection" and "payment". A timing signal KP is given to this input section 1 from an I/O port 2, and when a key operation is performed in the input section 1, the timing signal KP is selected according to the operation, and the input signal KP is selected as a key input signal KI. The signal is input to input buffer IB provided at /O port 2. In addition to the input buffer IB inside the I/O port 2,
A display buffer HB and a print buffer PB are provided, and the display buffer HB is provided on the display section 3.
The printing buffers PB are each connected to the printing section 4.

The display section 3 displays amount data and the like in accordance with the segment signal SG obtained by decoding the digit signal DG from the I/O port 2 and the data in the display buffer HB. The printing section 4 is also equipped with one printer for printing on recording paper, and receives a print position signal TP from a print drum (not shown) as an I/O.
Send to port 2, and from I/O port 2,
A print drive signal is generated by matching the print position signal TP with the data in the print buffer PB.
The MD is sent to the printing unit 4, and amount data and the like are printed on recording paper.

Further, reference numeral 5 is a CPU, and this CPU 5 is connected to an I/O port 2 and a clock circuit 6 via an address bus AB, a data bus DB, and a control bus CB.
is connected. Furthermore, each bus AB, DB,
A journal memory 7 having a predetermined capacity is detachably connected to the CB. And CPU5 and I/O
Data is exchanged between the port 2 and the journal memory 7, and data stored in the clock circuit 6 is sent to the CPU 5.

Although not shown, a RAM for storing various total amounts is connected to the CPU 5 and data is exchanged therewith.

The clock circuit 6 includes a register CLK that stores current hour and minute data, and a register DATE that stores year, month, and date data. Then, the memory data is updated every second,
During this update operation, a busy signal BY is output to the CPU 5.

The journal memory 7 has a storage capacity for 16 digits in which the storage area of each row corresponds to column addresses 0 to 15, and 4-bit data is sequentially stored in each digit in response to each key operation on the input section 1. be remembered. That is, as shown in FIG. 2, codes "1" to "9" are stored in response to operations on the amount keys 0 to 9.
In order to explain this key code in an easy-to-understand manner by associating it with each operation key, the following will be described using a mnemonic for convenience. In other words, the codes "1" to "9" and the messages "1" to "9"
corresponds. Similarly, departmental keys 01-04
is the code "A" ~ "D" and the news 01 ~
04 respectively. Similarly, the exchange key to withdrawal key, which are operated at the end of registration, correspond to the 8-bit codes "E0" to "E5" and the news signals NS to PD. Similarly, the tax key ~ minus key is the code "E6" ~
"ED" corresponds to the news TX~□-, respectively. Also, date data, person in charge A~D
The data receipt number, mode data of REG to SET, time, stop/resume indicating recovery from power outage, and END data correspond to 8-bit codes "F0" to "FD" and mnemonics DA to END, respectively.

Next, the operation of this invention will be explained.

Now, the journal memory 7 with the required capacity is connected to the electronic register, and at this time, as shown in Figure 3, when the power to the electronic register is turned on, the current year, month, and date data stored in the register DATE will be read. The data is read out and written to the 0th row and 0th to 5th columns of the journal memory 7 as shown in FIG. 4, and the date code DA is further written to the 0th row, 6th, and 7th columns. Next, set the mode switch to REG and the person in charge switch to A, and set the amount key to 1.
23, line 0 of journal memory 7,
REG is written in the 8th and 9th columns, and □A is written in the 10th and 11th columns. Next, when you operate department key 01,
Data "123" is in row 0 and columns 12 to 14, row 0 and column 15,
Department code 01 is written in the 1st row and 0th column.
Similarly, when you operate the amount key 456 to cash/deposit key cash/deposit, 1 of journal memory 7
The key code is written from the 1st row to the 2nd row and 7th column, and the time data "0815" stored in the register CLK is written from the 2nd row and 8th column to the 13th column, and then the time code TM is written. It will be done. Similarly,
The person in charge switch is switched to B, and the data up to the credit sale key operation is stored in the 2nd row, column 14 to the 4th row, column 8 of journal memory 7.Then, the person in charge switch is switched to A, and the data up to the credit sale key operation is stored in journal memory 7. Data for 2 customers is shown in row 4, column 9 to column 8, row 7, then the responsible person switch is switched to B, and data for 3 customers up to the operation of the cash/deposit key is shown in row 8, column 8. After each data is written in the 11th row and 5th column, an END code END indicating the end of writing is stored. Thereafter, when a key operation is performed, data corresponding to the operated key is newly written from the area where the END code is stored, and is sequentially stored in the journal memory 7 in the same manner as described above. In addition, in accordance with each key operation, various data such as amount data and departmental data are displayed on the display section 3, and
The information is printed on recording paper in the printing section 4.

Next, if you want to print and inspect a group of data for one customer that includes the data corresponding to the specified key among the data stored in the journal memory 7, after specifying the mode switch to "inspection" mode,
Operate the required designated key. Then, the operation according to the flow shown in FIG. 5 is executed, and first, in the execution of step _S1 , the key code of the operated designated key is input to the print buffer PB, and is printed on the recording paper in the printing section 4. Next, the process moves to step _S2 , where the contents M(IX) of the storage area of the journal memory 7 specified by the IX register of the CPU 5 are executed.
is written to the X register. Then step S ₃
The contents of the IX register are sequentially updated, and the date data, mode data, and person-in-charge data are sequentially read out from the storage area M(IX) to the X register, and then stored in each register of the CPU 5. Next, the process moves to step _S4 , where it is determined whether or not the contents of the X register are the end key code.If YES, the process moves to step _S5 . In executing step _S5 , “0” is set in flag area _F4 .
is written. Next, the process moves to step _S6 , where "1" indicating the completion of one registration is added to the contents of the H register of the CPU 5, and this addition result becomes H.
written to the register. Next, the process moves to step _S7 , the contents of the IX register are executed, and after this index data is written to the Y register, the process returns to step _S2 .

In the execution of step _S4 , if it is determined that the contents of the X register are not the end key code, the process moves to step _S8 . “1” is set when the specified key code is read out from the journal memory 7 in the flag area _F4 in the execution of step _S8 .
A determination is made as to whether or not it is stored, and if it is determined that it has been set, the process moves to step _S9 . In the execution of step _S9 , the contents M(IX) of the journal memory 7 are written to the X register. Next, the program moves to step _S10 , where code-specific calculations such as calculating change are performed according to the key code stored in the X register. Next, the process moves to step _S11 , where the calculated sales data is added to the subtotal and stored. Next, proceed to step _S12 ,
Calculated data or subtotal addition results corresponding to the key code are printed on recording paper in the printing section 4, and then the process returns to step _S2 .

In the step _S8 , “0” is set in the flag area _F4 .
If it is determined that the
Move on to _S13 . In executing step _S13 , it is determined whether the contents of the X register are the designated key code or not, and if the determination is YES, the process moves to step _S14 . In executing step _S14 , the flag area
"1" indicating reading of the specified key code is set to _F4 . Next, proceed to step _S15 ,
The index data that specifies the next address of the previous end key code stored in the Y register is
After being transferred to the IX register, the process moves to step _S2 .

In executing step _S13 , if it is determined that the contents of the X register are not the designated key code, the process moves to step _S16 . In the execution of step _S16 , it is determined whether the contents of the X register are the END code or not. If it is determined to be YES, the specified data printing operation is ended, and if it is determined to be NO, the process returns to step _S2 .

Then, specify the correction key as the specified key,
To print customer-specific sales data including corrected data, operate the amount key □0 and correction key □correction in the "inspection" mode as shown in Figure 6A.
The above-mentioned step _S1 is executed and the recording paper "0...
"Revision 0" is printed, and each step S ₂ to _{S 4} ,
After S ₈ , S ₁₃ , S ₁₆ , and S ₂ are repeatedly executed, steps S ₁₃ to _{S 15} are executed, and then steps S ₂ to S 2 are executed.
As a result of repeatedly executing S ₄ , S ₈ to S ₁₂ , and S ₂ , a group of data for one customer "01・123" to "A" is printed on the recording paper.
"NO 1" are printed in sequence. In exactly the same way, a data group for another customer including corrected data is sequentially read out from the journal memory 7 and printed on the recording paper. Also, specify the tax key as the specified key, and as shown in Figure 6B, the amount key □0 and the tax key
When the TX is operated, a group of data for one customer, including tax data, is sequentially printed on the recording paper.

In the above embodiment, the case where the designated key is operated in the "inspection" mode has been described, but the same can be applied to the case where the designated key is operated in the "settlement" mode.

Further, in the above embodiment, the journal memory 7 is configured to be connected detachably, but it may be fixedly provided in the electronic register.

Further, in the above embodiment, the key code data corresponding to the operation keys are sequentially stored in the journal memory 7, but the journal memory 7 stores the amount data, etc. after input processing has been performed in correspondence with the operation keys. It may be memorized.

Furthermore, not only data input by key operations but also data input by OCR, OMR, etc. may be sequentially stored in the journal memory.

[Effects of the Invention] According to the present invention, for example, the specification to output all sales data for each customer including corrected data can be specified by operating a correction key, etc., compared to conventional methods. It is easy to specify when outputting sales data for each customer including specific data, and since specifying the specific data is easy, there is no fear of incorrect input, etc., and accurate sales data can be obtained. be able to.

[Brief explanation of drawings]

Fig. 1 is a schematic system configuration diagram showing the embodiment, Fig. 2 is a diagram showing the codes stored in response to each key operation of the key type of the embodiment, and its mnemonic, and Fig. 3 is the embodiment. FIG. 4 is a storage state diagram of the journal memory in which key codes corresponding to the key input operations of FIG. 3 of the same embodiment are stored, and FIG. 5 is a flowchart of the same embodiment. , FIGS. 6A and 6B are diagrams showing the printing state of recording paper produced according to the flow shown in FIG. 1...Input section, 4...Printing section, 5...CPU,
7...Journal memory.

Claims (1)

[Claims] 1. Storage means for sequentially storing input sales data for each customer, specification means for specifying specific data among the input sales data, and said memory containing the specific data specified by said specification means. a retrieval means for retrieving sales data of each customer; a reading means for reading out all the sales data of each of the retrieved customers from the storage means; and an output for sequentially outputting the read sales data for each customer. A sales data processing device with a designated data output function.