KR910000993B1 - Multi-polling receiving method for fax - Google Patents

Abstract

A number of message set by the polling transmission parts are received sequentially by one input of the polling reception data. The method includes an input process (A) for recording the reservation time for the multi polling reception and corresponding phone numbers on the multi job memory area, a stand-by process for recording the reservation time and the corresponding phone number on the auto dial one job area, a third process for calling the recorded phone number on the one job area, and a fourth step for jumping to the second process when the receiving process is completed.

Description

How to receive fax multipolling

1 is a system for requesting transmission and receiving signal of a fax for carrying out the present invention.

2 is a flow chart of a multi-polling reception process according to the present invention.

3a, b is a block diagram of the input data of the multi-polling reception according to the present invention.

4 is a block diagram of an automatic dial original data area according to the present invention.

5 is a flow chart of multi-polling reception input data according to the present invention.

* Explanation of symbols for main parts of the drawings

10: keyboard 20: micom

21 liquid crystal display 30: rom board

40: Lamborgh 50: Modulator

60 line interface 70 image signal processing processor

80: printer

The present invention relates to a Polling Receive method of a facsimile, and in particular, multi-polling for receiving and calling originals set from a plurality of counterpart polling transmitters by one data input in turn. Receive (Multi Polling Receive) method.

Typically, the polling reception method of the facsimile could receive an original message by calling the original set which is set on one polling transmitting side at the receiving side. In order to receive a message set on a plurality of polling transmitters in the conventional polling method, the user has to make a call each time, which is inconvenient for the user.

Accordingly, an object of the present invention is to provide a multi-polling reception method of sequentially receiving a message of a document set on a plurality of polling transmission sides by calling a plurality of polling transmission sides in sequence with one input of polling reception data.

Another object of the present invention is to provide a method for inputting multi-polling received data.

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

1 is a facsimile request and call signal processing system diagram for carrying out the present invention, which has a numeric key and a function key to input a predetermined signal when pressing a key; The microcomputer 20 controls the performance of various functions of the facsimile by processing signals inputted by the keypad 10 and demodulated by a predetermined built-in program, and operated by the control of the microcomputer 20. A liquid crystal display 21 for displaying a state, a program program of a facsimile is embedded, and a read only memory board 30 for outputting predetermined data under the control of the microcomputer 20, and a user Modulation and data input and output to and from the random access memory board (40) to read / write (Read / Write) the data of the required information under the control of the microcomputer (20) Demodulation Modem 50 to output, a line interface 60 for detecting a ring signal input from the other party and dialing required for the call request, and from the microcomputer 20 The call signal processing processor 70 which inputs the message data to be output and performs work related to the call signal processing, and the printer 80 which prints data processed and output by the call signal processing microprocessor 70. It is composed.

First of all, when the ring signal is input to the trunk line terminal (T) R, the ring signal is input to detect the ring signal input to the line interface 60 to form a trunk line loop, and the trunk line terminal T (R). The modulated signal input to the modulator 50 is output to the modulator 50.

In this case, the demodulator 50 demodulates the input modulation signal into a digital signal and outputs the demodulated signal to the microcomputer 20, and the microcomputer 20 outputs the demodulated digital signal to the image signal processing processor 70 as message data.

The image signal processing processor 70 processes the message data output from the microcomputer 20 into printable data and prints the data through the printer 80.

Therefore, the original message sent from the sender is printed and output.

2 shows the method of the present invention as a multi-polling reception process flow chart according to the present invention.

(A) of FIG. 2 is a data input state for inputting time, password, and multiple phone numbers to RAM 40 for multi-polling reception by using the keypad 10 of FIG. After the process (A) is completed, check if data for multi-polling reception has been entered. If the data is to be entered in the multi-polling receiving area of the RAM area, Auto Dial One It is a waiting part that extracts and transfers only one phone number among the data required for Job) and the set phone number, and (C) is an automatic dial part. Autodial the number at the specified time.

(D) is a communication control process that answers the protocol specified in CCITT Recommendation. (E) is a message transmitted from the connected sender when communication is completed after communication control is completed. (F) is a state of inputting the telephone number of the next polling transmitting side in the multi-polling receiving area into the auto-dialing job area and outputting it to the (C) process.

3A and 3B are diagrams illustrating input data for multi-polling reception according to the present invention, which is a format of data input to the ram board 40 in the process of FIG.

The data consists of 34 bytes in total, 5 bytes of Multi Receive Area (MRA), 14 bytes of Station Bit Area (SEA) and 14 bytes of Station Bit Storage Area (Station). Bit Save Area (SBSA) and 1-byte Check Area (CA).

At this time, one byte of the 5-byte multi-reception area (MRA) is an area for setting a multi-receive flag as a header (HD), and 2 bytes is an area for reservation time (RH) data for setting a multi-polling reception time. 2 bytes is a memory area for storing a password PW predetermined in handing time.

In addition, the 14-byte station bit area SBA is a memory area for setting identification bits ID corresponding to the telephone number of a station, and the 14-byte station bit storage area SBSA is a 14-bit station bit area SBA. Is a memory area for storing and storing data, and a 1-byte check area is a memory area provided for checking whether an error has occurred in the multi-polling area.

4 is a diagram showing the configuration of the Auto Dial One Job Data Area, which is configured in the RAM board 40 in total of 24 bytes, and the microcomputer 20 of the system saves data in a multi-polling reception state. 1-byte Flag (FL), 1-byte retry count area that allows you to redial the error station telephone number that occurred when the original job was dialed for multi-polling reception. To set the status mode area (A) (SMI) of 1 byte where the protocol of COITT regulation is stored, multi-polling reception, polling reception, scan mode selection, auto / manual dial mode, and transmit / receive mode to each bit It consists of a configured 1 byte status mode area SM2 and an 1 byte error check data area EC which stores the identification signal of the telephone number of the error station generated when the original automatic dial is executed.

5 is a flowchart of input processing of multi-polling received data, which is a detailed flowchart of the data input process of FIG.

The operation procedure consists of entering a multi-polling reservation time, entering a password, and ending by setting the telephone number of the transmitting station recorded in the telephone number memory and setting the multi-polling reception mode in the header of the polling reception memory.

Hereinafter, an embodiment of the present invention will be described in detail with reference to FIGS. 1 to 5.

Now, when a user inputs a predetermined signal to the microcomputer 20 using a specific key #, * of the keypad 10 to set up the system, the microcomputer 20 analyzes it and sets up the system. The data input process of FIG. 2 is performed.

At this time, when the key 10 is pressed with the keypad 10, the microcomputer 20 receives the multi-polling reception input program data from the ROM 30, scans the contents of the ram board 20, and multi-receives the area of FIG. The reservation time area RH and the encryption area PW data inputted to the MRA are displayed on the LCD 21 in step 100 of FIG. 5.

After the display state is displayed for a predetermined time as described above, the microcomputer 20 displays an indication for inputting the reservation time HH: MM through the liquid crystal display 21 in the process of FIG. 101, and pressed by the keypad 10. In step 102, the input key signal is input to search for valid time data. In other words, it is determined whether the time HH is 00-24 and the minute MM is 00-59, and it is valid. If the time is valid, the reservation time data is reserved in the multi-receive area MRA of FIG. The microcomputer 20 stores this in a memory area of 2 bytes, which is a time (RH) area, in FIG. 103.

By the above operation, when the reserved time of the multi-polling is completed by 2 bytes in the multi-reception area MRA composed of 5 bytes in the multi-polling job error of FIG. In step 5104, a message for inputting a password is displayed on the LCD 21.

At this time, if a four-digit password is input from the keypad 10, the microcomputer 20 checks whether the password data input in step 5105 is valid data. At this time, if the start key (#) is pressed from the keyboard 10, the microcomputer 20 determines that the password is valid in step 105, and the password data input in step 106 is a multi-job area inside the ramboard 40. The data is stored in the cipher data area PW constituting two bytes in the third degree multi-reception area MRA.

When the process of FIG. 5 is completed, the microcomputer 20 displays a message (Message) for inputting a telephone number through the LCD 21 in step 107 and the state of a key input from the keypad 10 as in step 108. Is detected in step 109.

If the dial state input in step 108 is "0-9", the microcomputer 20 determines that it is a one-touch dial in step 109. In operation 109, the microcomputer 20 determines that the one-touch dial is stored. In step 111, the microcomputer 20 searches whether the phone number corresponding to the input one-touch dial is stored in the ram board 40. That is, the microcomputer 20 searches whether the key input in step 111 is a speed dial key, and if not, jumps to step 107 to display a telephone number.

If the dialing signal input in step 118 is a * key and is "00-99", the microcomputer 20 determines that it is a two-touch in step 110, and a phone number corresponding to a speed dial exists in step 111 described above. If the phone number corresponding to the two-touch speed dial is present in the RAM 40, the microcomputer 20 transmits the phone number specified by the speed dial in 120 through the LCD 21. Display.

The microcomputer 20 that has performed the process of FIG. 5 112 performs the station bit area SBA of FIG. 3 set in the RAM 40 in step 113 and searches for the maximum number of the correspondent station. If the maximum number is not 5 in step 113, the microcomputer 20 searches for and sets the counterpart station inputted by the speed dial in the station bit area SBA in the ram board 40 in step 114.

The station bit area SBA of FIG. 3 is composed of a total of 14 bytes, and since input is possible from "0" to "111", the corresponding bit is set to logical "1" in the corresponding bit for the inputted counter station. The area consists of bitmaps, and each bit sets and resets stations of one speed dial.)

That is, up to one-touch dials "0-7" input in step 109 are set to each bit of the first byte of the station bit area, and one-touch dials 8 and 9 and two-touch dials * 01- * 06 are assigned to each bit of the second byte. * 07- * 14 correspond to each other in order from the third byte. When the entered touch dial destination phone number is in the phone number memory area (another memory area of Lamborgh), the address of one-touch touched dial is set. It locates in the station bit area SBA and sets to "1" logic.

At this time, the state of the data set in the station bit area SBA of the ram board 40 is also saved by the microcomputer 20 in the station bit storage area SBSA to prevent data loss.

When the station bit is set in the station bit area SBA in step 114, the microcomputer 20 sets a reserved time data area in the multi-receive area MRA of FIG. 3 set in the RAM 40 board in step 115. RH) is read to see if multi-polling reservation time has been entered. If it is determined in step 115 that the reservation time is input, the microcomputer 20 waits for the reservation time after the multi-poly job is set in the header area HD of the multi-polling reception area MRA of FIG. The reserved time mode data 04H is recorded (input) and the data input process ends.

If the microcomputer 20 determines that the reservation time is not input in step 115, the general mode 02H data is input to the header HD of the multi-polling reception area MRA.

When the input of the multi-polling reception data as shown in FIG. 5 is completed in the state of FIG. 2A, the microcomputer 20 reads the program in the standby state of the state of FIG. To enter standby mode.

The microcomputer 20, which has entered the standby state, checks whether the multi-job area (degrees 3a, b) of the ram board 40 is set. If the search result includes the multi-polling reception data, the microcomputer 20 reads the reservation time (RH) data and the encryption data (PW) of the multi-reception area (MRA) of FIG. 3, which is another predetermined area of the ram board 40. 4 is set in the reserved time area RH1 and the cipher data area PW1 each occupying 2 bytes in the automatic dial original job area, and the station bit area SBA is included in the phone number data area TEM of FIG. It transfers and stores only one bit of identification (ID), which is a set bit set in.

In the above operation, the microcomputer 20 which inputs the reservation time data of multi-polling reception, the encryption data, and the identification signal of one automatic dial telephone number into the automatic dial one job area shown in FIG. 4 is in status mode A (SM1). Set the data to select G1 / G2 / G3 mode, which is the CCITT standard, and set the multi-polling reception status bit, reception bit, automatic dial, and reservation time in the 1-byte status mode area B (SM2). Each set.

As described above, the microcomputer 20 which sets the state mode areas A and B is the data 03H recorded in the header area HD of the ramboard 40 in FIG. The data to be waited is set in the one-byte preg area FL and waits until the reservation time is reached.

At this time, the microcomputer 20 compares the current time with the reserved time in a routine that is interrupted every predetermined time and if the time is matched, the microcomputer 20 records in the telephone number data area (TEM) of the automatic dial original job area of the ramboard 40. The read-out station identification signal ID is read out, and the dial number stored in the telephone number memory as the identification signal ID is read out and output to the line interface circuit 60 through the modem 50. In other words, automatic dialing is performed.

At this time, the line interface circuit 60 calls the other party's caller in the state of FIG. 2 through the telephone line T.R.

As described above, when the telephone line is connected to the other party, the microcomputer 20 establishes a line interface circuit 60 and the modem 50 with the protocol stored in the state mode area A (SMI) of the automatic dial original area of the ram board 40. After exchanging necessary information with the other party's correspondent, the encrypted data PW1 is completed in the state of FIG. 2 (D).

When the communication is completed, the microcomputer 20 receives the message transmitted from the connected party in the state of FIG. 2 (E) through the line interface circuit 60 and the modem 50, and processes the received signal data into data. By outputting to the speech signal processing processor 70, the speech signal processing processor 70 processes it, prints it by the printer 80, and receives a message in the state of FIG.

In the state of FIG. 2E, when the reception of the telephone number data area TEM of the automatic dial original job area is completed, the microcomputer 20 of the station bit area SBA of FIG. Take the set data for the self-dial dial, record the ID of the self-dial dial in the telephone number data area (TEM) of FIG. 4, another memory area of the ramboard 40, and repeat the state of FIG. 2 (CE). Dials the specified dialing telephone number and receives a message from his station.

At this time, when an error occurs during communication with the other station or the other party is in a call, the microcomputer 20 transmits ID (ID) data of the station bit area of FIG. 3 recorded in the telephone number data area (TEM) of FIG. Is recorded in the error check byte area EC of FIG. 4, a new multi-job is recorded in the telephone number data area TEM of the automatic dial original job area of FIG. 4, and dialed to receive a message sent from the other station.

After the execution of a group set in the station bit area SBA of FIG. 3 in the manner described above, the microcomputer 20 is recorded in the error check area EC of the automatic dial original job area of the ram board 40. It reads the error-provided telephone number ID data and performs Auto Redialing to call the correspondent station, record the retry count by increasing the data of the retry count, and record the retry.

Therefore, it can be seen that multi-polling reception is performed by automatically calling messages set to a plurality of senders by input setting of one multi-polling reception data.

As described above, the present invention has the advantage of extending the polling reception function of various fax systems by automatically calling a plurality of counterparts in a single data input and sequentially receiving transmission messages set in the counterpart.

Claims (2)

A multi-polling reception method of a facsimile system in which a recording area of a multi-job area and an automatic dialing original job recording area are set in an internal memory board, wherein the input multi-polling reception reservation time and a plurality of station telephone numbers are entered. Automatic dialing of a data input process (A) for recording in the recording area of the recording area and a telephone number of a multi-polling reception reservation time recorded in the multi-job area and a plurality of station telephone numbers after completion of the data input process (A) A standby state process (B) for recording in the original job area and retrieving whether the multi-polling reception reservation time has been reached, and when it is determined that the multi-polling reception reservation time has been reached in the standby state process (B), the automatic dial is recorded in the one-job area. Dialing the dialed telephone number and calling the other party, and the dialing of the automatic dialing process (C). A communication control process (D) for transmitting and receiving protocol data with the called party, and a message receiving process for receiving and printing a message transmitted from a polling transmitting side of the other party after completion of the protocol transmission and reception by the communication control process (D) ( E), and after completing the message receiving process (E), the telephone number of the own station recorded in the multi-job area area in the automatic dial one job area and jumping to the automatic dialing process (C). A fax receiving method, characterized in that the number input process (F). The display process according to claim 1, wherein the data input process (A) displays the multi-polling reception data already recorded in the multi-job area when the setting data of the multi-polling mode is input and displays a multi-polling reception reservation time input message ( 100, 101, and a multi-polling reception reservation for storing reservation time data which is input only when the reservation time key data input after performing the display process (100, 101) is valid as time setting data in the multi-job area and displaying a password input message. Storing the input encryption data in the multi-job area and displaying a telephone number input message only when the encryption data inputted after the completion of the time storage process 102, 103, 104 and the multi-polling reception reservation time storage process 102, 103, 104 is completed. Encryption data storage process (105, 106, 107), and encryption data storage process (105, 106, 107) Speed dial search process (107, 108, 109, 110, 111) for searching whether the input key signal is a speed dial after completion of a row; A phone number display process 112 for displaying and displaying dial key data input when it is determined that the speed dial is not a speed dial; and after the phone number display process 112, the phone number is recorded in a multi-job area and multi-polled. In the reservation time searching process 113, 114, 115 for searching whether a reception reservation time has been input, and when it is determined that the multi-polling reception reservation time is not input in the reservation time searching process 113, 114, 115, general operation mode data is set in the multi-job area. When the multi-polling reception reservation time is determined, A multi-polling reception mode setting process (116, 117) for setting data in a multi-polling reception reservation mode in a tea job area.

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