1. How to Determine Which Manager Ran a Specific Concurrent Request?
col USER_CONCURRENT_QUEUE_NAME for a100
select b.USER_CONCURRENT_QUEUE_NAME from fnd_concurrent_processes a,
fnd_concurrent_queues_vl b, fnd_concurrent_requests c
where a.CONCURRENT_QUEUE_ID = b.CONCURRENT_QUEUE_ID
and a.CONCURRENT_PROCESS_ID = c.controlling_manager
and c.request_id = '&conc_reqid';
2. Concurrent manager status for a given sid?
col MODULE for a20
col OSUSER for a10
col USERNAME for a10
set num 10
col MACHINE for a20
set lines 200
col SCHEMANAME for a10
select s.sid,s.serial#,p.spid os_pid,s.status, s.osuser,s.username, s.MACHINE,s.MODULE,
s.SCHEMANAME,
s.action from gv$session s, gv$process p WHERE s.paddr = p.addr and s.sid = '&oracle_sid';
3. Find out request-id from Oracle_Process Id:
select REQUEST_ID,ORACLE_PROCESS_ID,OS_PROCESS_Id from apps.fnd_concurrent_requests where
ORACLE_PROCESS_ID='&a';
4. To find sid, serial# for a given concurrent request id?
set lines 200
SELECT a.request_id, d.sid, d.serial# ,d.osuser,d.process , c.SPID ,d.inst_id
FROM apps.fnd_concurrent_requests a,
apps.fnd_concurrent_processes b,
gv$process c,
gv$session d
WHERE a.controlling_manager = b.concurrent_process_id
AND c.pid = b.oracle_process_id
AND b.session_id=d.audsid
AND a.request_id = &Request_ID
AND a.phase_code = 'R';
5. To find the concurrent program name, phase code, and status code for a given request id?
6. To find the SQL query for a given concurrent request sid?
select sid,sql_text from gv$session ses, gv$sqlarea sql where
ses.sql_hash_value = sql.hash_value(+) and ses.sql_address = sql.address(+) and
ses.sid='&oracle_sid'
/
7. To find child requests
set lines 200
col USER_CONCURRENT_PROGRAM_NAME for a40
col PHASE_CODE for a10
col STATUS_CODE for a10
col COMPLETION_TEXT for a20
SELECT sum.request_id,req.PARENT_REQUEST_ID,sum.user_concurrent_program_name, DECODE
(sum.phase_code,'C','Completed',sum.phase_code) phase_code, DECODE(sum.status_code,'D',
'Cancelled' ,
'E', 'Error' , 'G', 'Warning', 'H','On Hold' , 'T', 'Terminating', 'M', 'No Manager' , 'X',
'Terminated', 'C', 'Normal', sum.status_code) status_code, sum.actual_start_date,
sum.actual_completion_date, sum.completion_text FROM apps.fnd_conc_req_summary_v sum,
apps.fnd_concurrent_requests req where req.request_id=sum.request_id and req.PARENT_REQUEST_ID =
'&parent_concurrent_request_id';
8. Cancelling Concurrent requests:
update fnd_concurrent_requests
set status_code='D', phase_code='C'
where request_id=&req_id;
9. Kill sessions program-wise
select 'ALTER SYSTEM KILL SESSION '''||sid||','||serial#||''' immediate;' from v$session where
MODULE like '';
10 . Concurrent Request running by SID
SELECT a.request_id,
d.sid as Oracle_SID,
d.serial#,
d.osuser,
d.process,
c.SPID as OS_Process_ID
FROM apps.fnd_concurrent_requests a,
apps.fnd_concurrent_processes b,
gv$process c,
gv$session d
WHERE a.controlling_manager = b.concurrent_process_id
AND c.pid = b.oracle_process_id
AND b.session_id=d.audsid
AND d.sid = &SID;
11. Find out request-id from Oracle_Process Id:
select REQUEST_ID,ORACLE_PROCESS_ID,OS_PROCESS_Id from fnd_concurrent_requests where
ORACLE_PROCESS_ID='&a';
12. Oracle Concurrent Request Error Script (requests which were errored out)
SELECT a.request_id "Req Id"
,a.phase_code,a.status_code
, actual_start_date
, actual_completion_date
,c.concurrent_program_name || ': ' || ctl.user_concurrent_program_name "program"
FROM APPLSYS.fnd_Concurrent_requests a,APPLSYS.fnd_concurrent_processes b
,applsys.fnd_concurrent_queues q
,APPLSYS.fnd_concurrent_programs c
,APPLSYS.fnd_concurrent_programs_tl ctl
WHERE a.controlling_manager = b.concurrent_process_id
AND a.concurrent_program_id = c.concurrent_program_id
AND a.program_application_id = c.application_id
AND a.status_code = 'E'
AND a.phase_code = 'C'
AND actual_start_date > sysdate - 2
AND b.queue_application_id = q.application_id
AND b.concurrent_queue_id = q.concurrent_queue_id
AND ctl.concurrent_program_id = c.concurrent_program_id
AND ctl.LANGUAGE = 'US'
ORDER BY 5 DESC;
13. Request submitted by User
SELECT
user_concurrent_program_name,
request_date,
request_id,
phase_code,
status_code
FROM
fnd_concurrent_requests fcr,
fnd_concurrent_programs_tl fcp,
fnd_responsibility_tl fr,
fnd_user fu
WHERE
fcr.CONCURRENT_PROGRAM_ID = fcp.concurrent_program_id
and fcr.responsibility_id = fr.responsibility_id
and fcr.requested_by = fu.user_id
and user_name = '&user'
AND actual_start_date > sysdate - 1
ORDER BY REQUEST_DATE Asc;
14. Concurrent Program enables trace
col User_Program_Name for a40
col Last_Updated_By for a30
col DESCRIPTION for a30
SELECT A.CONCURRENT_PROGRAM_NAME "Program_Name",
SUBSTR(A.USER_CONCURRENT_PROGRAM_NAME,1,40) "User_Program_Name",
SUBSTR(B.USER_NAME,1,15) "Last_Updated_By",
SUBSTR(B.DESCRIPTION,1,25) DESCRIPTION
FROM APPS.FND_CONCURRENT_PROGRAMS_VL A, APPLSYS.FND_USER B
WHERE A.ENABLE_TRACE='Y'
AND A.LAST_UPDATED_BY=B.USER_ID;
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
Oracle Concurrent Processing – Version 12.2 and later
Running fnd_conc_clone.setup_clean manually is unsupported.
This API was designed for use internally and although Development has documented running this API in some setup notes it is only where it has been explicitly tested and for that specific setup.
For example, you will find some references to FND_CONC_CLONE.SETUP_CLEAN in the upgrade guide and other development-created documents. However, these are strategically placed.
Running this API outside of the specific places found in the official Oracle documentation (upgrade guide and other development documents) will cause problems and will break the functionality of your Oracle E-Business Suite system.
If fnd_conc_clone.setup_clean has been run, the only option to bring back the system to a stable and safe state will be to restore from a backup taken previously to run the API.
R12.2: When To Run fnd_conc_clone.setup_clean?
Ref:Doc ID 2130750.1
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
RMAN-00571: =========================================================== RMAN-00569: =============== ERROR MESSAGE STACK FOLLOWS =============== RMAN-00571: =========================================================== RMAN-03002: failure of backup plus archivelog command at 07/12/2021 03:29:07 RMAN-06183: datafile or datafile copy +ORA_DATA/wwibetest_bosqeumcsdb/datafile/undotbs1.779.1077535587 (file number 3) larger than MAXSETSIZE
Finding and solution:
RMAN> show all;
using target database control file instead of recovery catalog
RMAN configuration parameters for database with db_unique_name WWIBEMCS_BOSQEUMCSDB201 are:
CONFIGURE RETENTION POLICY TO REDUNDANCY 1;
CONFIGURE BACKUP OPTIMIZATION ON;
CONFIGURE DEFAULT DEVICE TYPE TO DISK;
CONFIGURE CONTROLFILE AUTOBACKUP ON;
CONFIGURE CONTROLFILE AUTOBACKUP FORMAT FOR DEVICE TYPE DISK TO ‘/backup/oracle/WWIBEMCS/rman/WWIBEMCS_autobcf_%F’;
CONFIGURE DEVICE TYPE DISK PARALLELISM 4 BACKUP TYPE TO BACKUPSET;
CONFIGURE DATAFILE BACKUP COPIES FOR DEVICE TYPE DISK TO 1;
CONFIGURE ARCHIVELOG BACKUP COPIES FOR DEVICE TYPE DISK TO 1;
CONFIGURE CHANNEL DEVICE TYPE DISK FORMAT ‘/bck/oracle/%d/rman/%d_%Y%M%D_%u_s%s_p%p’;
CONFIGURE MAXSETSIZE TO 30 G;
CONFIGURE ENCRYPTION FOR DATABASE OFF; # default
CONFIGURE ENCRYPTION ALGORITHM ‘AES128’; # default
CONFIGURE COMPRESSION ALGORITHM ‘BASIC’ AS OF RELEASE ‘DEFAULT’ OPTIMIZE FOR LOAD TRUE ; # default
CONFIGURE ARCHIVELOG DELETION POLICY TO NONE;
CONFIGURE SNAPSHOT CONTROLFILE NAME TO ‘/wwi/wwdb/db/oracle/product/11.2.0.4/db_1/dbs/snapcf_WWIBEMCS.f’; # default
RMAN> CONFIGURE MAXSETSIZE TO 35 G;
old RMAN configuration parameters:
CONFIGURE MAXSETSIZE TO 30 G;
new RMAN configuration parameters:
CONFIGURE MAXSETSIZE TO 35 G;
new RMAN configuration parameters are successfully stored
RMAN> show all;
RMAN configuration parameters for database with db_unique_name WWIBEMCS_BOSQEUMCSDB201 are:
CONFIGURE RETENTION POLICY TO REDUNDANCY 1;
CONFIGURE BACKUP OPTIMIZATION ON;
CONFIGURE DEFAULT DEVICE TYPE TO DISK;
CONFIGURE CONTROLFILE AUTOBACKUP ON;
CONFIGURE CONTROLFILE AUTOBACKUP FORMAT FOR DEVICE TYPE DISK TO ‘/backup/oracle/WWIBEMCS/rman/WWIBEMCS_autobcf_%F’;
CONFIGURE DEVICE TYPE DISK PARALLELISM 4 BACKUP TYPE TO BACKUPSET;
CONFIGURE DATAFILE BACKUP COPIES FOR DEVICE TYPE DISK TO 1;
CONFIGURE ARCHIVELOG BACKUP COPIES FOR DEVICE TYPE DISK TO 1;
CONFIGURE CHANNEL DEVICE TYPE DISK FORMAT ‘/bck/oracle/%d/rman/%d_%Y%M%D_%u_s%s_p%p’;
CONFIGURE MAXSETSIZE TO 35 G;
Now I ran the RMAN backup it went successful.
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
Description:
In this blog, we are going to see take RMAN backup in asm storage and restore the database to another server.
RMAN Restore ASM:
Take the backup using RMAN in source host copy the backup into destination host, using that backup files to restore the database.
Overall Steps:
Source server:
1. Backup Database using RMAN
2. Create pfile from spfile
3. Copy the backup files to the destination server
Destination server:
1. Edit pfile
2. Create Required Folders in destination server
3. Add the database entry in oratab
4. Startup using pfile Nomount stage
5. Restore control file
6. Mount database
7. Catalog backup pieces
8. Restore and recover the database
9. Change dbname/DBID uisng NID
10. verify the database name and id.
Source Server:
Step 1: Take backup using RMAN:
Create backup directory:
Backup script:
run {
allocate channel t1 type disk;
allocate channel t1 type disk;
allocate channel t1 type disk;
backup incremental level 0 database format ‘/u01/share/backup/database_%d_%u_%s’;
release channel t1;
}
sql ‘alter system archive log current’;
run {
allocate channel a1 type disk;
backup archivelog all format ‘/u01/share/backup/arch_%d_%u_%s’;
release channel a1;
}
run {
allocate channel c1 type disk;
backup current controlfile format ‘/u01/share/backup/Control_%d_%u_%s’;
release channel c1;
}
exit
Connect RMAN and execute the script:
[oracle@asm ~]$ rman target /
Recovery Manager: Release 19.0.0.0.0 – Production on Fri Jan 21 08:01:54 2022
Version 19.3.0.0.0
Copyright (c) 1982, 2019, Oracle and/or its affiliates. All rights reserved.
connected to target database: ORAASM (DBID=1977555372)
RMAN> @backup.rcv
RMAN> run {
2> allocate channel t1 type disk;
3> allocate channel t2 type disk;
4> allocate channel t3 type disk;
5> backup incremental level 0 database format ‘/u01/share/backup/database_%d_%u_%s’;
6> release channel t1;
7> release channel t2;
8> release channel t3;
9> }
using target database control file instead of recovery catalog
allocated channel: t1
channel t1: SID=78 device type=DISK
allocated channel: t3
channel t3: SID=88 device type=DISK
Starting backup at 21-JAN-22
channel t1: starting incremental level 0 datafile backup set
channel t1: specifying datafile(s) in backup set
input datafile file number=00001 name=+DATA/ORAASM/DATAFILE/system.257.1092813819
channel t1: starting piece 1 at 21-JAN-22
channel t2: starting incremental level 0 datafile backup set
channel t2: specifying datafile(s) in backup set
input datafile file number=00003 name=+DATA/ORAASM/DATAFILE/sysaux.258.1092813853
input datafile file number=00014 name=+DATA/ORAASM/DATAFILE/tblspace.281.1093044531
input datafile file number=00007 name=+DATA/ORAASM/DATAFILE/users.260.1092813869
channel t2: starting piece 1 at 21-JAN-22
channel t3: starting incremental level 0 datafile backup set
channel t3: specifying datafile(s) in backup set
input datafile file number=00004 name=+DATA/ORAASM/DATAFILE/undotbs1.259.1092813869
input datafile file number=00015 name=+DATA/ORAASM/DATAFILE/test.282.1094538795
input datafile file number=00013 name=+DATA/ORAASM/DATAFILE/tblspace.280.1093044407
channel t3: starting piece 1 at 21-JAN-22
channel t3: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_080jqqo1_8 tag=TAG20220121T080204 comment=NONE
channel t3: backup set complete, elapsed time: 00:00:16
channel t3: starting incremental level 0 datafile backup set
channel t3: specifying datafile(s) in backup set
input datafile file number=00010 name=+DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/sysaux.277.1092815375
input datafile file number=00011 name=+DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/undotbs1.275.1092815375
channel t3: starting piece 1 at 21-JAN-22
channel t1: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_060jqqns_6 tag=TAG20220121T080204 comment=NONE
channel t1: backup set complete, elapsed time: 00:01:10
channel t1: starting incremental level 0 datafile backup set
channel t1: specifying datafile(s) in backup set
input datafile file number=00006 name=+DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/sysaux.271.1092814421
channel t1: starting piece 1 at 21-JAN-22
channel t2: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_070jqqns_7 tag=TAG20220121T080204 comment=NONE
channel t2: backup set complete, elapsed time: 00:01:13
channel t2: starting incremental level 0 datafile backup set
channel t2: specifying datafile(s) in backup set
input datafile file number=00009 name=+DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/system.276.1092815375
input datafile file number=00012 name=+DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/users.279.1092815459
channel t2: starting piece 1 at 21-JAN-22
channel t3: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_090jqqop_9 tag=TAG20220121T080204 comment=NONE
channel t3: backup set complete, elapsed time: 00:00:49
channel t3: starting incremental level 0 datafile backup set
channel t3: specifying datafile(s) in backup set
input datafile file number=00005 name=+DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/system.270.1092814419
channel t3: starting piece 1 at 21-JAN-22
channel t1: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_0a0jqqq2_10 tag=TAG20220121T080204 comment=NONE
channel t1: backup set complete, elapsed time: 00:00:12
channel t1: starting incremental level 0 datafile backup set
channel t1: specifying datafile(s) in backup set
input datafile file number=00008 name=+DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/undotbs1.272.1092814421
channel t1: starting piece 1 at 21-JAN-22
channel t1: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_0d0jqqqg_13 tag=TAG20220121T080204 comment=NONE
channel t1: backup set complete, elapsed time: 00:00:26
channel t2: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_0b0jqqq9_11 tag=TAG20220121T080204 comment=NONE
channel t2: backup set complete, elapsed time: 00:00:27
channel t3: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/database_ORAASM_0c0jqqqf_12 tag=TAG20220121T080204 comment=NONE
channel t3: backup set complete, elapsed time: 00:00:26
Finished backup at 21-JAN-22
Starting Control File and SPFILE Autobackup at 21-JAN-22
piece handle=+DATA/ORAASM/AUTOBACKUP/2022_01_21/s_1094544235.283.1094544237 comment=NONE
Finished Control File and SPFILE Autobackup at 21-JAN-22
released channel: t1
released channel: t2
released channel: t3
RMAN> sql ‘alter system archive log current’;
sql statement: alter system archive log current
RMAN> run {
2> allocate channel a1 type disk;
3> backup archivelog all format ‘/u01/share/backup/arch_%d_%u_%s’;
4> release channel a1;
5> }
allocated channel: a1
channel a1: SID=78 device type=DISK
Starting backup at 21-JAN-22
current log archived
channel a1: starting archived log backup set
channel a1: specifying archived log(s) in backup set
input archived log thread=1 sequence=16 RECID=1 STAMP=1094544242
input archived log thread=1 sequence=17 RECID=2 STAMP=1094544243
channel a1: starting piece 1 at 21-JAN-22
channel a1: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/arch_ORAASM_0f0jqqrk_15 tag=TAG20220121T080403 comment=NONE
channel a1: backup set complete, elapsed time: 00:00:03
Finished backup at 21-JAN-22
Starting Control File and SPFILE Autobackup at 21-JAN-22
piece handle=+DATA/ORAASM/AUTOBACKUP/2022_01_21/s_1094544247.289.1094544249 comment=NONE
Finished Control File and SPFILE Autobackup at 21-JAN-22
released channel: a1
RMAN> run {
2> allocate channel c1 type disk;
3> backup current controlfile format ‘/u01/share/backup/Control_%d_%u_%s’;
4> release channel c1;
5> }
allocated channel: c1
channel c1: SID=78 device type=DISK
Starting backup at 21-JAN-22
channel c1: starting full datafile backup set
channel c1: specifying datafile(s) in backup set
including current control file in backup set
channel c1: starting piece 1 at 21-JAN-22
channel c1: finished piece 1 at 21-JAN-22
piece handle=/u01/share/backup/Control_ORAASM_0h0jqqrs_17 tag=TAG20220121T080412 comment=NONE
channel c1: backup set complete, elapsed time: 00:00:01
Finished backup at 21-JAN-22
Starting Control File and SPFILE Autobackup at 21-JAN-22
piece handle=+DATA/ORAASM/AUTOBACKUP/2022_01_21/s_1094544256.290.1094544257 comment=NONE
Finished Control File and SPFILE Autobackup at 21-JAN-22
released channel: c1
RMAN> exit
Recovery Manager complete.
Check the backup file location:
Step 2: Create pfile from spfile
create pfile=’/home/oracle/initasmora.ora’ from spfile; Step 3: Copy the backup file into destination server
run
{
ALLOCATE CHANNEL d1 DEVICE TYPE disk;
ALLOCATE CHANNEL d2 DEVICE TYPE disk;
set newname for datafile 1 to ‘+DATA’;
set newname for datafile 2 to ‘+DATA’;
set newname for datafile 3 to ‘+DATA’;
set newname for datafile 4 to ‘+DATA’;
set newname for datafile 5 to ‘+DATA’;
SQL “ALTER DATABASE RENAME FILE ”+DATA/oraasm/onlinelog/group_3.268.1092813965”
to ”+DATA”” ;
SQL “ALTER DATABASE RENAME FILE ”+DATA/oraasm/onlinelog/group_2.266.1092813951”
to ”+DATA”” ;
SQL “ALTER DATABASE RENAME FILE ”+DATA/oraasm/onlinelog/group_1.265.1092813949”
to ”+DATA”” ;
SET UNTIL SEQUENCE 12; <— 11+1
RESTORE DATABASE;
SWITCH DATAFILE ALL;
RECOVER DATABASE;
}
SQL> startup nomount pfile='initasmora.ora';
ORACLE instance started.
Total System Global Area 1269366784 bytes
Fixed Size 2227984 bytes
Variable Size 838861040 bytes
Database Buffers 419430400 bytes
Redo Buffers 8847360 bytes
SQL> alter database mount;
Database altered.
SQL>
set db name and id:
[oracle@asm asmora]$ . oraenv
ORACLE_SID = [asmora] ?
The Oracle base remains unchanged with value /u01/app/oracle
[oracle@asm asmora]$ nid target=sys dbname=asmora
DBNEWID: Release 19.0.0.0.0 – Production on Fri Jan 21 09:09:50 2022
Copyright (c) 1982, 2019, Oracle and/or its affiliates. All rights reserved.
Password:
Connected to database ORAASM (DBID=1977555372)
Connected to server version 19.3.0
Control Files in database:
+DATA/ASMORA/CONTROLFILE/current.262.1092813933
+DATA/ASMORA/CONTROLFILE/current.261.1092813933
Change database ID and database name ORAASM to ASMORA? (Y/[N]) => y
Proceeding with operation
Changing database ID from 1977555372 to 65466533
Changing database name from ORAASM to ASMORA
Control File +DATA/ASMORA/CONTROLFILE/current.262.1092813933 – modified
Control File +DATA/ASMORA/CONTROLFILE/current.261.1092813933 – modified
Datafile +DATA/ORAASM/DATAFILE/system.257.109281381 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/sysaux.258.109281385 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/undotbs1.259.109281386 – dbid changed, wrote new name
Datafile +DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/system.270.109281441 – dbid changed, wrote new name
Datafile +DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/sysaux.271.109281442 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/users.260.109281386 – dbid changed, wrote new name
Datafile +DATA/ORAASM/86B637B62FE07A65E053F706E80A27CA/DATAFILE/undotbs1.272.109281442 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/system.276.109281537 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/sysaux.277.109281537 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/undotbs1.275.109281537 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/DATAFILE/users.279.109281545 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/tblspace.280.109304440 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/tblspace.281.109304453 – dbid changed, wrote new name
Datafile +DATA/ORAASM/DATAFILE/test.282.109453879 – dbid changed, wrote new name
Datafile +DATA/ORAASM/TEMPFILE/temp.269.109281404 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CB418C2B91B66E053867EA8C0C5A0/TEMPFILE/temp.273.109281445 – dbid changed, wrote new name
Datafile +DATA/ORAASM/D47CEAB72C2F2513E053867EA8C0538D/TEMPFILE/temp.278.109281541 – dbid changed, wrote new name
Control File +DATA/ASMORA/CONTROLFILE/current.262.1092813933 – dbid changed, wrote new name
Control File +DATA/ASMORA/CONTROLFILE/current.261.1092813933 – dbid changed, wrote new name
Instance shut down
Database name changed to ASMORA.
Modify parameter file and generate a new password file before restarting.
Database ID for database ASMORA changed to 65466533.
All previous backups and archived redo logs for this database are unusable.
Database is not aware of previous backups and archived logs in Recovery Area.
Database has been shutdown, open database with RESETLOGS option.
Succesfully changed database name and ID.
DBNEWID – Completed succesfully.
[oracle@asm asmora]$
Step 10: check the DB name and id
SQL> alter database open resetlogs;
Database altered.
SQL> select name, open_mode, db_unique_name, dbid from v$database;
NAME OPEN_MODE DB_UNIQUE_NAME DBID
ASMORA READ WRITE asmora 65466533
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
7. scan and list the disk using oracleasm: [root@asm dev]# oracleasm scandisks Reloading disk partitions: done Cleaning any stale ASM disks… Scanning system for ASM disks… [root@asm dev]# oracleasm listdisks DISK1 DISK2 [root@asm dev]#
8. asmcmd tool:
[oracle@asm ~]$ asmcmd ASMCMD> ASMCMD>
I. list the disk group ASMCMD> lsdg State Type Rebal Sector Logical_Sector Block AU Total_MB Free_MB Req_mir_free_MB Usable_file_MB Offline_disks Voting_files Name MOUNTED EXTERN N 512 512 4096 4194304 30712 25860 0 25860 0 N DATA/ ASMCMD>
II. list datafile,controlfile
ASMCMD> cd DATA/ ASMCMD> ls ASM/ ORAASM/ orapwasm ASMCMD> cd ORAASM ASMCMD> ls 86B637B62FE07A65E053F706E80A27CA/ CONTROLFILE/ D47CB418C2B91B66E053867EA8C0C5A0/ D47CEAB72C2F2513E053867EA8C0538D/ DATAFILE/ ONLINELOG/ PARAMETERFILE/ TEMPFILE/ ASMCMD> cd DATAFILE ASMCMD> ls SYSAUX.258.1092813853 SYSTEM.257.1092813819 UNDOTBS1.259.1092813869 USERS.260.1092813869 ASMCMD> pwd +DATA/ORAASM/DATAFILE ASMCMD>
9. check css,has status:
[oracle@asm ~]$ crsctl check has CRS-4638: Oracle High Availability Services is online [oracle@asm ~]$ crsctl check css CRS-4529: Cluster Synchronization Services is online [oracle@asm ~]$
10. check has version:
[oracle@asm ~]$ crsctl query has releaseversion Oracle High Availability Services release version on the local node is [19.0.0.0.0] [oracle@asm ~]$ crsctl query has softwareversion Oracle High Availability Services version on the local node is [19.0.0.0.0] [oracle@asm ~]$
11. asmca —> GUI for create and manage diskgroup:
12. KFOD – discovering disks with the help of asm disk strings: KFED – discovering disk headers
13. check olr and ocr location : [oracle@asm ~]$ ocrcheck Status of Oracle Cluster Registry is as follows : Version : 4 Total space (kbytes) : 491684 Used space (kbytes) : 82368 Available space (kbytes) : 409316 ID : 786336035 Device/File Name : /u01/app/grid/cdata/localhost/local.ocr Device/File integrity check succeeded
Device/File not configured
Device/File not configured
Device/File not configured
Device/File not configured
Cluster registry integrity check succeeded
Logical corruption check bypassed due to non-privileged user
[oracle@asm ~]$ [oracle@asm ~]$ ocrcheck -local Status of Oracle Local Registry is as follows : Version : 4 Total space (kbytes) : 491684 Used space (kbytes) : 83496 Available space (kbytes) : 408188 ID : 476403298 Device/File Name : /u01/app/oracle/crsdata/asm/olr/asm_19.olr Device/File integrity check succeeded
Local registry integrity check succeeded
Logical corruption check bypassed due to non-privileged user
[oracle@asm ~]$ ocrcheck -local -config Oracle Local Registry configuration is : Device/File Name : /u01/app/oracle/crsdata/asm/olr/asm_19.olr [oracle@asm ~]$
14. Check the asm status in sysasm admin:
[oracle@asm ~]$ sqlplus / as sysasm
SQL*Plus: Release 19.0.0.0.0 – Production on Sun Jan 2 17:57:52 2022 Version 19.3.0.0.0
Copyright (c) 1982, 2019, Oracle. All rights reserved.
Connected to: Oracle Database 19c Enterprise Edition Release 19.0.0.0.0 – Production Version 19.3.0.0.0
15. check instance type:
SQL> show parameter INSTANCE_TYPE
NAME TYPE VALUE ———————————— ———– —————————— instance_type string ASM
16. spfile location:
SQL> show parameter spfile
NAME TYPE VALUE ———————————— ———– —————————— spfile string +DATA/ASM/ASMPARAMETERFILE/reg istry.253.1092745689
17. pfile creation: SQL> create pfile from spfile;
File created.
SQL> exit Disconnected from Oracle Database 19c Enterprise Edition Release 19.0.0.0.0 – Production Version 19.3.0.0.0 [oracle@asm ~]$ cd $ORACLE_HOME/dbs [oracle@asm dbs]$ ls ab_+ASM.dat hc_+ASM.dat init+ASM.ora init.ora [oracle@asm dbs]$ cat init+ASM.ora +ASM.__oracle_base=’/u01/app/oracle’#ORACLE_BASE set from in memory value .asm_diskstring=’/dev/oracleasm/disks’ .asm_power_limit=1 .large_pool_size=12M .remote_login_passwordfile=’EXCLUSIVE’ [oracle@asm dbs]$ sqlplus / as sysasm
SQL*Plus: Release 19.0.0.0.0 – Production on Sun Jan 2 18:01:05 2022 Version 19.3.0.0.0
Copyright (c) 1982, 2019, Oracle. All rights reserved.
Connected to: Oracle Database 19c Enterprise Edition Release 19.0.0.0.0 – Production Version 19.3.0.0.0
18. instance type and status:
SQL> select instance_name,status from v$instance;
INSTANCE_NAME STATUS —————- ———— +ASM STARTED
SQL> exit Disconnected from Oracle Database 19c Enterprise Edition Release 19.0.0.0.0 – Production Version 19.3.0.0.0 [oracle@asm dbs]$ crsctl stat res -t ——————————————————————————– Name Target State Server State details ——————————————————————————– Local Resources ——————————————————————————– ora.DATA.dg ONLINE ONLINE asm STABLE ora.LISTENER.lsnr ONLINE ONLINE asm STABLE ora.asm ONLINE ONLINE asm Started,STABLE ora.ons OFFLINE OFFLINE asm STABLE ——————————————————————————– Cluster Resources ——————————————————————————– ora.cssd 1 ONLINE ONLINE asm STABLE ora.diskmon 1 OFFLINE OFFLINE STABLE ora.evmd 1 ONLINE ONLINE asm STABLE ora.oraasm.db 1 ONLINE ONLINE asm Open,HOME=/u01/app/o racle/product/19.0.0 /dbhome_1,STABLE ——————————————————————————– [oracle@asm dbs]$
19. ASMCMD check datafile and controlfile:
[oracle@asm dbs]$ asmcmd ASMCMD> ASMCMD> ASMCMD> ASMCMD> lsdg State Type Rebal Sector Logical_Sector Block AU Total_MB Free_MB Req_mir_free_MB Usable_file_MB Offline_disks Voting_files Name MOUNTED EXTERN N 512 512 4096 4194304 30712 25852 0 25852 0 N DATA/ ASMCMD> cd +DATA/oraasm/datafile ASMCMD> ls SYSAUX.258.1092813853 SYSTEM.257.1092813819 UNDOTBS1.259.1092813869 USERS.260.1092813869 ASMCMD> ls -l Type Redund Striped Time Sys Name DATAFILE UNPROT COARSE JAN 02 17:00:00 Y SYSAUX.258.1092813853 DATAFILE UNPROT COARSE JAN 02 17:00:00 Y SYSTEM.257.1092813819 DATAFILE UNPROT COARSE JAN 02 17:00:00 Y UNDOTBS1.259.1092813869 DATAFILE UNPROT COARSE JAN 02 17:00:00 Y USERS.260.1092813869 ASMCMD>
ASMCMD> cd +DATA/oraasm/parameterfile
ASMCMD> ls -l Type Redund Striped Time Sys Name PARAMETERFILE UNPROT COARSE JAN 02 17:00:00 Y spfile.274.1092815069 ASMCMD>
ASMCMD> ls -l Type Redund Striped Time Sys Name ASMPARAMETERFILE UNPROT COARSE DEC 31 12:00:00 Y REGISTRY.253.1092745689 ASMCMD> pwd +DATA/ASM/ASMPARAMETERFILE ASMCMD>
20. query to check asm_disk and asm disk_group:
SQL> select disk_number,name,path,header_status,mode_status,state,total_mb,free_mb from v$asm_disk;
DISK_NUMBER NAME PATH HEADER_STATU MODE_ST STATE TOTAL_MB FREE_MB —————————————————————————————————- 0 DATA_0000 /dev/oracleasm/disks/DISK1 MEMBER ONLINE NORMAL 20476 17228
1 DATA_0001 /dev/oracleasm/disks/DISK2 MEMBER ONLINE NORMAL 10236 8624
SQL> select group_number,name,state,type from v$asm_diskgroup;
GROUP_NUMBER NAME STATE TYPE ———— —————————— ———– —— 1 DATA MOUNTED EXTERN
SQL>
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
1. Check the status of Notifications: ====================================
col RECIPIENT_ROLE format a20
col FROM_USER format a20
col TO_USER format a20
set lines 170
select NOTIFICATION_ID,MESSAGE_TYPE,MESSAGE_NAME,RECIPIENT_ROLE,STATUS,FROM_USER,TO_USER from wf_notifications where NOTIFICATION_ID=‘&1′;
2.Check the status of Workflow components: =========================================
SELECT component_name as Component, component_status as Status FROM fnd_svc_components
3. To check whether notification is present: =========================================
select recipient_role,notification_id,status,mail_status from wf_notifications where recipient_role like ‘&user_name’;
The e-mail notification is sent only if all of the following is true.
Notification status is OPEN or CANCELED
Notification mail_status is MAIL or INVALID
4. Check Recipient role has a valid e-mail address and notification preference MAIL% =========================================
SELECT email_address, nvl(WF_PREF.get_pref(name, ‘MAILTYPE’), notification_preference)
FROM wf_roles
WHERE name = ‘&recipient_role’;
Recipient can receive email notification only if
notification preference is not set ‘QUERY’ / ‘DISABLED’ / ‘SUMMARY’ / ‘SUMHTML’ &
recipient has valid email address
5.WF_DEFERRED Queue volume: ===========================
col corrid format a60
set lines 130
set pages 100
select NVL(substr(wfe.corrid,1,50),’NULL – No Value’) corrid, decode(wfe.state,0,’0 = Ready’,1,’1 = Delayed’,2,’2 = Retained’,
3,’3 = Exception’,to_char(substr(wfe.state,1,12))) State,count(*) COUNT
from applsys.wf_deferred wfe group by wfe.corrid, wfe.state;
6.WF_NOTIFICATION_OUT Queue volume: ===================================
col corrid format a60
set lines 130
set pages 100
select NVL(substr(wfe.corrid,1,50),’NULL – No Value’) corrid, decode(wfe.state,0,’0 = Ready’,1,’1 = Delayed’,2,’2 = Retained’,
3,’3 = Exception’,to_char(substr(wfe.state,1,12))) State,count(*)COUNT
from applsys.wf_notification_out wfe group by wfe.corrid, wfe.state;
This wait event happens when a session tries to access a block in the buffer cache but it can't because the buffer is busy, that is another session is modifying the block and the contents of the block are in flux.
Buffer Busy Wait:
SQL> SELECT s.sql_hash_value, sw.p1 file#, sw.p2 block#, sw.p3 reason
FROM v$session_wait sw, v$session s
WHERE sw.event = 'buffer busy waits'
AND sw.sid = s.sid;
no rows selected
SQL> SELECT owner , segment_name , segment_type
FROM dba_extents
WHERE file_id = &FileNumber
AND &BlockNumber BETWEEN block_id AND block_id + blocks -1; 2 3 4
Enter value for filenumber: 1
old 3: WHERE file_id = &FileNumber
new 3: WHERE file_id = 1
Enter value for blocknumber: 2
old 4: AND &BlockNumber BETWEEN block_id AND block_id + blocks -1
new 4: AND 2 BETWEEN block_id AND block_id + blocks -1
no rows selected
Another query that can be very useful is finding the objects in the entire Oracle database that are suffering from "buffer busy waits". The following query gives the top 10 segments:
SQL> SELECT * FROM (
SELECT owner, object_name, subobject_name, object_type,
tablespace_name, value
FROM v$segment_statistics
WHERE statistic_name='buffer busy waits' and owner not like '%SYS%'
ORDER BY value DESC)
WHERE ROWNUM <=10;
OWNER OBJECT_NAME SUBOBJECT_NAME OBJECT_TYPE TABLESPACE_NAME VALUE
-------------------- ------------------------------ ------------------------------ ------------------ ------------------------------ ----------
GSMADMIN_INTERNAL DDLID$ TABLE SYSAUX 0
XDB XDB$ROOT_INFO TABLE SYSAUX 0
XDB XDB$SCHEMA_URL INDEX SYSAUX 0
DB File Sequential Read
The db file sequential read wait event has three parameters:
file#, first block#, and block count.
In Oracle Database 11g, this wait event falls under the User I/O wait class.
The Oracle process wants a block that is currently not in the SGA, and it is waiting for the database block to be read into the SGA from disk.
The two important numbers to look for are the TIME_WAITED and AVERAGE_WAIT by individual sessions.
Significant db file sequential read wait time is most likely an application issue.
This event occurs when a user tries to perform a Physical I/O while waiting for sequential reads from the Buffer cache. This type of situation usually occurs when the data on the table is accessed by using index, not full table scan, as a result of single block reading.
If this event occurs, possible reasons are wrong index usage, index fragmentation, excessive I/O traffic on specific disks. To Solve this problem, Query should use Right index and fragmented indexes should be defragmented with Rebuild Index operation.
When you encounter this wait event, which appears very frequently in AWR and ADDM reports, we cannot always say that there is a problem. However, if this wait event takes place, if the database have ‘Enqueue’ and Latch Free and they are spending too much time, then database should be monitored.
DB File Scattered Read
This wait event occurs getting multiblock of physical blocks that are not physically close to each other (neighbors) into buffer cache Scattered, or during a full scan to the buffer cache. So Db file scattered read is to read multiple blocks I/O during the fast full scan.
A scattered read is usually a multiblock read. It can occur for a fast full scan (of an index) in addition to a full table scan. The db file scattered read wait event identifies that a full scan is occurring. When performing a full scan into the buffer cache, the blocks read are read into memory locations that are not physically adjacent to each other.
Multiblock (up to DB_FILE_MULTIBLOCK_READ_COUNT blocks) reads due to full scans into the buffer cache show up as waits for 'db file scattered read'.
Direct path Read
This event occurs when Oracle Instance query data from the Datafiles asynchronously and puts this data into PGA instead of Buffer Cache in SGA.
This type of event usually occurs during the use of Temporary ( Temp ) Tablespace in the Sorting operations, during the creation of Lob segments, and when multiple sessions Full table scan in parallel.
In order to solve this problem, the memory should be increased, parallel operations should not be done unless required, and pay attention to Lob segments reads.
DB CPU
This event represents the total time spent of the users’ queries on the CPU. Oracle’s Background processes (SMON, PMON ..) are not included in this total time.
If this value is high, it means that the Oracle instance spends most of the time on the CPU. To reduce this wait event, the SQLs in the SQL ordered by CPU section in the AWR report must be TUNE.
Logfile sync
This event is known as the time lost as a result of the LGWR process waiting while users initiate a Transaction Commit or Rollback.
If this wait event is available continuously, I/O performance of the LGWR process is probably poor, or Commit is coming too often by the application. The solution to this problem is not to commit too much, if necessary, and to examine the I/O performance of the disk on which the Redo log files are located, and to use a high performance disk such as an SSD disk if necessary.
Enq: TX – row lock contention
row lock contention: This type of event occurs when a user session is trying to update or delete a row held by another session, which is an application design problem. Normally, when a transaction is finished, commit or rollback must be executed to release related rows.
The solution to this problem is that if the session that holds the row is active, then execute commit statement, if it is not active, kill the session or execute rollback the session.
ARCH wait on SENDREQ
This wait event is the total time taken by the Archiver Processes to archive the Standby in the Dataguard and to write these archives to the local disks.
The main reason why this value is high is that the archives sent to the Standby side arrive late due to the network. To solve this problem, it is necessary to optimize the Network and set the DEFAULT_SDU_SIZE parameter in the sqlnet.ora file to an optimized value (32767).
Gc current block busy
This wait event occurs between the nodes of the Cluster database ( Real Application Cluster ). When a transaction requests a block, that request sent to the master instance. Normally, this request is performed by a cache fusion.
However, in some cases, this block transfer is delayed because the corresponding instance is held by the other instance or because the corresponding transaction records cannot be written to the redo logs immediately, in which case this wait event is triggered.
This can be solved by tune the wait event Log Writer process or Solving network problem between Cluster nodes.
Gc cr block busy-wait
ifference is that while the above event is running in current mode, this wait event runs in CR mode. This can be solved by tune the wait event Log Writer process.
Read by Other Session
When a session waits on the "read by other session" event, it indicates a wait for another session to read the data from disk into the Oracle buffer cache. If this happens too often the performance of the query or the entire database can suffer. Typically this is caused by contention for "hot" blocks or objects so it is imperative to find out which data is being contended for. Once that is known, there are several alternative methods for solving the issue.
When information is requested from the database, Oracle will first read the data from disk into the database buffer cache. If two or more sessions request the same information, the first session will read the data into the buffer cache while other sessions wait. In previous versions this wait was classified under the "buffer busy waits" event. However, in Oracle 10.1 and higher this wait time is now broken out into the "read by other session" wait event. Excessive waits for this event are typically due to several processes repeatedly reading the same blocks, e.g. many sessions scanning the same index or performing full table scans on the same table. Tuning this issue is a matter of finding and eliminating this contention.
Finding the contentions :
When a session is waiting on the "read by other session" event, an entry will be seen in the v$session_wait system view, which will give more information on the blocks being waited for:
SELECT p1 "file#", p2 "block#", p3 "class#"
FROM v$session_wait
WHERE event = 'read by other session';
If information collected from the above query repeatedly shows that the same block (or range of blocks) is experiencing waits, this indicates a "hot" block or object. The following query will give the name and type of the object:
SELECT relative_fno, owner, segment_name, segment_type
FROM dba_extents
WHERE file_id = &file
AND &block BETWEEN block_id AND block_id + blocks - 1; Eliminating contentions:
Depending on the Oracle database environment and specific performance situation the following variety of methods can be used to eliminate contention:
Tune inefficient queries - This is one of those events you need to "catch in the act" through the v$session_wait view as prescribed above. Then, since this is a disk operating system issue, take the associated system process identifier (c.spid) and see what information you can obtain from the operating system.
Redistribute data from the hot blocks - Deleting and reinserting the hot rows will often move them to a new data block. This will help decrease contention for the hot block and increase performance. More information about the data residing within the hot blocks can be retrieved with queries similar to the following:
SELECT data_object_id
FROM dba_objects
WHERE owner='&owner' AND object_name='&object';
SELECT dbms_rowid.rowid_create(1,<data_object_id>,<relative_fno>,<block>,0) start_rowid
FROM dual;
--rowid for the first row in the block
SELECT dbms_rowid.rowid_create(1,<data_object_id>,<relative_fno>,<block>,500) end_rowid FROM dual;
--rowid for the 500th row in the block
SELECT <column_list>
FROM <owner>.<segment_name>
WHERE rowid BETWEEN <start_rowid> AND <end_rowid>
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
Top 10 by Buffer Gets
=====================
set linesize 1000
set pagesize 1000
col sql for a70
set long 5000
col hash_value for 9999999999999999999999
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
buffer_gets, executions, buffer_gets/executions “Gets/Exec”,
hash_value,address
FROM GV$SQLAREA
WHERE buffer_gets > 10000
ORDER BY buffer_gets DESC)
WHERE rownum <=10
;
==================================================================================================
Top 10 by Physical Reads
========================
set linesize 100
set pagesize 100
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
disk_reads, executions, disk_reads/executions “Reads/Exec”,
hash_value,address
FROM V$SQLAREA
WHERE disk_reads > 1000
ORDER BY disk_reads DESC)
WHERE rownum <=10;
==================================================================================================
Top 10 by Executions
====================
set linesize 1000
set pagesize 1000
col sql for a70
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
executions, rows_processed, rows_processed/executions “Rows/Exec”,
hash_value,address
FROM GV$SQLAREA
WHERE executions > 100
ORDER BY executions DESC)
WHERE rownum <=10;
==================================================================================================
Top 10 by Parse Calls:
========================
set linesize 100
set pagesize 100
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
parse_calls, executions, hash_value,address
FROM V$SQLAREA
WHERE parse_calls > 1000
ORDER BY parse_calls DESC)
WHERE rownum <=10
;
=================================================================================================
Top 10 by Sharable Memory:
========================
set linesize 100
set pagesize 100
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
sharable_mem, executions, hash_value,address
FROM V$SQLAREA
WHERE sharable_mem > 1048576
ORDER BY sharable_mem DESC)
WHERE rownum <=10
;
==================================================================================================
Top 10 by Version Count:
========================
set linesize 100
set pagesize 100
SELECT * FROM
(SELECT substr(sql_text,1,40) sql,
version_count, executions, hash_value,address
FROM V$SQLAREA
WHERE version_count > 20
ORDER BY version_count DESC)
WHERE rownum <=10
;
Thank you for giving your valuable time to read the above information.
If you want to be updated with all our articles send us the Invitation or Follow us:
select s.sid,s.process,p.spid,s.status ,s.action,s.module, (s.last_call_et/3600) from
v$session s, v$process p where round(last_call_et/3600) >4 and action like ‘%FRM%’ and
p.addr=s.paddr ;
2. To list inactive Sessions respective username
SELECT username,count(*) num_inv_sess
FROM v$session
where last_call_et > 3600
and username is not null
AND STATUS=’INACTIVE’
group by username
order by num_inv_sess DESC;
SELECT count(*) FROM v$session where last_call_et > 43200 and username is not null AND
STATUS=’INACTIVE’;
SELECT count(*) FROM v$session where last_call_et > 3600 and username is not null AND
STATUS=’INACTIVE’;
3. To find session-id with a set of SPIDs
select sid from v$session, v$process where addr=paddr and spid in (‘11555′,’26265′,’11533’);
4. To find SQL Text given SQLHASH & SQLADDR
select piece,sql_text from v$sqltext where HASH_VALUE = &hash and ADDRESS =’&addr’ order by piece;
select piece,sql_text from v$sqltext where ADDRESS =’&addr’ order by piece;
5.Checking for Active Transactions SID
select username,t.used_ublk,t.used_urec from v$transaction t,v$session s where t.addr=s.taddr;
6. Session details from Session longops
select inst_id,SID,SERIAL#,OPNAME,SOFAR,TOTALWORK,START_TIME,LAST_UPDATE_TIME, username from gv$session_longops;
7. Session details with SPID
select sid, serial#, USERNAME, STATUS, OSUSER, PROCESS,
MACHINE, MODULE, ACTION, to_char(LOGON_TIME,’yyyy-mm-dd hh24:mi:ss’)
from v$session where paddr in (select addr from v$process where spid = ‘&spid’)
/
8. To find Undo Generated For a given session
select username,
t.used_ublk ,t.used_urec
from gv$transaction t,gv$session s
where t.addr=s.taddr and
s.sid=’&sid’;
9. To list the count of connections from other machines
select count(1),machine from gv$session where inst_id=’&inst_id’ group by machine;
10. To get the total count of sessions and processes
select count(*) from v$session;
select count(*) from v$process;
select (select count() from v$session) sessions, (select count() from v$process) processes from dual;
11. To find SQL text through SQL address
select sql_address from v$session where sid=1999;
select sql_text from v$sqltext where ADDRESS=’C00000027FF00AF0′ order by PIECE;
12. To find SQL text for different SQL hash value
select hash_value,sql_text from v$sql where hash_value in (1937378691,1564286875,
248741712,2235840973,2787402785)
13. Session details associated with SID and Event waiting for
set pages 50000 lines 32767
col EVENT for a40
select a.sid, a.serial#, a.status, a.program, b.event,to_char(a.logon_time, ‘dd-mon-yy hh24:mi’) LOGON_TIME,to_char(Sysdate, ‘dd-mon-yy-hh24:mi’) CURRENT_TIME, (a.last_call_et/3600) “Hrs connected” from v$session a,v$session_wait b where a.sid in(&SIDs) and a.sid=b.sid order by 8;
14. Active Sessions running for more than 1 hour
set pages 50000 lines 32767
col USERNAME for a10
col MACHINE for a15
col PROGRAM for a40
SELECT USERNAME,machine,inst_id,sid,serial#,PROGRAM,
to_char(logon_time,’dd-mm-yy hh:mi:ss AM’)”Logon Time”,
ROUND((SYSDATE-LOGON_TIME)(2460),1) as MINUTES_LOGGED_ON,
ROUND(LAST_CALL_ET/60,1) as Minutes_FOR_CURRENT_SQL
From gv$session
WHERE STATUS=’ACTIVE’
AND USERNAME IS NOT NULL and ROUND((SYSDATE-LOGON_TIME)(2460),1) > 60
ORDER BY MINUTES_LOGGED_ON DESC;
15.SQLs Running from longtime
alter session set nls_date_format = ‘dd/mm/yyyy hh24:mi’;
set pages 50000 lines 32767
col target format a25
col opname format a40
select sid
,opname
,target
,round(sofar/totalwork*100,2) as percent_done
,start_time
,last_update_time
,time_remaining
from v$session_longops;
16. Last/Latest Running SQL
set pages 50000 lines 32767
select inst_id,sample_time,session_id,session_serial#,sql_id from gv$active_session_history
where sql_id is not null
order by 1 desc;
17. Current Running SQLs
set pages 50000 lines 32767
col program format a20
col sql_text format a50
select b.sid,b.status,b.last_call_et,b.program,c.sql_id,c.sql_text
from v$session b,v$sqlarea c
where b.sql_id=c.sql_id;
18. Current Running SQLs
set pages 50000 lines 32767
col HOST_NAME for a20
col EVENT for a40
col MACHINE for a30
col SQL_TEXT for a50
col USERNAME for a15
select sid,serial#,a.sql_id,a.SQL_TEXT,S.USERNAME,i.host_name,machine,S.event,S.seconds_in_wait sec_wait,
to_char(logon_time,’DD-MON-RR HH24:MI’) login
from gv$session S,gV$SQLAREA A,gv$instance i
where S.username is not null
— and S.status=’ACTIVE’
AND S.sql_address=A.address
and s.inst_id=a.inst_id and i.inst_id = a.inst_id
and sql_text not like ‘select S.USERNAME,S.seconds_in_wait%’;
Please find out all of our articles send us the Invitation or Follow us:
