JPS59100945A - Information processor - Google Patents

Abstract

PURPOSE:To simplify the operation of an information processor by providing a means which refers to YES to an inquiry for correctness of the input numerical value in case no operation is carried out with a YES or NO key within a prescribed period of time. CONSTITUTION:For instance, the input data is fetched to a CPU20 by an input key 3 via an I/O23 and stored in an RAM22 with a money input/output controller. In this case, the balance from the previous month, the present balance, the minimum deposit balance and the number of the last check are supplied in the form of the input data and stored in each register. In this case, a DISP2 displays an operation for confirmation of correctness of the supplied contents. When these four types of data are supplied correctly or incorrectly, an operator turns on the YES and NO keys respectively. Then YES is decided and returned to a main routine in case no YES key nor NO key are turned on within a prescribed period of time since the confirming operation is displayed for the contents supplied by the DISP2.

Description

[Detailed Description of the Invention] Technical Field, Object of the Invention, and Structure of the Invention The present invention inquires whether the numerical value input by the user is correct. An information processing device (for example, a personal account deposit/withdrawal management device (computer 9 (including complex products with watches, etc.), and was specifically designed to simplify operation.In the information processing device with the above configuration, after the above inquiry, the above The above purpose was achieved by providing a means for determining YES when the YES key or No key is not operated, so that when the answer is YES, there is no need to operate the YES key. The present invention provides an information processing device characterized by the following.

<Example> Hereinafter, the present invention will be described in detail based on Examples.

FIG. 1 is an external view of a personal account deposit/withdrawal management device according to an embodiment of the present invention.

In the figure, a main body I is provided with a dot matrix liquid crystal display 2 and an input key 3.

A case 4 is attached to the main body I, and also has a card holder 5 that stores a plurality of credit cards and fixes a personal check spelling 6. and a holder 8 for fixing the ballpoint pen 7. Main body 1
A terminal 1a for connecting to an external device is formed on the side of the terminal 1a, and a printer 9, which is an optional device, is connected to this terminal
I am making it possible to connect to.

The input keys 3 are comprised of numerical keys 3a, function keys 3b for performing arithmetic operations and reading and writing to memory, and function keys 3c for inputting transaction information. Function key 3C, YES key and NO key used to check whether the displayed content is correct or incorrect HELP key used when you do not know the usage status of the device, EN used when entering transaction information
It consists of the TER key.

FIG. 2 shows an example of the display state on the display 2. FIG.

The first number 1012 represents the check NOl. The next 1055.89 represents the check amount ($). Furthermore, the next 1175.42 is the current balance (current balance)
represents.

FIG. 3 shows the display state when determining the operating mode of the device. This display state is formed when the power is turned on, and inquires whether the operating mode is check mode, credit card mode, or calculator mode. 7.8, 9 of oyster-3. The keys ÷ and Cl0N are arranged in the positions shown in the figure when this inquiry is displayed. The operation mode is determined by turning on either the input key 7, 91 or the Cl0N key. That is, turning on the 7 key selects the check mode, turning on the 9 key selects the credit card mode, and turning on the 1 or Cl0N key selects the calculator mode. FIG. 4 shows the display state displayed when any one of the five types of credit cards A to H is selected.

At this time, each of the five types of keys is located just below the displayed positions of A, B, C, D, and E, as shown in the figure. Therefore, for example, if the 7 key is turned on, card A is selected, and if the ÷ key is turned on, card D is selected.

FIG. 5 is a block diagram of the deposit/withdrawal management device of this embodiment6. The CPU 20 includes a ROM 21 for storing programs, and a RAM 22 for storing transaction information and to which other work areas and flags are allocated. Bus connected, Kukaki 3
Input data from F and R is taken into the CPU 20 via 1102B. The display data is displayed on the display 2 via l1023. In addition, auto clear key A
CL, , and external terminal E are connected to 11028.

FIG. 6 is a memory map of the main parts of the RAM 22.

Area MA constitutes a storage means for registering transaction information, and stores check No. (check number) and its check number.

30 registers each storing the amount of money (check amount) No. 29. It has MO-M29.

Area Mj3 is composed of five memories that store the cumulative amounts used for each of five types of cards A to E.

Area MC consists of 14 tree registers O, P, Q, and R. Register O stores the opening balance, which is the amount carried over from the previous month. Register P stores the current balance, which is the current balance. Register Q memorizes the minimum balance, which is the minimum deposit balance in the account. The minimum balance is the minimum amount of money you have in your bank account that allows you to write a check without having to pay any fees from the bank. Register R
is the number of the last check. Write down.

Area MD is composed of four-tree calculation registers x, y, Z, and W, and a memory M for storing calculation data.

Area ME is composed of counter n+d1b, counter n specifies the addresses of the 30 registers of area MA, and counters d and b are used when executing RECONCILE mode (deposit/withdrawal verification routine, which will be described later).

Next, the operation of the deposit/withdrawal management device having the above configuration will be explained with reference to the flowcharts from FIG. 7 onwards.

FIG. 7 shows the main routine.

First, when the battery is inserted, step N.

(hereinafter step ni will be simply referred to as ni), an initialization subroutine INT is executed. In this initialization subroutine INT, the opening balance, current balance, minimum balance, and last check number necessary for deposit/withdrawal management are determined.

are respectively stored in area MC of the RAM.

FIG. 8 shows a flowchart of this initialization subroutine.

At n30, the memory is reset 1, and the areas to which the reset is performed are all the areas shown in FIG. Next, "HELLONICEMEET" T with n3l-n83
OYOU, I'M YOUR” PROPERTYMAN
The contents of the greeting "AGER" are displayed in three stages at intervals of 0.5 to several seconds. When this display is finished, n84
+ n 35 “PLEASE ENTER” “0P
ENING BALANCE" is displayed, prompting the user to enter the opening balance, which is the actual balance of the bank account at the end of the previous month. Subroutine E6 of n36 is a subroutine that stores the amount entered using the input key in register X. Figure 9 shows a flowchart of this subroutine E6.
(X)" is displayed to prompt the user to input the amount using the numerical keys. The numerical data inputted from the input key 3 at n71 is stored in the register X, and its contents are displayed on the display 2 at the same time. Numerical data input until the ENTER key is pressed is stored in register
Returns when the ENTER key is pressed.

At n35 in FIG. 8, since the opening balance is in a waiting state for input, the opening balance is stored in register X when subroutine E6 at n36 is executed. n37 lever transfers the contents of register
EASE ENTER""MINIMUM BALA'
NCE” is displayed and prompts you to input the minimum balance.Similar to the n86 above, the minimum balance 1n4
Stored in register X by subroutine E6 of 1.
It will be done. Further, the minimum balance stored in this register X is transferred to register Q. In n48+'n45, "THANK YOU""PLEASE EN
Displays TER “LASTCHECK No.”
Last check NO.

prompt for input. Then, at n46, register XK last check NO. is stored, and at n47, the contents are transferred to register R. Still, in n48~n50, "TH
ANK YOU"PLEASE ENrER""CUR
RENT BALANCE" is displayed to prompt the input of the current balance. When the contents are input at n51, the input current balance is transferred to the register P at n52. In the above manner, the opening balance, minimum Balance, last check NO
,,Current balance is I''L register o, Q,
After storing R+PK respectively, next n53. n, 5
4°'THANKS” “YOURCo-0PE, RA
TION” and express gratitude.Furthermore, n 55~n
59, “OPN BALxxxxx, xx” M'lN
ABLXXXX.

××”LAST No.××××”Ck N”1BA
LXXXX, XX "OK 7" will be displayed above and prompt you to confirm whether the entered information is correct 3, if these 4
If the type data has been entered correctly, the operator turns on the YES key. If it is not correct, turn on the No key. If the No key is turned on, the process returns to n84 and prompts for input from the opening balance again. And YE
When the S key is turned on and input is completed, the process returns to the original main routine. Furthermore, although it is not shown in the flowchart, if neither the YES key nor the No key is turned on within a predetermined time after the n59's "OK?" It is configured to return to the routine.

In this way, by displaying a series of data (current balance, opening balance, minimum balance, last check number, etc.) necessary when executing the check mode together with the type, the operator can immediately store the correct data. You can check whether the information has been entered into the correct register.

In nl of the main routine, “C[IECK?CARD
? CALL? ” is displayed (see FIG. 3). This display state is now <ST>. As mentioned above, this <8> state is a state that prompts the determination of the operation mode of the deposit/withdrawal management device. The operation mode is determined by operating one of three input keys, 7, 9, or Cl0N.

n3 to n5 are the determination steps. <S, T
> When the HELP key is operated in the state of
The execution of the subroutine H1 from n2 to n6 begins. , 1st θ
The figure is a flowchart of this subroutine H1. In this subroutine H1, first, in n80 and n81, "WOULD YOU USE""FOR(l(EC
"KBOOK" is displayed to inquire whether this device is to be used in check mode. At n82, it is determined whether the YES key or the No key has been operated, and if the YES key has been operated, the main routine shown in Figure 7 is executed. Proceed to n8. If the key is No, proceed to n83.
3゜n84 “W OU L D ’XY O
U U S E” “FORCARD, MEMO
"R'Y" is displayed to inquire whether this device is to be used in credit card mode.If the YES key is operated in n85, the main routine n in Figure 7 is displayed.
Proceed to step 14. Also, if the No key is operated, the process advances to n86, and at n86 + n87, “WOULDY You” is pressed.
USE "FORCALCULATION" is displayed to inquire whether to use this device as a calculator. If the YES key is operated at n88, the process advances to nl of the main routine in FIG. If the No key is still operated, the nl (s T>
Return to

In this way, in subroutine H1, the operation mode is determined based on the type of interaction with the device.

Therefore, if the operator does not know how to use this device, he or she can easily set the operating mode by interacting with the device itself by operating the HELP key.

Returning to the main routine of FIG. 7, if the 7 key is operated in the display state of (ST), the check mode is selected and the process advances to n8. In n8, “'WRITE CH
ECK? ” and asks whether to write a check. If so, proceed to n20 and execute subroutine WCK.
Execute. If so, proceed to 1110 and select “DEPO”.
3IT"?" is displayed and an inquiry is made as to whether or not to make a deposit. If the YES key is operated, the process advances to n19 to execute the subroutine DEP3; otherwise, the process advances to n12, where "RECONCILE?" is displayed and an inquiry is made as to whether or not to reconcile the deposits and withdrawals made so far. Y
If the ES key is operated, proceed to 18 and subroutine RFC
'jz Execute. If not, return to nl NOKU ST〉7, and H9. Hl ], If the HELP key is operated in n13, the state immediately returns to the <ST> state of nl1. On the other hand, if the 9 key is operated in the state of (s T>, n4→n
Proceed to step 14. As described above, the operation of the 9 key selects the credit card mode. First with n14”C)l
A Rc E CA RD? ” and asks if you want to use the card to purchase items. YE
If the S key is operated, the process advances to n22 and subroutines C and H
Execute A. If the No key is operated, proceed to n16,
"PAYMENT7" is displayed, and an inquiry is made as to whether or not to pay for the use of the card. If the YES key is operated, the process advances to n2+ and subroutine PAY is executed. Otherwise nl noku ST
Return to >. If the HELP key is operated in n15 and n17, the process immediately returns to nl (ST).

If the Cl0N key is operated in the state of item 1 <ST>, the calculator mode is selected and the nl calculator subroutine is executed. The nl calculator subroutine is composed of known routines. And along the way, HELP
If a key is operated, the state immediately returns to the <sT> state of nl.

As described above, one of the check, credit card, and calculator operation modes is selected in the <ST> state, and furthermore, the operation contents in each mode are determined and the corresponding subroutines are set.

Next, the operation contents of each of the subroutines selected in steps n18 to n22 will be explained.

FIG. 11 (A>) is a flowchart of the subroutine WCK executed at n20 of the main routine.

n90 is a write check processing subroutine WS for turning off the check in the check mode.

After performing the necessary processing in this subroutine, n91 displays "NEXT WRITE?" and inquires whether to write another check.・If the YES key is operated in n92, the process returns to n90, and if the No key is operated, the process returns to n90. When it happens, it returns to the (ST) state.

FIG. 11(B) is a flowchart of the write check processing subroutine WS.

First, at n100, a lower subroutine nc is executed. This subroutine nc stores the area MA of the RAM 22, that is, the check NO. and the amount N.
, determine whether all 30 M regimenters have been used. After completing this determination, subroutines c and c are further executed at n+01. Here, it is determined whether the current current balance is less than the minimum balance. Details of these subroutines ItC and cc will be described later.

When the determination process described in - is completed, the contents of the current balance stored in the register P are displayed at n+02. At this stage, the operator can know whether the amount of the check he or she is about to write is less than or equal to the current balance, and can also determine whether the balance at the time of writing the check is greater than or equal to the minimum balance. can. Further, at n108, it is assumed that the checks are to be continuously turned off, and check NO. 0, which is the current last check No. stored in the register R and l added thereto, is displayed, and an inquiry is made as to whether this is OK. When the YES key is operated in n104, the process advances to n105, and assuming that the displayed check NO. Store in register Y. On the other hand, n104
If the No key is operated in , "E N T" is displayed in n106.
"E RCHECK No." is displayed above to prompt the user to input the correct check number. Then, in n107, the subroutine 134 is executed.

FIG. 12 shows a flowchart of subroutine E4.

“CHECK No.”

-(y > 11 is displayed, prompting you to enter the check number. Then, in the same way as inputting the amount in Figure 9, enter n'74.n75.
Store the data input in register Y.

When the ENTER key is operated, the process returns to the stuttering step.

When the execution in the above subroutine E4kn107 is completed, the correct check NO is stored in register Y.

will be stored, and then it is determined whether the stored check NO. has already been registered in area MA of the RAM 22 (n+08). If it is not registered, proceed to n109 and select “EN T E RA”.
``M OU N T'' is displayed above to prompt the input of the check amount. Then, in n110, subroutine E6 is executed and the check amount is stored in register X. Next, the check No. 0 stored in register Y and the check stored in register Display the amount as null and confirm whether it is correct.If the YES key is operated, the screen shown in Figure 11 (C
) Proceed to n1L4. Although not shown in the flowchart, if neither the YES key nor the No key is operated within a predetermined time after the null display starts, YES is selected.
It is regarded as S, and the process proceeds to n114 in FIG. 1I (C). Here, it is determined whether area MA of the RAM 22 is full. If so, proceed to nl 15 and transfer the contents of register Y to register R as last check No. 5. Also, the amount in register X is subtracted from the current balance in register P, and the result is stored in register P again. If the memory is not full, perform the same process as nl 15, register the contents of register Y to register Nfi of area MA, and register the contents of register X to register M.
Register to n. Furthermore, the counter nk is incremented. And the check No. registered in n117,
and display the check amount and current balance.
Proceed to 118. At n118, the current balance and minimum balance are compared as in n101 described above.

On the other hand, if the NO key is operated at nl+2 above, n11
At step 3, "PLEASE REWRITE" is displayed, and the process returns to n103 to check, no, and enter the check amount again.

With the above operation, check NO1 is input in n107,
When the check amount is entered in n1lO and a series of data input necessary for check processing is completed, the data and type are displayed at the same time in n111. It is possible to immediately check whether the information has been correctly entered into the register to be stored.

A flowchart of the subroutine nc of the above n100 is shown in FIG. 11(D).

Counter n is a register N that can be registered with a maximum of 30.
and points to M's address. If this value exceeds 30, all 30 registers have been registered and no more can be registered. Therefore, if n120 and the value of n exceeds 30, then from n+21 to n+23
ORY IsE M P T Y” “PLEASE
RECORD” “T O, A N Y P A
PER" is displayed to indicate that registration is not possible. If the value of n is 30 or less, the process returns to the original state without doing anything.

FIG. 11(E) is a flowchart of subroutine CC.

As mentioned above, this subroutine compares the current balance stored in register P with the minimum balance stored in register Q, and warns you if the current balance exceeds the minimum balance. . First, the contents of register P and register Q are compared at n124. If the former amount is more than the latter amount, it will return to the original state without doing anything, but if not, in n125 to n128, “CA
UT I ON” P L E A S E R E M
E 114 B E R” “YOU MUST
"PAY""CHARGEI" is displayed to warn the operator that he/she must pay a certain percentage of commission to the bank.In other words, when the operator writes a check, If you see this sign on your bank, you will know that you will have to pay a fee to your bank. Therefore, if you are trying to avoid paying a fee, you should make the deposit immediately or write the check at the time. All you have to do is cancel it.

The above-mentioned check cancellation processing can be performed in the above-mentioned subroutine WS. First, check No. 1 for cancellation is input at n107. Then n108→n1
Proceed to 30. The contents of the selected register M are code F.
Instead, proceed to n180 → n131 and check the check number you entered here. and the registered amount are displayed, and a confirmation display is performed to confirm whether or not to cancel (VOID). If the YES'S key is operated to cancel, the cancellation code F is stored in the register Mn, the amount of Mn is added to the current balance, the current balance is further displayed, and the process returns to the original state. Although not shown in the flowchart, if neither the YES key nor the NQ key is operated within a predetermined time after the display of n181 is started, it is regarded as YES, and the process proceeds to n133 and subsequent steps. A check that has been cut can be canceled using the above process3.On the other hand, a canceled check is also registered in the same way as a regular check through the above procedure, so it is possible to cancel the check when the check is written. When the check number is entered, nl
30→n135,” I TWAS VO
IDED" and that a canceled check is registered in the register is displayed. Then, the process advances to n113 and a display prompting the input of a new check No. 0 is displayed.

When you cut a check as described above, cut once.

When canceling checks that have been registered, check their registration in Area MA.
to be done. Also, each time a check is written, it is determined whether the area MA is full, and if it is a sill, a message to that effect is displayed, and furthermore, it is determined whether the current balance at the time the check is written is less than the minimum balance. If it is broken, a message will be displayed to alert people to this fact.

Next, in the main routine of FIG. 7, subroutine D
The operation when EP is selected will be explained.

FIG. 13 is a flowchart of this subroutine DEP.

First, in n210, a lower subroutine nc is executed (FIG. 2(D)). That is, first, the registration state of the area MA is determined, and if all 30 registers are used, a message to that effect is displayed to draw attention.

Next, 1 displays the current balance, and n212 displays "ENTERAMOUNT".
The input deposit amount is stored in register X. The stored data is added to the current balance of register P and the total amount is stored in register Y (n2t
3). The result is 'NEW BAL×××× ××O
K? ” and asks if this is OK.Y
If the ES key is operated, the registration register will be set to 30 in n217.
It is determined whether the book has been exceeded, and if so, the contents of register Y are stored in register P and the process returns. On the other hand, if the limit has not been exceeded, the contents of register Y are transferred to and stored in register P in n219, the contents of register X are registered in register Mn, and the deposit code F is transferred to register Nn.
Register. Furthermore, the counter n is incremented. Although not shown in the flowchart, n2+5
After the display starts, press the YES key as well as the N key within a predetermined time.
If the o key is not operated, it is assumed to be YES, and n
The process advances to steps 217 onwards. If the No key is operated on n216, the process advances to n220 and the “PLEASE REWRI”
TE'' is displayed to prompt the user to input the deposit amount again.The deposit operation in the check mode is then completed.

Next, the operation when subroutine CHA is selected in the main routine of FIG. 7 will be explained.

Subroutine CHA is executed when purchasing an item with a credit card. Figure 14 shows this subroutine CH.
A flowchart is shown.

At tsn I 40, a lower subroutine AE is executed. In this subroutine AE, one arbitrary card is selected from among five types of cards A to E. 1st
FIG. 5 shows a flowchart of this subroutine AE.

First, the display shown in FIG. 4 is performed at n150. As described above, selecting any card from cards A to E is performed by operating any of the five keys 7 to 9, ÷, and Cl0N. If any key is operated, a card to be displayed directly above the operated key is specified at n152 (nl'52).

In addition to these keys (/'CHE t, p keys are operated, "I HAVE 5" is pressed from n+54 to n156.
MEMORI ES"PLEASE ASSIGN"
``EA CHCA RD T OA -E'' is displayed to prompt the user to operate any one of the five types of keys.

Returning to FIG. 14, when the subroutine AE is executed at n140, the charges of the selected card are displayed at n141, and a confirmation display is performed to confirm whether the selected card is correct. If the YES key is operated, you will be prompted to enter the purchase amount and press n+4.
Add the purchase amount stored in register X in step 4 to the charge, and store the addition result in register X again (n
l45).

Then, a new charge kn + 46 is displayed and the user is prompted to confirm whether or not this is correct. If the YES key is operated, the new charge will be used as the cumulative amount of the card used,
memorize it and return to the original location. Although not shown in the flowchart, if neither the YES key nor the No key is operated within a predetermined time after the display of n14.6 starts, the
It is regarded as ES and the process proceeds to n148 and subsequent steps. Also n+4
If the No key is operated at step 7, “PLEASE RE”
WRITE" is displayed (n+49), and the process returns to nl 4B to input the purchase amount again. This completes the operation of the subroutine CHA.

When the card payment processing routine PAY is selected in the main routine of FIG. 7, the flowchart of FIG. 16 is executed.

First, n160, which is similar to the purchase subroutine of the above card.
is executed and an arbitrary card is selected. Then, the accumulated amount is displayed as 'in+61', and an inquiry is made as to whether this is acceptable. If the YE'S key is operated, an inquiry is made as to whether payment should be made by check or not by displaying "'WRITECHECK?" on the screen. If that is the case and the YES key is operated, the process advances to n165, and the previously described subroutine W
S is executed.

If you wish to pay with cash etc., proceed to n166 and press “ENT”.
ERAMOUNT" to prompt the user to enter the amount, execute subroutine E6, and store that amount in register X. By the time n+654 or n167 is executed, the payment amount has been stored in register is subtracted from the total amount of the card and the subtracted amount is memorized again.Then, the new charge is displayed and returned.

Next, in the main routine of FIG. 7, the operation when subroutine REC is selected in the check mode will be explained. In this subroutine REC, deposits and withdrawals are verified based on the data registered in area MA and the small balance stored in register O1P of area MC.

FIGS. 17(A) and 17(B) show flowcharts of the subroutine REC.

First, counters d and b are reset at n170.

Next, the opening balance is displayed at n+71, and an inquiry is made as to whether this is acceptable.

If the operator has a statement of deposits and withdrawals sent from the bank earlier, the operator can check the opening balance displayed by comparing it with the opening balance written on the statement. You can check whether it is correct. If it is not correct, that is, if the N'O key is operated, proceed to n173 and “
PLEASEREWRITE”, enter the correct opening balance on n174, and then enter the contents (
Store in register O (n+75). Y at n172,
When the ES key is operated, the contents of register O are temporarily transferred to register Y at n176. Although not shown in the flowchart, if neither the YES key nor the No key is operated within a predetermined time after the display of n+71 is started, it is regarded as YES, and the process proceeds to n176 and subsequent steps.

The determination of n=d+b in n177 is performed using RECONCI
This is to check whether LE) has ended, and initially d
Since it is 10b-0, proceed to n178. At n178, it is determined whether the contents of register M specified by counter b are F. If this content is F, the code is VO'
Since it is an ID (cancellation) code, proceed to n179 and enter N.
Check No. registered in b. Displays that the has been canceled and asks if this is correct.

If the YES key is operated, proceed to n +89,
The registers Mb and Nb specified by the counter b are cleared, the specified registers M and N'z are shifted by one line, and the counter d is further incremented, and the process returns to n177. Although not shown in the flowchart, n+79
After the display starts, press the YES key as well as the N key within a predetermined time.
If the o key is not operated, it is assumed to be YES and n1
Proceed to 8.9. Also, if NQ key 2 is operated on n180, it will go to n188.

Then, the counter b is incremented and the process returns to n177.

On the other hand, at nI'', 8, if the register Mb specified by the counter b is the F code, that is, the VOID (cancellation code), the process advances to n181, and then the register Nb is the F code, that is, the deposit code. Determine whether or not it is registered. If so, proceed to n182, display the amount registered in register MbK at that time, that is, the deposit amount, and inquire whether it is correct. If the YES key is pressed If the operation is performed, the deposit amount is added to the contents of register Y in n185 and stored in register Y again.In n181, if the registration code of register Nl) is not F, proceed to n188;
The data stored in registers Nb and Mb, ie, the check number and check amount, are displayed, and an inquiry is made as to whether or not the payment has been made correctly. If the YES key is operated, the check amount is subtracted from the contents of register Y at n187. Then, in n189, the registers Nb and Mb are reset, and further the registers M,
Shift N by one line. If the No key is operated at n186, the counter bl is incremented at n188 and then n17
Return to 7. Using register Y as described above, 'n
From the opening balance stored in step 176, if the deposit amount is registered, the deposit amount is added, and if a check has been written, the amount is subtracted, and the contents of the register Y are sequentially updated. And n177 n-d
+b, that is, when all the additions and subtractions of the registered data are completed, the process advances to n'+90 in FIG. 17(B).

At step n190, the contents of counter b are transferred to counter n and stored in preparation for the next time a check is written or deposited. and n
1LENTER CHARGE" is displayed at 191 to prompt the input of charge from the bank, and at n192 the charge input to register ENTERINTEREST'' is displayed to prompt the user to input the interest, and the interest input into register X at n+95 is added to the contents of register Y at n196, and also added to the current balance of register P.

In this way, the final amount calculated in register Y is
W BALXXXX,XX0K? ” (n
I97'), inquire whether that is acceptable.

In other words, the user is prompted to confirm whether the month-end balance display is correct. If the YES key is operated, the data is stored in register O as an opening lance. Although not shown in the flowchart, n1
If neither the YES key nor the No key is operated within a predetermined time after the display of 97 is started, it is assumed that the answer is YES and the process proceeds to n199. If the No key is operated, n2'o.

to display “PLEASE-REWRITE” and press n20
Input the correct value into register X at step 1, store the contents in register Y at step n202, and return to n+97. n198
→Proceed to n200 if the area MA is full and more registration items have been added, if there is an omission in the input, or if the bank has made a mistake. Therefore, when proceeding from n198 to n200, if the memory becomes empty and the number of registered items increases, that data is added or subtracted, and if there is an input omission at any stage, the data is added or subtracted. This will allow you to match the deposit and withdrawal statements from your bank. If the numbers still do not match, you will know that there was a mistake at the bank.

As described above, in the RECONCILE mode, it is possible to easily check the registered data at the current location and accurately check deposits and withdrawals based on the opening balance.

Also, when entering the four types of data (current balance, opening balance, minimum balance, last check N06) required when executing check mode, and when entering the check number and amount when removing a check, n55-n58, and n111
After inputting a series of data, it is possible to immediately check whether the data has been correctly input into the register to be stored by displaying the data and the type at the same time.

As shown above, the entered value (Check No. 1゜Amount)
When asked whether the key is correct, the answer is usually the YES key or the No key, but if this key is not operated within a predetermined time, it is assumed to be YES and the configuration automatically registers the answer. By doing so, when the answer is YES, there is no need to particularly operate the YES key, thereby simplifying the operation.

In the embodiment described in 1] below, the input value (check N
A timer is set up so that if neither the YES key nor the No key is pressed within a predetermined period of time when asking if the amount (o, amount) is correct, it is assumed that the answer is YES and the data is automatically registered. However, this timer may also be used for auto power off. That is, after the registration process, the power is turned off.

<Effects> As explained in detail above, the information processing device of the present invention has the following effects:
In the case of a device that inquires whether the entered numerical value is correct and is configured to respond to the inquiry by pressing the YES key or the No key, after the second inquiry, the above-mentioned YES is returned within a predetermined time. According to the present invention, when the answer is YES, there is no need to operate the YES key, and it is not necessary to operate the YES key. Simplification is achieved.

[Brief explanation of the drawing]

FIG. 1 is an external view of a deposit/withdrawal management device according to an embodiment of the present invention. FIG. 2 shows an example of the display state on the display 2 of the doujin withdrawal management device. FIG. 3 shows the display state when determining the operating mode of the device. FIG. 4 shows the display state displayed when any one of the five types of credit cards A to H is selected. FIG. 5 is a block diagram of the same device. FIG. 6 is a memory map of the main parts of the RAM 22 of the same device. FIG. 7 is a flowchart of the main routine in the control program of the device. FIG. 8 is a flowchart of the initialization subroutine. FIG. 9 is a flowchart of subroutine E6. FIG. 1O is a flowchart of subroutine H1. FIG. 11(A) is a flowchart of subroutines W and CK. Hz diagrams (B) and (C) are flowcharts of the write check processing subroutine WS. Figure 1I (D) is a flowchart of the subroutine nc. FIG. 11(E) is 70-Tayat of subroutine CC. FIG. 12 is a flowchart of subroutine E4. FIG. 13 is a flowchart of subroutine DEP. FIG. 14 is a flowchart of subroutine CHA. FIG. 15 is a flowchart of subroutine AE-. FIG. 16 is a flowchart of the card payment processing subroutine PAY. FIGS. 17(A) and 17(B) are flowcharts of the subroutine REC. Explanation of symbols 1: Main body, 2: Dot matrix liquid crystal display, 3: Input key 14: Case, 5: Card holder, 6: Personal check spelling, 72 ballpoint pen, 8: Holder, I
a: Terminal to external device, 9 ni printer, 3a:
Numeric keys, 3 b + 3 c: Function keys, 20: CPU121: ROM, 22: RAM,
28: 110% ACL: Orton l Noakey, E
: External terminal. Agent Patent attorney Aihiko Fuku (and 2 others) Figure 11 (
C) 75P7 Figure 15 Figure 16

Claims (1)

[Scope of Claims] 1. In an information processing device configured to inquire as to whether the input numerical value is correct, and to answer the inquiry in -1- by pressing the YES key or the No key, An information processing apparatus characterized in that the information processing apparatus is further provided with means for determining that the YES key or the No key is not operated within a predetermined time after the YES key or the No key is operated.