JPS59114651A - Debug system - Google Patents

Debug system

Info

Publication number
JPS59114651A
JPS59114651A JP57224727A JP22472782A JPS59114651A JP S59114651 A JPS59114651 A JP S59114651A JP 57224727 A JP57224727 A JP 57224727A JP 22472782 A JP22472782 A JP 22472782A JP S59114651 A JPS59114651 A JP S59114651A
Authority
JP
Japan
Prior art keywords
common bus
processing
bus
debugging
processing device
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Pending
Application number
JP57224727A
Other languages
Japanese (ja)
Inventor
Katsuhiko Yazawa
矢沢 勝彦
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
NEC Corp
Original Assignee
NEC Corp
Nippon Electric Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by NEC Corp, Nippon Electric Co Ltd filed Critical NEC Corp
Priority to JP57224727A priority Critical patent/JPS59114651A/en
Publication of JPS59114651A publication Critical patent/JPS59114651A/en
Pending legal-status Critical Current

Links

Classifications

    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06FELECTRIC DIGITAL DATA PROCESSING
    • G06F11/00Error detection; Error correction; Monitoring
    • G06F11/36Preventing errors by testing or debugging software

Landscapes

  • Engineering & Computer Science (AREA)
  • Theoretical Computer Science (AREA)
  • Computer Hardware Design (AREA)
  • Quality & Reliability (AREA)
  • Physics & Mathematics (AREA)
  • General Engineering & Computer Science (AREA)
  • General Physics & Mathematics (AREA)
  • Debugging And Monitoring (AREA)
  • Exchange Systems With Centralized Control (AREA)

Abstract

PURPOSE:To attain debugs from plural remote places by setting a transmitting means for communication data between a common bus and a processor via a converter and then providing an input/output terminal device for debug. CONSTITUTION:An exchange system 20 is formed by connecting a subscriber circuit 11, a channel subsystem 101 containing a trunk line 12 and a subsystem 203 including a call processor CP to a common bus 104. Each CP contains a test board TST. With the system 203 a converter ADA202 is connected to the bus 104 as well as to a large capacity transmitting means (optical bus system) 25. A debug device consisting of a test board TST243, a CP242 and a converter ADB244 is connected to the system 25 via each terminal station TS. Thus it is possible to perform debugs from plural remote places.

Description

【発明の詳細な説明】 本発明はデバッグ方式、特に複数の遠隔地からデバッグ
センタの処理システムを使用してオンラインデバッグを
実行するデバッグ方式に関する。
DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a debugging method, and more particularly to a debugging method that performs online debugging from multiple remote locations using a processing system of a debug center.

従来のデバッグ方式は、実稼働と同一構成の処理システ
ムにおいてこの処理システムに含まれる処理装置に接続
された試験台からデバッグを実行する。一般に処理シス
テムは複数のサブシステムを共通バスで接続し中央処理
装置がこの共通バスを介して機能動作を制御する。この
共通バスは高速且つ多量の情報処理のため複数の情報伝
送路を持つ並列処理方式であシ、同様の理由で中央処理
装置と試験台との間も多数のデータ線及び制御線を有す
る試験線で結ばれるので、試験台、中央処理装置又はこ
れらの両者を処理システムの本体から離して設置するこ
とが困難である。
In the conventional debugging method, debugging is performed in a processing system having the same configuration as that used in actual operation from a test stand connected to a processing device included in the processing system. Generally, a processing system connects a plurality of subsystems through a common bus, and a central processing unit controls functional operations via the common bus. This common bus is a parallel processing method that has multiple information transmission lines in order to process high-speed and large amounts of information, and for the same reason, tests have many data lines and control lines between the central processing unit and the test stand. Because of the wire connections, it is difficult to locate the test bench, central processing unit, or both away from the main body of the processing system.

第1図は従来のデバッグ方式の一構成例を示す機能ブロ
ック図である。電話交換システム10は電話加入者回線
11に電話機が、又中継線12の先に別の交換システム
が、接続される通話路サブシステム101及び呼処理装
置(以下CP)102を含む制御サブシステム103並
びにこれら両者が接続された共通バス104を備え、前
記CP102が共通バス104を介して各サブシステム
を制御し交換接続動作を実行する。デバッグのために1
l−1,Cr2O2に接続された試験台(以下TNT)
13が使用され、Cr2O2を直接制御する。このTS
T13は机上の専用台、又は汎用パーソナルコンピュー
タの活用ができるが、Cr2O2に複数の試験糾を持ち
一対一に直結されるため、Cr2O2に近接して設備さ
れる。又、Cr2O2は交換システムlOの内部にある
共通バス104を介して各装置を制御するが、複数のC
r2O2による処理能力の向上又このための高速処理等
の理由から共通バス104に複数の情報伝送路を有する
並列処理方式を採用しているので、共通バス104の延
長は困難である。
FIG. 1 is a functional block diagram showing a configuration example of a conventional debugging method. The telephone switching system 10 includes a control subsystem 103 that includes a communication path subsystem 101 and a call processing device (hereinafter referred to as CP) 102 to which a telephone is connected to a telephone subscriber line 11 and another switching system is connected to a trunk line 12. In addition, a common bus 104 is provided to which both these systems are connected, and the CP 102 controls each subsystem via the common bus 104 and executes exchange connection operations. 1 for debugging
Test stand (hereinafter referred to as TNT) connected to l-1, Cr2O2
13 is used to directly control Cr2O2. This TS
Although T13 can be used as a dedicated stand on a desk or as a general-purpose personal computer, it is installed close to Cr2O2 because it has multiple test results and is directly connected to Cr2O2. Furthermore, although Cr2O2 controls each device via a common bus 104 inside the exchange system IO, multiple C
Since a parallel processing system in which the common bus 104 has a plurality of information transmission paths is adopted for reasons such as improved processing capacity by r2O2 and high-speed processing for this purpose, it is difficult to extend the common bus 104.

しかるに近年、ソフトウェアの生産性、保守性の向上が
叫ばれプログラムの実装置によるデバッグの効率性に着
目して、多くのプログラマが実装置本体から離れた場所
例えば自己の机上から、作成したプログラムを何時でも
オンラインデバッグできることを望むようになった。
However, in recent years, there has been a call for improvements in software productivity and maintainability, and many programmers have focused on the efficiency of debugging programs using real equipment. I've come to want to be able to debug online anytime.

従来のデバッグ方式は、試験台(デバッグ・検ソフトウ
ェアの生産性、保守性の向上を阻害するという欠点を持
っている。
Conventional debugging methods have the disadvantage of hindering improvements in the productivity and maintainability of test stands (debugging and inspection software).

本発明の目的は処理システムの共通バスと処理装置との
間に通信用データ伝送手段を設は処理装置と入出力端末
装置とをプログラマに近接して設置することによりソフ
トウェアの生産性向上が得られるデバッグ方式を提供す
ることにある。
An object of the present invention is to provide communication data transmission means between a common bus of a processing system and a processing device, and to improve software productivity by installing the processing device and input/output terminal device close to a programmer. The objective is to provide a debugging method that can be used.

本発明によるデバッグ方式は、複数のサブシステムを接
続した共通バスと、該共通バスに接続し且つデバッグ用
入出力端末装置と接続された少くとも一つの処理装置と
を含みオンライン実時間処理を行う処理システムのデバ
ッグ方式において、前記共通バスと前記処理装置との間
に、該処理装置と同じ条件で前記共通バスに相互接続し
た第1の変換手段と、前記共通バスと同じ条件で前記処
理装置の少くとも一つのそれぞれに相互接続した第2の
変換手段と、且つ前記第1及び第2の変換手段を接続し
て相互に離れて位置する前記共通バスと前記処理装置と
の間に情報の授受を実現するデータ伝送手段とを備え、
少くとも一つの前記処理装置を前記処理システムの本体
と離して設置したことを特徴とする。
The debugging method according to the present invention includes a common bus connecting a plurality of subsystems, and at least one processing device connected to the common bus and connected to a debugging input/output terminal device, and performs online real-time processing. In a debugging method for a processing system, a first conversion means interconnected to the common bus under the same conditions as the processing device is provided between the common bus and the processing device; and a second converting means interconnected to at least one of the first and second converting means, and between the common bus connecting the first and second converting means and located apart from each other, and the processing device. Equipped with a data transmission means to realize sending and receiving,
The present invention is characterized in that at least one of the processing devices is installed apart from the main body of the processing system.

次に本発明につき図面を参照して説明する。第2図は本
発明のデバッグ方式の一実施例を示す機能ブロック図で
ある。第2図において、第1図と同一構成要素には同一
番号符号が付与されている。
Next, the present invention will be explained with reference to the drawings. FIG. 2 is a functional block diagram showing an embodiment of the debugging method of the present invention. In FIG. 2, the same components as in FIG. 1 are given the same numbers and symbols.

交換システム20は電話加入者回線11及び中継線を接
続収容する通話路サブシステム101及び呼処理装置(
以下CP)102を含む制御サブシステム203並びに
これら二つのサブシステムが接続される共通バス104
を備え、前記CP102が共通バス104を介して交換
接続動作を制御する。制御サブシステム203の変換装
置(以下ADA)202は、一方で共通バス104とC
P 102との間の接続条件によシ共通バス104と接
続し他方で光バスシステム(通信用大量データ伝送手段
)25に対し所定の接続条件で端局装置(以下TS)2
51と接続する。又、CP242は前記CP102 と
同一構成要素のもので、且つ交換システム2oから遠隔
の地に設置された端末システム24に含まれる。この端
末システム24に含まれる変換装置(以下ADB)24
4は一方で光バスシステム25の接続条件によってT8
252に接続され、他方で共通バス104とCr2O2
との間の接続条件によ、9CP242と接続する。これ
らTS251及び252は光パス250 K接続されて
おシ、時分割多重の直列符号伝送方式による光通信が遠
隔地に対して可能である。従来技術同様CP242はT
f9T13と同一構成要素の試験台(以下TNT)24
3と直結されるので、TST243は’I’5T13と
同一操作で交換システム2oを使用したデバッグが実行
できる。このように、光バスシステムは光バスに多数の
端局装置(TS)を設置することKよシ多数の試験台(
TNT)がら任意の時間に交換システムを使用してデバ
ッグを実行することを可能にする。
The switching system 20 includes a communication channel subsystem 101 that connects and accommodates telephone subscriber lines 11 and trunk lines, and a call processing device (
A control subsystem 203 including a control subsystem 102 (hereinafter referred to as CP) and a common bus 104 to which these two subsystems are connected.
The CP 102 controls switching connection operations via a common bus 104. A conversion device (hereinafter referred to as ADA) 202 of the control subsystem 203 connects the common bus 104 and C
The terminal station (hereinafter referred to as TS) 2 is connected to the common bus 104 according to the connection conditions with P 102, and the terminal station device (hereinafter referred to as TS) 2 is connected to the optical bus system (mass data transmission means for communication) 25 under predetermined connection conditions.
Connect with 51. Further, the CP 242 has the same components as the CP 102, and is included in the terminal system 24 installed at a remote location from the exchange system 2o. Conversion device (hereinafter referred to as ADB) 24 included in this terminal system 24
4, on the other hand, T8 depending on the connection conditions of the optical bus system 25.
252 and the common bus 104 and Cr2O2 on the other hand.
According to the connection conditions between 9CP242 and 9CP242. These TSs 251 and 252 are connected by an optical path 250K, allowing optical communication to remote locations using a time division multiplexed serial code transmission method. Similar to the conventional technology, CP242 is T
Test stand (hereinafter referred to as TNT) 24 with the same components as f9T13
Since the TST 243 is directly connected to the switching system 2o, the TST 243 can perform debugging using the exchange system 2o in the same manner as the 'I'5T13. In this way, the optical bus system does not require the installation of many terminal stations (TS) on the optical bus, but also the installation of many test stands (TS) on the optical bus.
TNT) allows you to perform debugging using the exchange system at any time.

次に第3図は第2図における共通バス、呼処理1t(C
P)、 光バスシステム、並に変換装置(ADA及びA
DB)の間の情報交換の関係を示す機能ブロック図であ
る。呼処理装置(以下CP)102 は共通バス104
と前記従来技術で説明したように並列処理方式に従って
情報1likI322によ多接続されデータ入力用バッ
ファレジスタ(以下B几I)1021゜データ出力用バ
ッファレジスタ(以下BRO)10221主記憶装置(
以下MM)1023及びこれらを制御する中央処理装置
(以下CPU)1024を含み交換システムを制御する
。次にCP242は前記CP102と同一構成で、BR
I2421、BRO2422、MM2423及びCPU
2424を備え、情報線34−変換装置(以下ADB)
2441報線332−光パスジステム25−情報線33
1−変換装置(以下ADA)202−情報#321を経
由して共通バス104に接続される。
Next, FIG. 3 shows the common bus and call processing 1t (C
P), optical bus systems and converters (ADA and A
FIG. 2 is a functional block diagram showing the relationship of information exchange between DBs. A call processing device (hereinafter referred to as CP) 102 is connected to a common bus 104
As explained in the prior art section, the data input buffer register (hereinafter referred to as BRO) 1021 and the data output buffer register (hereinafter referred to as BRO) 10221 are connected to the information 1likI 322 according to the parallel processing method.
It controls the exchange system, including a central processing unit (hereinafter referred to as MM) 1023 and a central processing unit (hereinafter referred to as CPU) 1024 that controls these. Next, the CP242 has the same configuration as the CP102, and the BR
I2421, BRO2422, MM2423 and CPU
2424, information line 34-conversion device (hereinafter referred to as ADB)
2441 information line 332-optical path system 25-information line 33
1 - Conversion device (hereinafter referred to as ADA) 202 - Connected to the common bus 104 via information #321.

この接続において情報線34及び321を直結するとき
は情報線322と同一条件を成し、共通バス104及び
CP242の間の情報の授受は中間装置の転送処理時間
による遅延を生じる以外前記共通バス104及びCr2
O2間と同一の接続条件となる1゜ADA 202は、
CP242への入力データを一時蓄積するレジスタ(以
下IRA)2021、出力データを一時蓄積するレジス
タ(以下0RA)2022.及び前記入力データを共通
バス104から又出力データを光バスシステム25から
受付けIRA2021又は0RA2022に一時蓄積す
るのを制御し且つIRA2021から光バスシステム2
5に又0RA2022から共通バス104に条件を合わ
せたデータを出力する制御部(以下CCA)2023を
備える。一方、ADB244はADA202 と同様の
構成で入力データレジスタ(以下IRB)2441.出
力データレジスタ(以下ORB ) 2442及び入力
データを光バスシステム25から又出力データをCP2
42から受付けIRB2441又は0RB2442に一
時蓄積するのを制御し且つIRB2441からCP24
2に又0RB2442から光バスシステム25に条件を
合わせたデータを出力する制御部(以下CCB)244
3を備える。又一つのADA202と複数のADB24
4,244’とは、光ノくスジステム25を介して情報
線331及び情報線332 332’のそれぞれによ多
接続され、ADB2442441の遠隔地での設置が可
能である。CP242゜2421は情報線34.34’
によシADB24鳴、2441と接続され且つ試験台2
43(第2図参照)と結線され、Cr2O2と同様にデ
バッグ用の交換システムが試験台からの要請に従ってデ
ノくラグのための処理を実行する。
In this connection, when the information lines 34 and 321 are directly connected, the same conditions as the information line 322 are established, and the exchange of information between the common bus 104 and the CP 242 is performed using the common bus 104, except that there is a delay due to the transfer processing time of the intermediate device. and Cr2
1°ADA 202, which has the same connection conditions as between O2,
A register (hereinafter referred to as IRA) 2021 that temporarily stores input data to the CP 242, a register (hereinafter referred to as 0RA) 2022 that temporarily stores output data. and receives the input data from the common bus 104 and the output data from the optical bus system 25 and controls the temporary storage in the IRA 2021 or 0RA 2022, and controls the reception from the IRA 2021 to the optical bus system 2.
5 is also provided with a control unit (hereinafter referred to as CCA) 2023 that outputs data meeting conditions from the 0RA 2022 to the common bus 104. On the other hand, the ADB 244 has the same configuration as the ADA 202 and has input data registers (hereinafter referred to as IRBs) 2441. Output data register (hereinafter referred to as ORB) 2442 and input data from the optical bus system 25 and output data from the CP2
42 to the reception IRB 2441 or 0RB 2442, and from the IRB 2441 to the CP 24.
2, a control unit (hereinafter referred to as CCB) 244 outputs data matching the conditions from the 0RB 2442 to the optical bus system 25.
Equipped with 3. Another ADA202 and multiple ADB24
The ADB 2442441 is connected to the information line 331 and the information line 332 332' through the optical system 25, allowing the ADB 2442441 to be installed in a remote location. CP242°2421 is information line 34.34'
Connected to ADB 24, 2441 and test stand 2
43 (see FIG. 2), and similarly to Cr2O2, a debug exchange system executes processing for debugging according to requests from the test stand.

本実施例では電話交換システムとして説明したが、デー
タ交換システム又は一般の情報処理システムに置換して
もよく、光バスシステムはループの光フアイバケーブル
による光リンクシステム又は光フアイバケーブルに限定
せず通信用大量データ伝送システムであればよく、又試
験台は一般の入出力装置であれはデバッグ可能であシプ
ログラ−f (7)机上のパーソナルコンピュータの利
用は最も効果を発揮する。
Although this embodiment has been explained as a telephone exchange system, it may be replaced with a data exchange system or a general information processing system, and the optical bus system is not limited to an optical link system using a loop optical fiber cable or an optical fiber cable, and communication (7) The use of a personal computer on a desk is most effective.

以上説明したように本発明によれば共通バスと処理装置
との間に変換装置を介して通信用データ伝送手段を設備
しデバッグ用入出力端末装置をプログラマに近接設置す
ることによシッフトウエアの生産性向上という効果が得
られる。
As explained above, according to the present invention, a data transmission means for communication is installed between a common bus and a processing device via a conversion device, and a debugging input/output terminal device is installed close to a programmer, so that shiftware can be improved. The effect of improving productivity can be obtained.

【図面の簡単な説明】[Brief explanation of drawings]

第1図は従来のデバッグ方式の一構成例を示す機能ブロ
ック図、第2図は本発明によるデノくラグ方式の一実施
例を示す機能ブロック図、第3図は第2図における処理
装置及び変換装置の主機能ブロックを示すと共に接続状
況を示す機能ブロック図である。 13 243・・・・・・試験台(入出力端末装置)、
10゜20・・・・・・交換システム(処理システム)
、25・・・・・・光バスシステム(畏距量帯大会デー
タ伝送手段)、101・・・・・・通話路サブシステム
、102.242.242’・・・・・・呼処理装置(
処理装置)、103,203・・・・・・制御サブシス
テム、104・・・・・・共通バス、202,244、
。 2441・・・・・・変換装置。
FIG. 1 is a functional block diagram showing an example of a configuration of a conventional debugging method, FIG. 2 is a functional block diagram showing an example of a debugging method according to the present invention, and FIG. 3 is a processing device in FIG. 2. FIG. 2 is a functional block diagram showing the main functional blocks of the conversion device and the connection status. 13 243...Test bench (input/output terminal device),
10゜20・・・Exchange system (processing system)
, 25... Optical bus system (distance band meeting data transmission means), 101... Call path subsystem, 102.242.242'... Call processing device (
processing device), 103, 203... control subsystem, 104... common bus, 202, 244,
. 2441... Conversion device.

Claims (1)

【特許請求の範囲】[Claims] 複数のサブシステムを接続した共通バスと、該共通バス
に接続し且つデバッグ用入出力端末装置と接続された少
くとも一つの処理装置とを含みオンライン実時間処理を
行う処理システムのデバッグ方式において、前記共通バ
スと前記処理装置との間に、該処理装置と同じ条件で前
記共通バスに相互接続した第1の変換手段と、前記共通
バスと同じ条件で前記処理装置の少くとも一つのそれぞ
れに相互接続した第2の変換手段と、且つ前記第1及び
第2の変換手段を接続して相互に離れて位置する前記共
通バスと前記処理装置との間に情報の授受を実現するデ
ータ伝送手段とを備え、少くとも一つの前記処理装置を
前記処理システムの本体と離して設置したことを特徴と
するデバッグ方式。
A debugging method for a processing system that performs online real-time processing, including a common bus connecting a plurality of subsystems, and at least one processing device connected to the common bus and connected to a debugging input/output terminal device, between said common bus and said processing device, first conversion means interconnected to said common bus under the same conditions as said processing device; and first conversion means interconnected to said common bus under the same conditions as said common bus; data transmission means for realizing exchange of information between the mutually connected second conversion means and the common bus and the processing device that connect the first and second conversion means and are located apart from each other; A debugging method, characterized in that at least one of the processing devices is installed separately from a main body of the processing system.
JP57224727A 1982-12-21 1982-12-21 Debug system Pending JPS59114651A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP57224727A JPS59114651A (en) 1982-12-21 1982-12-21 Debug system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP57224727A JPS59114651A (en) 1982-12-21 1982-12-21 Debug system

Publications (1)

Publication Number Publication Date
JPS59114651A true JPS59114651A (en) 1984-07-02

Family

ID=16818292

Family Applications (1)

Application Number Title Priority Date Filing Date
JP57224727A Pending JPS59114651A (en) 1982-12-21 1982-12-21 Debug system

Country Status (1)

Country Link
JP (1) JPS59114651A (en)

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS6454545A (en) * 1987-08-25 1989-03-02 Nec Corp Remote debug device
JPH01136436A (en) * 1987-11-24 1989-05-29 Mitsubishi Electric Corp Empty vehicle call system
JPH01160293A (en) * 1987-12-17 1989-06-23 Nec Corp Software development aid system for exchange

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS6454545A (en) * 1987-08-25 1989-03-02 Nec Corp Remote debug device
JPH01136436A (en) * 1987-11-24 1989-05-29 Mitsubishi Electric Corp Empty vehicle call system
JPH01160293A (en) * 1987-12-17 1989-06-23 Nec Corp Software development aid system for exchange

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