JPS58201167A - Time register with time recorder function - Google Patents

Abstract

PURPOSE:To add timer recorder functions to a time register, by using in common the clocking circuit of a timer register and a journal printer for receipt printing even for the time recorder. CONSTITUTION:When an interruption signal is sent out to an interruption line INT2 by the insertion of a magnetic card, a card reader 8 is accessed and data for motor control is sent to the reader through a bus DB. A display part 17 displays time charge data in response to the operation of the time register and a timer display 9 provided to the card reader 8 displays the present time at intervals of one minute by prescribed interruption processing. A one-minute pulse oscillator 18 is connected to the 1st interruption line INT-1 and outputs a specific interruption signal at intervals of one minutes, and a CPU14 responds to it to execute a periodic interruption processing program, performing various data update operations.

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a time recorder function (=J time register).

Time registers are widely used in parking lots, shoe rentals at polling areas, and mahjong parlors, but in the past, it was customary to install a separate time recorder in these locations to manage employees.

Here, the applicant focused on the fact that a clock circuit is essential in the basic configuration of a time register, and by using the h1 circuit and making other slight improvements, the time register can also function as a time recorder as it is. This invention was developed based on the knowledge that it is possible to do this.

That is, the object of this invention is to use the clock circuit that is essential to the time register as it is as the time 81 circuit of the time recorder, and to also use the journal printer for printing receipts, which is essential to the time register, to print attendance data and work data. By using this, the function of a time recorder is added to the time register, thereby making it unnecessary to separately install a time recorder in a business establishment that has installed this type of time register.

Hereinafter, a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

FIG. 1 is a perspective view showing an example of the appearance of a time register with a time recorder function according to the present invention. In the figure, the front side of the time register main body 1 has a display section 2. Keyboard part 3. A key-insertion type changeover switch that can be switched by inserting the key 5-5.4. A receipt journal 6 and a recording frame circumferential journal 7 are provided.

Reference numeral 8 designates a card reader, which is provided with a clock display 9 on its front side and has a card pocket 11 opened therein into which a magnetic card 10 is inserted. ．． connector 13a,
It is configured to be electrically connectable to the time register body 1 via the time register body 13b.

The keyboard section 3 includes a numeric keypad 3a for inputting a user number, etc., as shown in FIG. 3 as an example.

In addition to the type keys 3b, etc., in which the hourly unit price is registered in advance for each usage condition 1 and the hourly unit price can be entered by operating the corresponding key button, the so-called time register It is well known that various key buttons, switches, etc. necessary for the operation of the computer are arranged.

In addition, the changeover switch 4 is set to <OFF, T(
In addition to the switching positions necessary for the original operation of time registers such as total) and GT (grand total), the present invention particularly provides switching positions corresponding to the time recorder and work.

Additionally, inside the time register main body 1, there is a journal printer (
(not shown) is built-in, and the keyboard part 3. It is also well known that these printers are operated by a predetermined operation of the changeover switch 4, and predetermined printing is performed on the journal 6.7.

A magnetic card 10 is sucked into the card reader 8.
In addition to a built-in motor and drive rollers that control the ejection, a photoelectric switch is provided to detect when the magnetic card 10 is inserted.The magnetic card 10 also has an identification number assigned to each employee. The code is recorded magnetically.

Next, FIG. 2 is a block diagram showing the electrical system configuration of the device of the present invention.
U14. It is controlled by a microcomputer configured mainly with ROM 15 and RAM 1G.

That is, the above-mentioned card reader 8 has a data bus DB and an address bus ΔB connected to the CPU 14.

It is connected to the second interrupt line INT-2, and at the same time when the magnetic card 10 is inserted into the aforementioned card reader 1-11, a built-in photoelectric switch detects this and the second interrupt line INT-2 is connected to the second interrupt line INT-2. A predetermined interrupt signal is sent to INT2.

Then, a predetermined interrupt process is performed in the CPU 14, the card reader 8 is accessed via the address bus ΔB, and motor control data is sent to the card reader 8 via the data bus DB. The J: magnetic card is sucked in, the identification code is read, and the card JJI output operation is performed.

The display section 17 collectively shows the display 2 provided on the time register main body 1 and the time display 9 provided on the card reader 8, and is connected to the data bus DB and address bus ΔB leading to the CPU 14, respectively. In addition to displaying various time and money data in response to the operation as a time register, the clock display 9 provided in the card reader 8 displays information every minute by predetermined interrupt processing. The time will be displayed.

The one-minute pulse oscillator 18 is connected to the first interrupt line INT-1 leading to the CPU 14, and outputs a predetermined interrupt signal every time one minute passes, and in response, the one-minute pulse oscillator 18 outputs a predetermined interrupt signal.
In step 4, a periodic interrupt processing program to be described later is executed, and various data updating operations and the like are performed.

The journal printer 19 is composed of two printers that each print on the journals 6 and 7, and are connected to an address bus AB and a data bus D, respectively.
Connected to B.

The operation section 20 includes a keyboard section 3. The changeover switch 4 and the like are collectively shown, and these are connected to a data bus DB and an address bus AS, respectively.

The ROM 15 stores system programs necessary for various controls of the microcomputer, and the RAM
Reference numeral 16 is used as a working area of the microcomputer and various data registration areas.

With the above configuration, when the system program for the time register stored in the ROM 15 is executed, various hourly rate data etc. are registered in the RAM 16 based on predetermined operations on the operation unit 20, and These data are sent to the journal printer 1 based on the print command processing.
9, it will be printed on the journal 6.7. The basic operation of the time register is well known in various documents, so a description thereof will be omitted, but in short, in response to a predetermined usage start operation, each customer uses the current time data as the usage start time. The data is stored separately, and in response to a predetermined payment operation, the current time data is detected as the usage end time of the corresponding customer, the usage time is calculated based on the usage start and end times, and this is multiplied by a predetermined rate. This method calculates the usage time fee for the applicable customer and prints it out on the journal.

Next, 10- to achieve the function as a time recorder Explain the structure of the main parts of the dam.

As shown in FIGS. 4 to 8, the RAM 16 includes management data memories 1 to 80, processing status memories 81 to B4. Work status memories C1-C31, flag memories D1-D3, and cumulative memories E1-E10 are provided.

As shown in FIG. 4, management data memory rims 1 to 80 include
Early start time data, early end time data, regular start time data, regular end time data, overtime start time data, and overtime end time data are stored, respectively. This is done in advance by switching the key button and changeover switch 4.

As shown in FIG. 5, processing status memories B1 to B4 store processing date data, separate data for holidays and weekdays, current time zone data, and current time data, and the storage of these data will be described later. This is performed by the periodic interrupt processing (see FIG. 11).

As shown in FIG. 6, the work status memories C1 to C31 include:
On-call time data and clock-out time data for each date are stored. Storage of these data is performed by executing a system program for the time recorder through various on-call operations or clock-out operations, which will be described later.

As shown in FIG. 7, the flag memories D1 to D3 each store attendance/leaving flag data, attendance flag data, and leaving flag data. The storage of these data is also carried out by executing the time recorder system program in response to various clocking and leaving operations to be described later.

As shown in FIG. 8, the cumulative memories E1 to E10 contain data on the number of working days on weekdays and data on the number of working days on holidays.

Absenteeism count data, tardiness count data, early leaving count data, tardiness time data, early leaving time data, early departure time data, overtime work time data, and holiday working time data are stored, and the storage of these data is done according to the regular schedule described later. This is done by executing the loading process (see FIG. 11).

Then, the work status memories C1 to C31 and flag memories D1 to D3, which have been explained above, are provided. Cumulative mail addresses E1 to E10 are individually provided for the maximum number of employees set in advance, and addresses are assigned corresponding to each employee, and are configured so that addresses can be combined using a personal identification code, which will be described later. ing.

Next, FIG. 9 is a system program showing details of time recorder processing when the card reader 8 is not used, and the time recorder operation of the time register of the present invention will be explained below according to this flowchart.

First, as shown in FIG. 1, the connectors 13a and 13b are removed, the card reader 8 is removed, and each product number 01 to 24 of the type key 3b shown in FIG. 3 is individually assigned to each employee. .

In this state, the selector switch 4 is switched to the time recorder 1 shown in FIG. Then, the time recorder processing program shown in FIG. 9 is started, and step (1)
is executed repeatedly, and the system waits for a type key operation.

In this state, when any employee operates the type key 3b assigned to him/her, step (2) is subsequently executed to determine whether or not the card reader is connected, and the card reader is activated. If the card reader is connected, predetermined error handling is performed, but only if the card reader is not connected, steps (3) and (
Steps 4 and 4) are sequentially executed to take in the type key code and transfer it to the buffer memory of each individual memory corresponding to the key code.

Next, when step (5) is executed, it is determined whether the contents of the flag memory D1 are waiting to be dispatched or waiting to leave, and only if it is waiting to be dispatched, steps (6) and (7) are executed. are executed sequentially.

In step (6), current time data is obtained by referring to the current processing status memory B4, and this data is added to the dispatch column for the processing date determined by the contents of the current processing status memory B1 in the work status memories 01 to C31 of the corresponding individual. I remember it.

In step (7), the corresponding individual's 7 lag messages 14- Set the contents of Mori D1 to Waiting for leaving work.

Next, when step (8) is executed, the current time data stored in the processing current state memory B4 and the processing current state memory B
Lateness is determined based on the current time zone data stored in step 3, and only when it is determined that the driver is late, step (9) is executed and the contents of the flag memory D2 are set to be late. .

Next, when step (10) is executed, a predetermined buzzer or the like will emit a registration completion sound indicating that the above processing has been completed.

On the other hand, if the execution result of step (5) is determined to be absent from work, step (11) and step (12)
) are executed sequentially, and in the same way, the current time data is stored in the leaving column, and the contents of the flag memory D1 are set to Waiting for dispatch.

Next, when step 13) is executed, an early leaving determination is made based on the current time data stored in the processing current state memory B4 and the current time zone data stored in the processing current state memory B3. Only when the result of judgment 15 is early leaving, step <14) is executed, the contents of the flag memory D3 are set to early leaving, and step (10) is thereafter executed to generate the registration completion sound. It's wa(p).

In this way, when the changeover switch 4 is set to the time recorder and the type key 3b assigned to each individual is operated, the work status memory 01 to C3 corresponding to the date is changed without giving any specific instructions for dispatch or clocking out. In the dispatch or clock-out column, each individual's clock-in or clock-out time is sequentially stored.

Next, the operation of the time recorder when the card reader 8 is used will be explained with reference to flowchart 1 in FIG.

When the connectors 13a and 13b shown in FIG. 1 are connected, and then the magnetic card 10 distributed to each individual is inserted into the card pocket 11 provided in the card reader 8, as shown in the block diagram of FIG. - The reader 8 sends a predetermined interrupt signal to the second interrupt line INT-2 based on the output of the photoelectric switch for card detection.

Then, a predetermined interrupt process is executed in the CPLJ 14, and the program shown in FIG. 10 starts to be executed.

That is, at the same time as the magnetic card 10 is inserted into the card pocket 11, step (51) is first executed, a predetermined motor is driven, the card conveying roller rotates, and the magnetic card 10 is sucked into the card pocket 11. .

Next, when step (52) is executed, each individual's identification code recorded on the magnetic card 10 is changed to CPLJ1.
4, and then step (53) is executed to store the identification code in the personal memory (work situation memories C1 to C31).
, flag memories D1-D3. Cumulative memory E1~EIO)
is read into the buffer memory.

Next, when step (54) is executed, it is determined whether the worker is waiting to be dispatched or waiting to leave work, in the same way as step (5) in the time recorder processing program described above.
In the case of dispatch, Step 1 hoop (55) → (56) → (57> → (58) is executed in sequence, and the current time data is stored in the dispatch column of the corresponding date in the dispatch status memory. If it is determined that the person is waiting for work, step (60) → (61) → (62)
→(63) is executed sequentially, the current time data is stored in the clocking out column of the corresponding date in the dispatch status memory, and then steps (5) are executed and the magnetic card 10 is ejected from the card pocket 11. It will be done.

Next, the one-minute pulse oscillator 18 outputs the signal.

Details of the periodic interrupt processing performed based on the 1-minute pulse will be explained with reference to the flowchart of FIG. 11.

When a predetermined interrupt signal is output from the 1-minute pulse oscillator to the first interrupt line INT-1, predetermined interrupt processing is performed in the CPU 14, and first, step <101) shown in FIG. 11 is performed. , (102) are sequentially executed, and a predetermined updating operation of the processing status memories 81 to B4 shown in FIG. 5 is performed.

That is, the current time data stored in the processing status memory B4 is updated every minute, and then a predetermined calendar table is referred to based on this updated current time data.
Processing status memory B1. The processing date data and holiday/weekday data stored in B2 are updated, and based on the updated current time data, the management data memory shown in FIG. The time zone data for the current time will be updated.

Next, when step (103) is executed, it is determined whether or not the connectors 13a and 13b are connected, and only if the connectors are connected, step (103) is executed.
104) is executed, and the current time data stored in the processing status memory B4 is transferred to the clock display 9 provided in the card reader 8, thereby causing the card reader 8 to display a clock.

Next, when step (105) is executed, it is determined whether the update time of the cumulative memory has been reached.

Here, the update time of the cumulative memory is set at 12:00 p.m., which is the time after all employees have left work on -day, and in the step (105), the current time data is set at 12:00 p.m. It is determined whether or not it has reached 12 o'clock.

Then, only if the update time has been reached, step <
106) is executed to update the cumulative memory.

Here, to explain an example of the updating operation of the cumulative memory, first, the data on the number of weekday work days stored in the cumulative memory E1 is updated on the corresponding day of the work status memory (whether there is clocking in/out time data in the d column or not). The data on the number of days worked on holidays and stored in the cumulative memory E2 is updated by +1 depending on whether the date is determined to be a holiday based on the separate data for holidays and weekdays stored in the processing status memory B2, and the number of days worked on the day is The absence count data stored in the cumulative memory E3 is updated by +1 depending on whether or not attendance data exists on the corresponding date in the status memory, and the absence count data stored in the cumulative memory E3 is updated based on whether the data by holiday/weekday stored in the processing status memory E2 is a weekday. , and is updated by +1 depending on whether or not attendance data exists in the work status memory of the corresponding date, and the tardiness count data stored in the cumulative memory F4 is updated by +1 depending on whether or not the attendance flag in the flag memory D2 is late. The early departure count data stored in the cumulative memory E5 is updated by +1 depending on whether the departure/leaving flag data stored in the flag memory D3 indicates early departure.
A predetermined calculation is performed on the tardiness time data recorded in the cumulative memory E6 based on whether or not the arrival/exit flag memory D2 is set to be late, and the tardiness time data obtained from the calculation result is added.

Hereinafter, the early leaving time data, early leaving time data, overtime time data, and holiday dispatch time data recorded in the cumulative memories F7 to E10 are similarly stored in the office usage memories B1 to B4.
A predetermined calculation is performed based on the contents of , and the sifted values are added based on the arrival and departure time data stored in the work status memories C1 to C31.

In this way, the cumulative memory update operation is performed in steps (10
After being executed in step 6), the scheduled interrupt processing ends at step 21-.

Next, although not specifically explained in the flowchart, the selector switch 4 is set to the working position. Each attendance and leaving time data is printed on the journal 6 or 7,
At the same time, each cumulative data stored in the cumulative memories E1 to FIO will also be printed out on the journal 6 or 7, and based on this, the work status of each individual and each predetermined work data can be obtained. It can be done.

In the above embodiment, the type key 3b provided on the time register main body 1 was also used as a time recorder key for individual identification, but as shown in FIG. key button 2
Of course, it is also possible to add the number 3 and always attach the cover 4 to this to prevent unreasonable and erroneous operations.

Furthermore, in the embodiment described above, each clocking-in/out operation is determined on the machine side as either dispatching or clocking out. However, instead of this, as shown in FIG. A dispatch button 21 and a clock-out button 22 are provided, and as shown in FIG. 16, a clock-in and clock-out data import process (531) is provided.

Of course, it is also possible to add the attendance and leaving data determination process (541).

As is clear from the above description of the embodiments, according to the present invention, the function as a time recorder can be added to the time register body, and it is possible to add a function as a time recorder to the time register body, and it is possible to add a function as a time recorder to the time register body, and it is possible to add the function as a time recorder to the time register body, and it is possible to add the function as a time recorder to the time register body. In this case, there is no need to install a separate time recorder (this makes it possible to further increase the added value of this type of time register, and its configuration also utilizes the clock means for the time register and prints on the journal). , can be provided easily and inexpensively.

[Brief explanation of the drawing]

Fig. 1 is a perspective view showing the external appearance of a time register with time recorder function according to the present invention, Fig. 2 is a block diagram showing the electrical configuration of the time register, and Fig. 3 shows the configuration of the operating section of the time register. 4 is a memory map showing the structure of the management data memory, FIG. 5 is a memory map showing the structure of the processing status memory, FIG. 6 is a memory map showing the structure of the work status memory, and FIG. 7 is a memory map showing the structure of the flag memory. FIG. 8 is a memory map showing the configuration of the cumulative memory; FIG. 9 is a flowchart showing the configuration of a system program for time recorder processing when the type key of the time register is used as a personal identification key for the time recorder; Figure 10 is a flowchart showing the configuration of a time recorder interrupt termination system program when operating as a time recorder using a magnetic card, Figure 11 is a flowchart showing the configuration of a system program for periodic interrupt processing, and Figure 12 is a journal. The work status data of each employee is printed out on the top of the journal.
Fig. 4 is an external perspective view showing another embodiment of the time register of the present invention, Fig. 15 is an external perspective view showing an embodiment of the same location, and Fig. 1
FIG. 6 is a flowchart showing the configuration of a system program corresponding to the time recorder shown in FIG. 1... Time register body 2...
...Display unit 3...Keyboard section 4...Key insertion type changeover switch 5.
......Key 6...Receipt journal 7...
・・・・・・Journal for record keeping 8・・・・・・・・・
Card reader 9...Clock display 10...Magnetic card 11...Card pocket 12...Code 13a, 13b... Connector 1/I...CPU 15...ROM 16...RAM 17...Display section 18...1 minute pulse oscillator-25= 19...Journal printer 20...Operation unit 21...Dispatch button 22...Wait button 23...Dedicated key for time recorder Patent applicant Ama) Co., Ltd. 26- Figure 4 Figure 5 Figure 6 Figure 7 Figure 8 371-

Claims (4)

[Claims] (1) A time register used to manage usage charges for various types of equipment or rental items; equipped with clock means for forming time data corresponding to the current time; , the current time data is stored for each customer as the usage start time, and in response to a predetermined payment operation, the current time data is detected as the usage end time of the corresponding customer, and the usage time is calculated based on the usage start and end times. and multiplying this by a predetermined rate to obtain the usage time charge of the corresponding customer, and print this out on a journal; Attendance/attendance type detection means for detecting attendance/attendance identification data in response to a predetermined attendance/attendance operation. and; a work status memory for storing attendance and leaving time data for each individual on each date; and attendance and leaving identification data that is detected corresponding to the personal identification data each time the personal identification data is detected. a work data registration control means that refers to the current time data at that point and stores it in the work situation memory by assigning a meaning to either the dispatch time or the clocking out time; 1. A time register with a time recorder function, comprising a work data print control means for printing out the work data on the journal after editing the contents as appropriate. (2) According to claim 1, wherein the attendance and leaving person detection means is personal identification data reading means for reading personal identification data from a predetermined recording medium distributed to each individual. The time register with time recorder function described. (3) A time register used to manage usage charges for various types of equipment or rental items; equipped with clock means for forming time data corresponding to the current time; in response to a predetermined usage start operation; , the current time data is stored for each customer as the usage start time, and in response to a predetermined payment operation, the current time data is detected as the usage end time of the corresponding customer, and the usage time is determined based on the usage start and end times. In the system that calculates the usage time fee for the corresponding customer by multiplying it by a predetermined rate and prints it out on the journal: Detects attendance identification data in response to predetermined attendance and departure operations f4
a work status memory for storing the attendance and leaving time data of each individual on each day (-1); and a work status memory for storing the attendance and leaving time data of each individual on each day (-1); Refer to the attendance and attendance identification data,
work data registration control means for assigning meaning to the current time data at the time of the child as either a dispatch time or a leaving time and storing it in the working situation memory; based on the starting and leaving time data stored in the working situation memory; Employment data calculation means for obtaining employment data of each individual; Printing the employment data on a journal after editing it as appropriate;
1. A time register with a time recorder function, characterized in that it is equipped with a work data printer for checking 1 and a control means. (4) The attendance/attendance detection means is a personal identification data reading means for reading personal identification data from a predetermined recording medium distributed to each individual. Time register with time recorder function.