1.Install the new software version 5.3.3 in NMX lab server.
2.Insert 13th channel (ETV-Movies) Encoder or a New encoder in the lab system.
3.Before zaping prostream and encoder ,we have to confirm software version backward compatibility.
4.ZAP the above encoder with new software version.
5.After that ZAP the prostream with new software version.
6.Check any new features are added in NMX server.
7.Configure 8:2 encoder setup in the lab system for 16 channel purpose.
8.Check the output of the prostream for signal quality with different given bit rates.
9.Connect prostream output to the lab CA system and check the compatibility with different IRD,s.
10.NMX training classes.
11.We have to monitor and test the new upgraded software version at least 10 -15 days.
12.After Successful observation, we upgrade the NMX software version in the online system in the presence of NMX Engineer.
Monday, October 25, 2010
Friday, August 20, 2010
Steps followed for adding 13th&14th channels to the present transmission system
On 20/08/2010 at 12:35 AM we took backup from NMX main server for 12 channels
At 12:40 AM removed server redundancy between both servers
At 12:50 AM restored 14 channels database in standby NMX server
We checked all parameters & changed channel name, video PID, Audio PID and PMT PID
Then started Domain Manager in standby server
Observed glitches, white frames and blanks randomly about 2 min at 1:03 AM (we suspecting problem in 14 channel database)
We stopped Domain Manager of standby server and restored to previous database.
Then we created 13th and 14th channels manually & made necessary connections in main NMX server Digital Service Manager etc.,(Statmux rate adjusted to 30.90 from 30.99 mbps to increase null rate for CAS).
We rebuilt service configuration in Digital Service Manager. At this we observed 15 sec blank which is compulsory.
Then 13th & 14th channels are added to statmux pool. At this time we observed glitches, blanks and white frames about 2 min while configuring bitrates in statmux.
Then 14th channel was disabled.
Verified all PID's and necessary tests are done.
Then redundancy added for both servers and tested successfully.
After this,new services was added and configured in PISYS (13th channel) and tested successfully with regular commands.
At 3:45 am transmission chain changed to Standby path(MUX,SAS,MOD)
At 4:00 am we disabled 13th channel in NMX server and verified all PID's at the downlink.
At 4:15 am transmission chain changed to main path(SAS,MUX,MOD).
At 12:40 AM removed server redundancy between both servers
At 12:50 AM restored 14 channels database in standby NMX server
We checked all parameters & changed channel name, video PID, Audio PID and PMT PID
Then started Domain Manager in standby server
Observed glitches, white frames and blanks randomly about 2 min at 1:03 AM (we suspecting problem in 14 channel database)
We stopped Domain Manager of standby server and restored to previous database.
Then we created 13th and 14th channels manually & made necessary connections in main NMX server Digital Service Manager etc.,(Statmux rate adjusted to 30.90 from 30.99 mbps to increase null rate for CAS).
We rebuilt service configuration in Digital Service Manager. At this we observed 15 sec blank which is compulsory.
Then 13th & 14th channels are added to statmux pool. At this time we observed glitches, blanks and white frames about 2 min while configuring bitrates in statmux.
Then 14th channel was disabled.
Verified all PID's and necessary tests are done.
Then redundancy added for both servers and tested successfully.
After this,new services was added and configured in PISYS (13th channel) and tested successfully with regular commands.
At 3:45 am transmission chain changed to Standby path(MUX,SAS,MOD)
At 4:00 am we disabled 13th channel in NMX server and verified all PID's at the downlink.
At 4:15 am transmission chain changed to main path(SAS,MUX,MOD).
Thursday, August 19, 2010
Works to be done to start 13Th channel
Works to be taken to add 13Th channel
1. Backup NMX settings for the existing services.
2. Stop the NMX servers in domain manager
3. From domain manager/fail-safe>remove redundancy
4. Give new ID (12 to remove redundancy)
5. Restore 14th channel database in Backup server
6. Install lab encoder in NMX rack and connect input & output connections
7. Add MAC address in configuration and restart the encoder
8. Change channel name, video PID, Audio PID & PMT PID according to other channels without conflicting
9. In Statistical multiplex check bitrate for each channel
10. Assign bitrate as per our requirement
11. Enable 13th channel and check output in output service configuration (14th channel is disabled)
12. Check all green for ok
13. Take backup server as master server
14. Then restore databe of 13 channel (fresh backup in backup server) in master server
15. Arrange monitor at prosteam output with L-Band converter
16. Add redundancy & check prostream output (ID -11 to add redundancy).
Conditional Access steps:
1. Tune for new service in auto configuration wizard
2. Change name for the new channel as ETV-Cinema / (Note:-check multiple keys or single key)/
3. Create product and mention tag as ETVCIN
4. Put scrambling 'ON' and add product & Nationality
5. Check downlink with conditional access commands on the new channel as well as old receivers
6. After that disable 13th channel. (No 14th channel will appear in CA)
1. After finishing all settings in the PISYS Server , reset both the Online and Standby SAS.7. We require all the MPEG 4 Smartcards numbers list from Pay channel Dept. with appropriate syntax in the Floppy Disk.
8. Send Homing Channel data to all the MPEG 4 Receivers through PISYS Server.
9. Tune all the MPEG 4 Receivers by SHTUNE command from PISYS Server.
10. Before implementing, all the above steps to be tested in our Teleport Lab.
Wednesday, June 9, 2010
About Earthing in Electrical circuits
EARTHING.
Earthing and it’s types.
It is very important to earth the line and electrical equipment. It will be electrically unsafe without earthing. The pole/ body of equipment connected solidly to earth is called earthing.
1)For Electrical supports and equipments.
It case of short circuit or leakage, current will pass with minimum resistance to earth so that maximum current will flow through effected circuit so that fuse will blow or circuit breaker to trip. This will isolate the faulty line or equipment from live circuit.
2)Transformer neutral earthing.
a.The leakage or unbalanced current will have path with minimum resistance.
b.Sensitive protecting equipment works properly. (Earth Fault Relay.)
c.It prevents the lines being charged to excessive high voltage due to lightening or switching surges.
d.By connecting resistance in the neutral earthing, fault current is controlled.
e.It helps for keeping neutral voltage always zero.
3)For Lightening Arrestor: -
The lightening arrestor earthing discharges the lightening charge with very low resistance, which prevents possible damages. For this, very low earth resistance is necessary. This quality can be achieved by piercing earth electrode deep in the ground up to wet soil. Earth resistance depends on-
1)Types of soil, (2) Temperature of soil, (3) Wetness of soil, (4) Minerals in soil, (5) Size of Electrode, (6) Cross section of electrode, (7) Deepness of electrode in ground, (8) Distance between two electrodes.
Earth tester measures Earth resistance and its unit is ohm.
LINE AND POLE EARTHING.
1)Every fifth metallic pole of L.T. line should be earthed.
2)Cross arms, top clip, insulator pins of P.S.C. pole should be earthed along with the pole.
3)Guarding at Railway crossing, Telephone crossing, Road crossings should be earthed along with pole on both side. If earth electrode is not available 8 S.W.G. G.I. wire coil of 25 mm dia and 120 to 150 mm long should be used and placed in a pit at a distance of 90 cms. from pole at a depth of 150 cms. It is very necessary to earth the guarding. All the metal fittings of L.T. pole and stay should be earthed and connected firmly to neutral because neutral is multiple earthed neutral.
4)A separate earth electrode to be used for L.A. earthing and the earth wire should be through an Alkathine pipe without touching the pole.
Methods of Earthing.
1)Plate Earthing :
A) In major power stations and major sub-stations 12 mm thick, 1200 m long, 1200 mm wide Cast Iron plates are used.
B) For minor sub-stations 18 mm broad, 50 x 50 cm. G.I. plates are used. These plates are dug vertically in the pit. Coal, sand and salt are filled in the pit each of 150 mm layer. The plate should be dug deep so that soil will be wet from all sides. The plate should be placed at a distance of 1200 cm. from each other.
2) Pipe Earthing.
A) For Power Stations, and major sub-stations 12 mm thick, 150 mm dia, 300 cms. Long G.I. pipes are used. A minimum distance of 1200 cm. should be kept between earth electrodes in major sub-stations and 180 cms in case of minor sub-stations. At least one electrodes to be used at every corner in sub-stations. Each electrical equipment structure and the entire metal fitting should be earthed. Three earth electrodes are used for pole-mounted transformer. The transformer neutral and body should be double earthed. A minimum 8 S.W.G. G.I. wire should be used for earthing. Separate earthing should be done for distribution box. 7/10 SWG G.I. wire should be used for tower earthing, and for S/s. gantries 3mm thick, 50 mm x 50 mm M.S. plate is used. G.I. pipe of 25 mm thick, 1910 mm long is used for H.T. line, and 20 mm thick, 1720 mm long for L.T. lines.
The purpose of coal and salt is to keep wet the soil permanently. The salt percolates and coal absorbs water keeping the soil wet. Care should always be taken by watering the earth pits in summer so that the pit soil will be wet. Coal is made of carbon which is good conductor minimizing the earth resistant. For sub-station earthing the provisions in I.S.I. 3043 (1966) Section 1,2 & 3 should be utilized.
Joints: - Rivets are used for joining the earth system, nut bolts or welding also used depending on the temperature rise of the system.
The joint to earth conductor in switchgear unit or cable sheaths required to be separated frequently, hence nut bolts are used at joint. In case of steel system they should inconsistently be by welding. Only the places where earth testing is carried, should be nut bolted.
All joints should be properly painted. Channel, supporting control boards and panels are used as earth electrodes (This is possible only when they are connected to earth system at both ends.)
EARTH TESTER & EARTH RESISTANCE.
Use of Earth Tester - Earth tester is used for measurement of Earth resistance. If earth resistance is more, proper treatments to be given.
Working of Earth Tester :- There is hand operated D.C.generator. While feeding current to spike. D.C.current is converted into A.C. current by the converter and A.C.current received from spike is again converted in D.C. current by the help of rectifier, while going to generator.
A.C. current is fed to the spike driven in earth because there should not be electrolytic effect.
Measurement of Earth Resistance (Three point method):-
In this method earth tester terminals C1 & P1 are shorted to each other and connected to the earth electrode (pipe) under test. Terminals P2 & C2 are connected to the two separate spikes driven in earth. These two spikes are kept in same line at the distance of 25 meters and 50 meters due to which there will not be mutual interference in the field of individual spikes. If we rotate generator handle with specific speed we get directly earth resistance on scale.
Note :- Spike length in the earth should not be more than 1/20th distance between two spikes.
Four Point Method :- In this method 4 spikes are driven in earth in same line at the equal distance. Outer two spikes are connected to C1 & C2 terminals of earth tester. Similarly inner two spikes are connected to P1 & P2 terminals. Now if we rotate generator handle with specific speed, we get earth resistance value of that place.
In this method error due to polarisation effect is eliminated and earth tester can be operated directly on A.C.
Earth Resistance :- (A) -Earth resistance is depended on following factors.
1) Type of earth soil.
2) Temperature of earth.
3) Humidity in earth.
4) Minerals in earth.
5) Length of electrode in the earth.
6) Electrode shape and size.
7) Distance between two electrodes.
8) Number of electrodes.
(B) Maximum earth resistance allowed is as below :-
Major power station 0.5 .
Major Sub-stations 1.0
Minor Sub-station 2
Neutral Bushing. 2
Service connection 4
L.T.Lightening Arrestor 4 L.T.Pole 5
H.T.Pole 10
Tower 20-30
If earth resistance is more than above values, following Treatments can be made for minimizing resistance.
1) Oxidation on joints should be removed and joints be tightened.
2) Sufficient water should be poured in earth electrode.
3) Earth Electrode of bigger size as far as possible be used.
4) Electrodes should be connected in parallel.
5) Earth pit of more depth & width- breadth be made.
Earthing and it’s types.
It is very important to earth the line and electrical equipment. It will be electrically unsafe without earthing. The pole/ body of equipment connected solidly to earth is called earthing.
1)For Electrical supports and equipments.
It case of short circuit or leakage, current will pass with minimum resistance to earth so that maximum current will flow through effected circuit so that fuse will blow or circuit breaker to trip. This will isolate the faulty line or equipment from live circuit.
2)Transformer neutral earthing.
a.The leakage or unbalanced current will have path with minimum resistance.
b.Sensitive protecting equipment works properly. (Earth Fault Relay.)
c.It prevents the lines being charged to excessive high voltage due to lightening or switching surges.
d.By connecting resistance in the neutral earthing, fault current is controlled.
e.It helps for keeping neutral voltage always zero.
3)For Lightening Arrestor: -
The lightening arrestor earthing discharges the lightening charge with very low resistance, which prevents possible damages. For this, very low earth resistance is necessary. This quality can be achieved by piercing earth electrode deep in the ground up to wet soil. Earth resistance depends on-
1)Types of soil, (2) Temperature of soil, (3) Wetness of soil, (4) Minerals in soil, (5) Size of Electrode, (6) Cross section of electrode, (7) Deepness of electrode in ground, (8) Distance between two electrodes.
Earth tester measures Earth resistance and its unit is ohm.
LINE AND POLE EARTHING.
1)Every fifth metallic pole of L.T. line should be earthed.
2)Cross arms, top clip, insulator pins of P.S.C. pole should be earthed along with the pole.
3)Guarding at Railway crossing, Telephone crossing, Road crossings should be earthed along with pole on both side. If earth electrode is not available 8 S.W.G. G.I. wire coil of 25 mm dia and 120 to 150 mm long should be used and placed in a pit at a distance of 90 cms. from pole at a depth of 150 cms. It is very necessary to earth the guarding. All the metal fittings of L.T. pole and stay should be earthed and connected firmly to neutral because neutral is multiple earthed neutral.
4)A separate earth electrode to be used for L.A. earthing and the earth wire should be through an Alkathine pipe without touching the pole.
Methods of Earthing.
1)Plate Earthing :
A) In major power stations and major sub-stations 12 mm thick, 1200 m long, 1200 mm wide Cast Iron plates are used.
B) For minor sub-stations 18 mm broad, 50 x 50 cm. G.I. plates are used. These plates are dug vertically in the pit. Coal, sand and salt are filled in the pit each of 150 mm layer. The plate should be dug deep so that soil will be wet from all sides. The plate should be placed at a distance of 1200 cm. from each other.
2) Pipe Earthing.
A) For Power Stations, and major sub-stations 12 mm thick, 150 mm dia, 300 cms. Long G.I. pipes are used. A minimum distance of 1200 cm. should be kept between earth electrodes in major sub-stations and 180 cms in case of minor sub-stations. At least one electrodes to be used at every corner in sub-stations. Each electrical equipment structure and the entire metal fitting should be earthed. Three earth electrodes are used for pole-mounted transformer. The transformer neutral and body should be double earthed. A minimum 8 S.W.G. G.I. wire should be used for earthing. Separate earthing should be done for distribution box. 7/10 SWG G.I. wire should be used for tower earthing, and for S/s. gantries 3mm thick, 50 mm x 50 mm M.S. plate is used. G.I. pipe of 25 mm thick, 1910 mm long is used for H.T. line, and 20 mm thick, 1720 mm long for L.T. lines.
The purpose of coal and salt is to keep wet the soil permanently. The salt percolates and coal absorbs water keeping the soil wet. Care should always be taken by watering the earth pits in summer so that the pit soil will be wet. Coal is made of carbon which is good conductor minimizing the earth resistant. For sub-station earthing the provisions in I.S.I. 3043 (1966) Section 1,2 & 3 should be utilized.
Joints: - Rivets are used for joining the earth system, nut bolts or welding also used depending on the temperature rise of the system.
The joint to earth conductor in switchgear unit or cable sheaths required to be separated frequently, hence nut bolts are used at joint. In case of steel system they should inconsistently be by welding. Only the places where earth testing is carried, should be nut bolted.
All joints should be properly painted. Channel, supporting control boards and panels are used as earth electrodes (This is possible only when they are connected to earth system at both ends.)
EARTH TESTER & EARTH RESISTANCE.
Use of Earth Tester - Earth tester is used for measurement of Earth resistance. If earth resistance is more, proper treatments to be given.
Working of Earth Tester :- There is hand operated D.C.generator. While feeding current to spike. D.C.current is converted into A.C. current by the converter and A.C.current received from spike is again converted in D.C. current by the help of rectifier, while going to generator.
A.C. current is fed to the spike driven in earth because there should not be electrolytic effect.
Measurement of Earth Resistance (Three point method):-
In this method earth tester terminals C1 & P1 are shorted to each other and connected to the earth electrode (pipe) under test. Terminals P2 & C2 are connected to the two separate spikes driven in earth. These two spikes are kept in same line at the distance of 25 meters and 50 meters due to which there will not be mutual interference in the field of individual spikes. If we rotate generator handle with specific speed we get directly earth resistance on scale.
Note :- Spike length in the earth should not be more than 1/20th distance between two spikes.
Four Point Method :- In this method 4 spikes are driven in earth in same line at the equal distance. Outer two spikes are connected to C1 & C2 terminals of earth tester. Similarly inner two spikes are connected to P1 & P2 terminals. Now if we rotate generator handle with specific speed, we get earth resistance value of that place.
In this method error due to polarisation effect is eliminated and earth tester can be operated directly on A.C.
Earth Resistance :- (A) -Earth resistance is depended on following factors.
1) Type of earth soil.
2) Temperature of earth.
3) Humidity in earth.
4) Minerals in earth.
5) Length of electrode in the earth.
6) Electrode shape and size.
7) Distance between two electrodes.
8) Number of electrodes.
(B) Maximum earth resistance allowed is as below :-
Major power station 0.5 .
Major Sub-stations 1.0
Minor Sub-station 2
Neutral Bushing. 2
Service connection 4
L.T.Lightening Arrestor 4 L.T.Pole 5
H.T.Pole 10
Tower 20-30
If earth resistance is more than above values, following Treatments can be made for minimizing resistance.
1) Oxidation on joints should be removed and joints be tightened.
2) Sufficient water should be poured in earth electrode.
3) Earth Electrode of bigger size as far as possible be used.
4) Electrodes should be connected in parallel.
5) Earth pit of more depth & width- breadth be made.
Wednesday, April 7, 2010
SCOPUS ENCODER(UE-9000) MENU OVER VIEW
MENU----enter
1.PRESET
2.IF MODULATIO
3.CONFIGURATION
4.STATUS
1.PRESET-----enter
*Recall
*Save current
*Delete
*Rename
2.IF MODULATION------enter
*IF Power ---- -12 dbm
*Mod ON/OFF ------- ON
*Carrier ON/OFF ----- ON
*Symbol Rate ------- 01110000 sps(or)1.11 Msps
*Modulation scheme------ QPSK , 5/6 or 0.8333
*Frame Length --------- 32000 bits
*Operating mode --------- Auto (C and M)
*Roll of Factor -------- 0.35
*IF Frequency --------- 70 Mhz
*L-band monitor freq ----- 108000 hz
*Pilot Mode ---------------- OFF
3.CONFIGURATION-------enter
a)Transport Stream
*General
*Scrembling Mode
* Services
*SI Tables
b)Video
*Video input
*Video Engine
c)Audio
*General
*Channel Parameters
*Embedded Parameters
c)Output Interface
*IP Out
*ASI Out
d)Unit
*Licensing
*Stat Mux
*Alarm
*Display Contrast
*Authorization
*System
*SNMP Traps
e)Inputs
*ASI Input
*IP Input
*Serial Input
4.STATUS
*Service/PID Table
*Unit Configuration and Permissions
*Alarm Status
*Access Authorisation
Tuesday, March 30, 2010
RAID CONCEPT IN IBM SERVERS
The important general RAID Concept is physical and logical Arrays and Drives: Before, going into RAID Concepts we should be clear with the fundamental structure of RAID. The fundamental structure of RAID is like an array. An array is nothing but a collection of drives in some definite pattern. The drives are connected in the form of array and the data is split between them to determine the RAID level. The particular definition which are in use is Physical Drives: The Physical Drives are the physical, hard disks that are in the form of the array, Physical Arrays:
The Physical Arrays are physical drives which are connected together to form a physical array. Logical Arrays: The Logical arrays are formed by combining one or more physical arrays. Logical Drives: Logical Drives are formed by connecting one or more logical drivers and are formed from one logical array. The confusing thing is that the terms above, used are similar enough, and are more lightly used. The most RAID consist of one physical array which inturn is made up of one logical array. RAID controllers are like a rope which is needed to hang it comes to defining arrays. Another important RAID Concept is Mirroring: Mirroring is a procedure in which data in the system is written simultaneously to two or more hard disks. Thus it is also known as the mirror concept. The principle of mirroring is to obtain 100% data redundancy, which provides full protection against the failure of either of the disks containing the duplicated data.
The other RAID Concept is Duplexing: Duplexing is an update version of mirroring which is based on the same principle as that mirroring technique. Like in mirroring, all data is duplicated onto two distinct physical hard drives. Duplexing is much more advanced then mirroring in terms of availability because it can provide the data protection against drive failure that mirroring does, but it can also protects against the failure of either of the controllers. The interesting RAID Concept is Striping: Striping is obtained at the byte level, as well as in block level. The Byte-level striping breaks the file into byte-sized pieces. After Byte level striping, the first byte of the file is sent to the first drive, then the second to the second drive, and so on. Block-level striping means that each file is broken into different blocks of a certain size and those are distributed to the various drives.
The last and important RAID Concept is Parity: The parity is used for the system memory error detection. The parity used in RAID is very similar in concept to parity RAM. The principle of parity is simple: take N pieces of data, and compute an extra piece of data. After that take N+1 pieces of data and store it in N+1 drives. If you have lost any one of the data, you can recreate it from the N remain, regardless of which piece is lost. Parity protection is generally used with striping in order to get high performance results across the drives in the array.
The parity information can be stored on a separate, or mixed with the data of drives. The RAID affects important reliability factors such as, For example, a commonly-heard phrase is that RAID improves hard disk reliability, but that is not an true. The truth depends to on how you define reliability and what do you mean reliability of the individual drives, or the whole system.
The major RAID Concepts are Physical and Logical Arrays and Drives, Mirroring, Duplexing, Striping and Parity. First, we look at physical and logical arrays and drives: The structure of RAID is like an array. As we know, an array is a collection of drives that is configured in a particular way. The number of drives and the data is split between them to determine the RAID level, the capacity of the array, performance and data protection characteristics helps in deciding what types of arrays needed to be set up, and how to configure them. Second, we look at Mirroring:
The advantage of mirroring is to provide redundancy of data and also quick recovery from a disk failure. All the data which is on the second drive, is ready to be use if the first one fails. The disadvantage of RAID 1 is expense. Results are as not as good as other RAID levels. Third, we look at the Duplexing: Duplexing yields superior results then mirroring because of availability, it provides the protection against drive failure that mirroring does. It is expensive more than mirroring. Fourth, we look at striping: Striping is done at byte level. Byte level striping means file is divided into "byte-sized pieces".
The first byte is sent to the first drive, then the second byte is send to the second drive, and so on. Byte level striping is done at 512 bytes. Block level striping means that the file is split into blocks of a certain size and is distributed to the various drives. The size of the blocks is called the stripe size. Finally, parity: The term parity is used in connection of system memory error detection. The parity which is used in RAID is nearly similar to parity RAM.
The parity is simple: take N pieces of data, and from them, calculate the extra amount of data. Take the N+1 amount of data and store it in N+1 drives. If you lose any one of the N+1 pieces of data regardless of which piece is lost. Parity protection is used with striping, and the N pieces of data are of the blocks distributed across the drives in the array.
The major RAID Issues are RAID Performance Issue & RAID Reliability Issue. The RAID Performance Issue: RAID was developed for protection of data in order to find the fault tolerance. The performance could be increases RAID is parallelism. The ability to access multiple disks and allows for data to be written to or read from a RAID array faster than a single drive. RAID Reliability Issue: The RAID affects important reliability factors such as, For example, a commonly-heard phrase is that RAID improves hard disk reliability, but that is not an true.
The truth depends to on how you define reliability and what do you mean reliability of the individual drives, or the whole system are about the data, or the hardware itself. The performance could be improved through the use of RAID for businesses where the protection of critical data is important factor.
RAID Concept
RAID is an acronym for Redundant Array of Independent Disks. It is an array of multiple independent hard disk drives that provide high performance and fault tolerance. The RAID subsystem controller implements several levels of the Berkeley RAID technology. An appropriate RAID level is selected when the volume sets are defined or created. This decision is based on disk capacity, data availability (fault tolerance or redundancy), and disk performance. The following is the RAID level, which support in the RAID subsystem.
The RAID subsystem controller makes the RAID implementation and the disks’ physical configuration transparent to the host operating system. This means that the host operating system drivers and software utilities are not affected, regardless of the RAID level selected. Correct installation of the disk array and the controller requires a proper understanding of RAID technology and the concepts.
Raid 0
RAID 0, also referred to as striping, writes stripping of data across multiple disk drives instead of just one disk drive. RAID 0 does not provide any data redundancy, but does offer the best high-speed data throughput. RAID 0 breaks up data into smaller blocks and then writes a block to each drive in the array. Disk striping enhances performance because multiple drives are accessed simultaneously; but the reliability of RAID Level 0 is less than any of its member disk drives due to its lack of redundancy.
Raid 1
RAID 1 also known as “disk mirroring”, data written to one disk drive is simultaneously written to another disk drive. Read performance may be enhanced if the array controller can parallel accesses both members of a mirrored pair. During writes, there will be a minor performance penalty when compared to writing to a single disk. If one drive fails, all data (and software applications) are preserved on the other drive. RAID 1 offers extremely high data reliability, but at the cost of doubling the required data storage capacity.
Raid 0+1
RAID 0+1 is a combination of RAID 0 and RAID 1, combing stripping with disk mirroring. RAID Level 0+1 combines the fast performance of Level 0 with the data redundancy of Leve1 1. In this configuration, data is distributed across several disk drives, similar to Level 0, which are then duplicated to another set of drive for data protection. RAID 0+1 provides the highest read/write performance of any of the Hybrid RAID levels, but at the cost of doubling the required data storage capacity.
Raid 3
RAID 3 provides disk striping and complete data redundancy through a dedicated parity drive. RAID 3 breaks up data into smaller blocks, calculates parity by performing an exclusive-or on the blocks, and then writes the blocks to all but one drive in the array. The parity data created during the exclusive-or is then written to the last drive in the array. If a single drive fails, data is still available by computing the exclusive-or of the contents corresponding strips of the surviving member disk. RAID-3 is best for applications that require very fast data- transfer rates or long data blocks.
Raid 5
RAID 5 is sometimes called striping with parity at block level. In RAID 5, the parity information is written to all of the drives in the subsystems rather than concentrated on a dedicated parity disk. If one drive in the system fails, the parity information can be used to reconstruct the data from that drive. All drives in the array system can be used to seek operation at the same time, greatly increasing the performance of the RAID system.
Raid 6
A RAID 6 array is essentially an extension of a RAID 5 array with a second independent distributed parity scheme. Data and parity are striped on a block level across multiple array members, just like in RAID 5, and a second set of parity is calculated and written across all the drives. As larger disk arrays are considered, it is desirable to use stronger codes that can tolerate multiple disk failure. When a disk fails in a parity protected disk array, recovering the contents of the failed disk requires successfully reading the contents of all no-failed disks. RAID 6 provides an extremely high fault tolerance, and can sustain two simultaneous drive failures without downtime or data loss.
Summary of RAID Levels
RAID subsystem supports RAID Levels 0, 1(0+1), 3, 5 and 6. The following table provides a summary of RAID levels.
Monday, March 29, 2010
NMX data base RESTORE PROCEDURE
RESTORE:
Server STOP.
Select Server Fail Status
Remove NMX Redundency[ENTER]
YES
Remove Redundency
Back Site ID[12]
OK
NMX Redundency Removed Successfully
OK
Select Database
Restore[ENTER]
It will ask Username: “sa”
Password: “harmonic”
OK
Restore Database NMX Server:
Automotive List Of Files
-NMX
-ETV 1. File Name.....
-ETV1 2.File Name.....
-........ 3.File Name.....
-...... 4.File Name.....
Select Catalog and file.
RESTORE
YES
OK
Sekect KVM switch 2nd position.
[press CTRL+ALT+DEL from the keypad] If Necessary.
KVM Switch select[1]
Domain ETV
Right Click
Select Properties
select ETV
OK
OK
relogin
Select Fail Status
select NMX Redundency
IP: 192.168.100.2
username: sa
password: harmonic
NEXT
Restart[OK]
Select KVM Switch 2nd position
NMX Redundency STOP wizard
Virtual IP Master mask Back mask
192.168.100.5 00:1C:23:E2:E3:AC 00:1C:23:E2:FE:39
FINISH
Afret 5 min's
CLOSE
Left side
click on Server START Button.
NMX data base BACKUP procedure
BACKUP-RESTORE
BACKUP:
1.To back up the NMX database: From the Domain Manager Database menu, select Backup.
2. If you have not previously saved login information, the Database User Login dialog box opens.
3.In the login dialog box, enter the SQL system administrator user and password.
Harmonic began setting the SQL system administrator password to “harmonic” for computers shipped with NMX version 4.1.0.1 and later. Computers sent with earlier releases did not include a
system administrator password. If you received your computer during the 4.1.0.1 release or later, enter: User Name: sa
Password: harmonic
If you received your computer during an earlier release, and you have not set a system administrator password, leave the password field blank.
4. Optionally, check the box beside Remember login information. If you check this box, the Database User Login dialog box does not open in the future.
5. Click OK. The Backup Database dialog box opens.
6. In the List of Catalogs, select the catalog you want to back up. The List of Catalogs organizes databases by type. The NMX database is under the NMX folder. NMXDB is the default database
name, but you may have used another name.
7. In the File Name field, enter a name for the backup file, or select a file in the List of Files box if you want to overwrite an existing backup file with the current backup. The List of Files field contains a list of all the files in the database backup folder on the SQL server computer.
8. Click OK.
NMX backs up the database catalog by copying it to the backup directory.
9. Copy the backup file to another network computer so the backup is protected against disk failure on the server computer.
Saturday, March 27, 2010
Digital Service Manager(NMX) Nwtwork Group Creation
Open Domain Manager
goto database
select catalog administrator
provide username : sa
password : harmonic
in this select NMX
click New for catalog
give catalog name : ETV
click : ok
now clock close.
It will ask Domain Manager login
provide user name : harmonic
password : harmonic
now it will shows list of operations
Domain
local pc IP
after this remove unwanted devices except
MULTI CHANNEL ENCODER
MODULATOR
SWITCH
REPOSITORY SERVER
PROSTREAM
ALARM MANAGER Etc,
Now click on start service
It will not start
right click on local PC properties
provide IP address 192.168.100.1
now click on start service.
it will start up bootp server,TFTP Server
Now open Digital Service Manager
Inthe right side window, rightclick
select create network group
it will open a list properties of created object
provide name
Now it will create icon of network group.
Double click to enter into this network group.
For INPUT DECICE:
In the plain area, right click
select create lopgical device
it will display list of properties
Provide Name: Input
Description : “******”
No.of cards : 2 /----Two channel cards---/
Default Port Type : ASI
No.of ports : 3 /--- 1 Video,2 Channel Audio---/
Port 1 Type : SD Video
Port 2 type : Audio
Port 3 Type : Audio
For ROUTER:
In the plain area, right click
select create switches
select NMX Balanced,provide properties
Name : Router
Hardware Model : Leitch pass-through
No.of inputs : 24 /---Like our patch panel model---/
No.Of outpus : 32 /--- 25 to 32 for Standby ---/
Default Port Type : Sd Video/Audio
No.of levels : 3 (1+2 Video+Audio)
level 1 port type : SD video
level 2 port type : Audio
level 3 port type : Audio
Manual over ride : False
In service : True.
HARDWARE PROPERTIES :
Communication type: IP
Ip address : 192.168.100.101 /---Router IP---/
Login : leitch
password : leitch admin
service ports :32
destination ports : 32
now right click on switch
go to configure alarms
select time out
check disable alarms, do not log
right click on switch, go to configure alarms
select offline
check disable alarms,do not log.
For ENCODER:
In the plain area , right click
select physical device, select multi channel encoder
Properties:
Name : Encoder 1
Hardware Model: Electra 5400
IP address : 192.168.100.111
MAC address : 00:20:A3:01:7A:88 /---Encoder ID---/
Subnet mask : 255.255.255.0
Default gateway : 192.168.100.254
Inservice : True
Locater LED : True /---To identify Encoder backpanel---/
Desirable software version : 06.01.01.005 /----Now it changed---/
If NMX finds new software version,then it will be viewed in TFTP daemon.
For CROSS CONNECT ( MEDIA SWITCH):
In the plain area, right click
Select logical devices, select cross connect
PROPERTIES:
Name : Media Switch
Type : IP Cross Connect
Default port type : Ethernet
No.of.inputs : 50
No.Of outputs : 5
Divitrack Mode : Normal
Level 1 Port type : Ethernet
For PROSTREAM:
Right click, select physical devices
Select prostream
PROPERTIES:
Name : Prostream
Model : Prostream 1000 Mux
Physical address(Eth 3) : 192.168.100.21
MAC : 00:20:A3:01:7C:5D /---PROSTREAM ID---/
Subnet mask : 255.255.255.0
Default gate way : 192.168.100.254
Advanced Properties :
PSI Spooler : False
Blink all : False
Video Format: PAL
Desired software version : numa/n_06.04.00.046
Operation Mode : Normal
CAS Config : Scrambling Mode : DVB.CSA
Element management inform :
Name : Prostream - 1
After configuring prostream,recycle prostream power.In bootp server daemon, we can see the IP address is changed in prostream.
Now select prostream icon,press F6 for alarms.
NTP ALARMS: To disale NTP alarms open NMX domain manager,goto tools then select options.
Select NTP tab (in the list) Uncheck [tick mark] USE NTP Service.
We can see there is a note in the below.
Note: For RED color options we need to restart the server.So,we need to stop the domain manager.only closing the domain manager is sufficient,we need not to restart the system.
Now recycle the Encoder power , also to set Input on it.We can see the changes in bootp server daemon.
For OUTPUT DEVICE:
Right click, select logical device
select output device
PROPERTIES:
Name : Output - 1
Description : Output device
No.of cards : 1
Default port type : ASI
No.of ports : 1
Port type : ASI
FOR PSI:
Right click, select logical device
Select Input device
Properties:
Display Links : False
No.of cards : 1
Monitoring device : False
Now select all the icons and align them .
After this we have to make connections, for this select new link button,on links tool bar.
Before this we have to make router online.
Select router icon
Right click on it,it will display list
Now select on line
Now to make a link from Input logical device and drag to router.
It will diaplay two lists leftside and right side.
Selest outcard – 001 (Video -001) on left side
Select level – 001 ( video-001) on right side
Now click on connect
This links are view as shown below
Outcard – 001 ( video-001) – level – 001 (video-001)
Outcard – 001 (Audio-002) – level-002 (Audio-001)
Outcard - 001 (Audio-003) - level-003(Audio-001)
In this same way make connections from all input devices ro router.
Now make a link from Router to Encoder.
level -001 (Video-025)-AVC-s-101(video -001)
level -002 (Audio-025)-AIC-001(Audio -001)
level -003 (Audio-025)-AIC-001(Audio -002)
For embedding audio we have to select
AVC audio (AVC-S-101)(Audio-001)\
In the same way make connections from Router to Encoder. Now make a link from Encoder to Media Switch.
CPC-255(Gbe-002)-level -001 Ethernet(001)
In the same way make connections from all Encoders to Media Switch .
Make a link from Media Switch to Prostream.
level-001 (Ethernet-051)-Gbe procard-001(Gbe1 Rx-001)
Make a link from Prostream to O/P device.
ASI-SCR-003(ASI-001)-Input card-001(ASI-001)
Make a link from PSI to Prostream.
Output card-001(File port-001)-CPC(fileport-001)
Now right click on PSI-goto properties and change
Display links = False
In the NMX digital service manager
In the left side select O/P service view.
Network view/ O/P service
right click on ETV
select new service configuration
It will display a create new service configuration window shown below.
Create new service Configuration
(-) New service configuration....
-A/V streams
-Transports
a) Right click on A/V streams and select add channels
Provide Channel Name : ETV-Telugu.
Click OK.
b) Now right click on ETV-Telugu.
Select ADD baseband video.
Provide Name :ETV-Telugu Video.
Click OK.
c) Now again right click on ETV-Telugu.
Select ADD baseband Audio
Provide Name :ETV-Telugu Audio1
Click OK.
d) Now Once again right click on ETV-Telugu
Select ADD baseband Audio
Provide Name :ETV-Telugu Audio2
Click OK.
Now Repeat the steps for different channels.
In the Right side Right click on New service configuration
Select ADD Transport
It will display “ Select O/P type of new transport window “ In that Provide
Transport Name : ETV-Network
O/P Signal/Protocol : ASI
Multicasted : (Tick mark)
Multiplexer group : Mux Group1
Click OK.
New Service Configuration
--------------------------------------------------------------------------------------------------------------------------
New Service Configuration | (-) New Service Configuration
A/V streams | ETV N/W (Mux Group)
ETV-Telugu | ETV-PAT
Audio1 |
Audio2 |
---------------------------------------------------------------------------------------------------------------------------
Now right click on ETV -N/W Mux Group
Select ADD Program
It Will display a window “ Select I/P'S ”
Select I/P 'S
(Select) A/V Streams ETV-Telugu Regular Service
(Select) A/V Streams ETV-Bangla Regular Service
Check these two check boxes
Click OK.
In the left side click on inserted data
Open it and we can see PSI-Internal
New right click on PSI-Internal
Select ADD PMT
SDT
EIT
TDT/TOT
NIT
Now in the right side right click on
ETV N/W (Mux group)
Select ADD SDT
EIT
TDT/TOT
NIT
PMT
Now , click on OK, Then the window will close check the NMX digital service manager.
In the O/P service view, we can see list of channels in New Service Configuration and also
it's Video , Audio, PMT
Now right click on new service configuration
Select connect service to N/W
It will display a window “ Connect Service to Network ”.
O/P Service
O/P service (-) ETV
(-) new service configuration ETV-Telugu
A/V streams (-) Audio-002
ETV-Telugu(1) ETV-Telugu Audio
Video Audio-003
Audio1 Video-001
Audio2 ETV-Telugu Video
select these above two
select ETV-Telugu(1) on left side
select O/P card-001 on right side
Click ON Add button
Repeat the same procedure for all channels
Select PSI-Internal on left side
Select File-port -001 on right side
Click on Add
In the O/P Service tap
Select ETV on left side
Select ASI-001 on right side
Click on Add button
Click OK.
In the NMX digital Service manager
In the O/P Service view
N/W view
O/P Service View
(-) Site
ETV N/W
New service Configuration.
Right click on new service configuration
Select Active Service Configuration
Now, these services will be activated but the O/P device Icon will look yellow Icon.
Now Double click on Media Switch
In TS data configuration tab
click on new
by default it will give start IP address and End IP address and Start port no and End port on
Start IP End IP Start IP End IP
224.20.5.1 224.20.5.1 1026 1036
Change End IP Address....to ..224.20.5.100
Change Start Port No :10,000
Change End Port No :10,000
In divitrack data configuration Tab
Click on New
Change Start IP Address to 224.20.6.1
Change End IP Address to 224.20.6.100
Change Start Port no to 10001
Change End Port no is 10001
In IP N/W configuration Tab we can see all the Encoders are viewed if all the Encoders are OK
TS data Configuration Device Connected Source UDP Mux transfer unit Time to Live
Ethernet-001 Encoder-1 4000 1500 30
Ethernet-002 Encoder-2 4000 1500 30
-----click OK
Now, Double click on Encoder. It will show the back panel of Encoder, Click ON right side corner Ethernet Connections 2, 3
Go to Properties
Primary channel:
N/W Address : 192.168.200.111
Subnet Mask : 255.255.255.0
Default Gate way : 192.168.200.254
Backup channel;
N/W Address : 192.168.201.111
Subnet Mask : 255.255.255.0
Default Gate way : 192.168.201.254
Redundency Mode : Automatic
| | |
Goes to management <---------| | |
192.168.100.111 switch | |
PRIMARY<---------------------| |
192.168.200.111 |
Media Backup <--------------------------------|
192.168.201.111
Now , Double click on Prostream
___________
! O O-------|--------->go to properties
!----------------!
__________________
! Gbe [====] !
| [====] !
!-------------------|---------!
|
|------------->click this goto properties
Select mirror ASI-001
Primary Channel:
N/W Address : 192.168.200.131
Subnet : 255.255.255.0
Default Gate way : 192.168.200.254
Now Double click on I/P Device
Select Any channel
Select ETV-Telugu Audio
Right click on Audio1 and Select Properties
Click on the Encoding Button
Select source tap
In the format tab
Select MPEG2 tab
Change Coding mode to single channel (i/o)
Select ETV- Telugu Video
Right click on Video and select properties
click on the Encoding button.
In the source tab
select digital option in type
I/P format : Compnent D1
Sync mode : Sync to video
Standard : PAL
PCR insertion rate : 27 Pkts/sec.
In the Encoding tab:
Encoding Mode : H.264 4:2:0
Bit rate : 2 mbps
Resolution : Horizontal 720
In the Processing tab : Everything Off
In Filters tab :
Select All Disabled
In closed captioning tab :
select CBR
Now click OK.
Click Close.
Repeat the same procedure for all channels Video and Audio.
Now , In NMX digital service manager
(+) Site -1
ETV
New service configuration
New service configuration
ETV(1) [Mux group][Active]
Now right click on ETV(1) Mux group
select rebuild PSI
select All
CONNECTIONS
1.Connections from INPUT DEVICE TO ROUTER
ETV TELUGU PINACEA(router)
Output card-001(Audio-002)----------------------------> Level-002(Audio-001)
Output card-001(Audio-003)----------------------------> Not Linked
Output card-001(Video-001)-----------------------------> Level-001(Video-001)
ETV BANGLA PINACEA(router)
Output card-002(Audio-002)----------------------------> Level-002(Audio-002)
Output card-002(Audio-003)----------------------------> Not Linked
Output card-002(Video-001)----------------------------> Level-001(Video-002)
2.Connection from ROUTER to ENCODER
ETV- TELUGU / ETV-BANGLA ENCODER
TEL-Level-001(Video-025)-------------------------------> AVC-s-101(Video-001)
BAN-Level-001(Video-026)-------------------------------> AVC-s-102(Video-001)
TEL-Level-002(Audio-025)-------------------------------> AIC-- 101(Audio-001)
BAN-Level-002(Audio-026)-------------------------------> AIC--- 102(Audio-001)
SATNDBY ENCODER-01 and STANDBY ENCODER-02(55,56)
Level-001(Video-053)-------------------------------> AVC-s-101(Video-001)
Level-001(Video-054)-------------------------------> AVC-s-102(Video-001)
Level-002(Audio-053)-------------------------------> AIC-- 101(Audio-001)
Level-002(Audio-054)-------------------------------> AIC--- 102(Audio-001)
3.Connection between ENCODER to CROSS CONNECT (Media Switch)
ENCODER-01 CROSS CONNECT
CPC-255(Gbe-002) Level-001(Ethernet-001)
ENCODER-02
CPC-255(Gbe-002) Level-001(Ethernet-002)
ENCODER-03
CPC-255(Gbe-002) Level-001(Ethernet-003)
.
.
.
.
.
.
ENCODER-06
CPC-255(Gbe-002) Level-001(Ethernet-006)
ENCODER-Standby-1
CPC-255(Gbe-002) Level-001(Ethernet-013)
ENCODER-Standby-2
CPC-255(Gbe-002) Level-001(Ethernet-014)
4.Connection between CROSS CONNECT and PROSTREAM(Mux)
Prostream-1
Cross Connect Prostream 1000-01
Level-001(Ethernet-021) Gbe Procar001(Gbe1 RX-001)
Prostream-2
Cross Connect Prostream 1000-(Backup)
Level-001(Ethernet-022) Gbe Procar001(Gbe1 RX-001)
5.Connection between PROSTREAM to MODULATOR
Prostream 1000-01 Radyne D240 XR-01(Modulator)
ASI-SCR-003(ASI-001)----------------------------------> Input card-001(ASI)
Prostream 1000-Backup Radyne D240 XR-01(Backup-Modulator)
ASI-SCR-003(ASI-001)-----------------------------------> Input card-001(ASI)
6.Connection between MODULATOR to A/B SWITCH
Radyne D240 XR-01 IF A/B SWITCH
Output card-000(PSK)--------------------------------------> Level-001(PSK-001)
Radyne D240 XR-Backup IF A/B SWITCH
Output card-000(PSK)--------------------------------------> Level-001(PSK-002)
7.Connection between A/B SWITCH to OUTPUT
IF A/B SWITCH OUTPUT-1
Level-001(PSK-003)--------------------------------------------> Input card-001(PSK-001)
NMX_ONLINE DATABASE PROPERTIES
ETV-TELUGU/BANGLA PROPERTIES:
General Properties | Value |
| 1.Name | ETV-TELUGU/ETV-BANGLA |
| 2.Description | Input Device |
| 3.Monitoring Device | False |
| 4.Number of Cards | 2 |
| 5.Default Port Type | S D Device |
| 6.Number of ports | 3 |
| 7.Port 1 Type | S D Video |
| 8.Port 2 Type | Audio |
| 9.Port 3 Type | Audio |
| 10.Disply Links | True |
Note: 6 Icons names different value same.
N x M BALANCED SWITCH PROPERIES:
General Properties | Value |
| 1.Name | Panacea |
| 2.Decription | Switch |
| 3.Identification Number | ---- |
| 4.Hardware Model | Leitch Pass-through |
| 5.Number of Inputs | 24 |
| 6.No of Outputs | 32 |
| 7.Backup feed Ports | 0 |
| 8.Virtual O/P Ports | No |
| 9.No of Virtual O/P | 0 |
| 10.Default Port Type | ASI |
| 11.No of Levels | 2 |
| 12.Level 1 Port Type | S D Video |
| 13.Level 2 Port Type | Audio |
| 14.Manual Override | False |
| 15.In Service | True |
| 16.Multi cast | True |
| 17.I S Edge Switch | False |
Hardware Properties | Value |
| 1.Communication Type | IP |
| 2.IP Address | 192.168.100.250 |
| 3.Login | Leitch |
| 4.Password | Leitchadmin |
| 5.Source | 32 |
| 6.Destination Ports | 32 |
Element Manager Inform | Value |
| 1.Name | Switch E M-1 |
| 2.IP Address | 192.168.100.1 |
ENCODER PROPERTIES: ELC 5422-01(Encoder 1)
General Properties | Value |
| 1.Name | ELC 5422-01 |
| 2.Description | Multi-Channel Encoding plat form |
| 3.Identification Number | |
| 4.Hardware Model | Electra 5400 |
| 5.IP Address | 192.168.100.101 |
| 6.Mac | 00 : 20 : A3 : 01 : 7A : FC |
| 7.Subnet Mask | 255.255.255.0 |
| 8.Default Gateway | 192.168.100.254 |
| 9.TFTP Service Address | 192.168.100.1 |
| 10.In Service | True |
| 11.Search Mode | Active |
| 12.Location LED | Off |
HHP Properties | Value |
| 1.HHP Properties | False |
| 2.Multicast IP Address | 224.0.0.14 |
Advanced properties | Value |
| 1.PSI Spooler | False |
| 2.Desired Software Version | Numa/n-06.01.01.005 |
| 3.Software Version On Device | Numa/n-06.01.01.005 |
| 4.Serial Number | 00: 20 : A3 : 01 : 7A : FC |
| 5.Hardware Version | 5 |
| 6.Boot File Name | C:/TFTP boot/numa/n-06.01.01...... |
| 7.Background Mode | False |
| 8.Number Of Slots | 5 |
| 9.Operation Mode | Normal |
| 10.Port IP | 80 |
| 11.SCTE-35 Generator | True |
| 12.Splice Mode | SCTE-104 |
| 13.IGMP Mode | Version 2 Only |
Element Manager Inform | Value |
| 1.Name | Multi – Channel EM-1 |
| 2.IP Address | 192.168.100.1 |
ENCODER PROPERTIES: ELC 5422-02(Encoder 2)
General Properties | Value |
| 1.IP Address | 192.168.100.102 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 75 : 7D |
| 3.Subnet Mask | 255.255.255.0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224.0.0.2 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-03(Encoder 3)
General Properties | Value |
| 1.IP Address | 192.168.100.103 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 77 : 15 |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 3 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-04(Encoder 4)
General Properties | Value |
| 1.IP Address | 192.168.100.104 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 79 : 31 |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 13 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-05(Encoder 5)
General Properties | Value |
| 1.IP Address | 192.168.100.105 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 79 : 40 |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 5 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-06(Encoder 6)
General Properties | Value |
| 1.IP Address | 192.168.100.106 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 7A : B4 |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 4 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-Bkup 01
General Properties | Value |
| 1.IP Address | 192.168.100.113 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 7E : 02 |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 6 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
ENCODER PROPERTIES: ELC 5422-Bkup 02
General Properties | Value |
| 1.IP Address | 192.168.100.114 |
| 2.MAC Address | 00 : 20 : A3 : 01 : 79 : CD |
| 3.Subnet Mask | 255 : 255 : 255 : 0 |
| 4.Default Gateway | 192.168.100.254 |
HHP Properties | Value |
| Multi cast IP Address | 224 . 0 . 0 . 4 |
Advanced Properties | Value |
| Serial Number | (MAC Address) |
PSI [INPUT DEVICE – PROPERTIES]
General Properties | Value |
| 1.Name | PSI |
| 2.Description | Input Device |
| 3.Monitoring Device | False |
| 4.Number Of Cards | 1 |
| 5.Default Port Type | ASI |
| 6.Number Of Ports | 1 |
| 7.Port 1 Type | File |
| 8.Display Links | False |
CROSS CONNCETOR PROPERTIES [MEDIA SWITCH]
General Properties | Value |
| 1.Name | Cross Connect |
| 2.Description | Cross Connect |
| 3.Type | IP Cross Connect |
| 4.Default Port Type | Ethernet |
| 5.Number Of Inputs | 20 |
| 6.Number Of Outputs | 10 |
| 7.Enable Upstream Platform Ports | False |
| 8.Divitrack Mode | Normal |
| 9.Use Address From Device | False |
| 10.Use Same Source IP on ENCODER | Enable |
MPEG-2 SA INPUT (Not Important)
General Properties | Value |
| 1.Name | MPEG-2 SA Input |
| 2.Description | Input Device |
| 3.Monitoring Device | False |
| 4.Number Of Cards | 1 |
| 5.Default Port Type | ASI |
| 6.Number Of Ports | 1 |
| 7.Port 1 Type | ASI |
| 8.Display Links | True |
PROSTREAM [ONLINE MUX]
General Properties | Value |
| 1.Name | Prostream 1000-01 |
| 2.Description | Prostream Plat form |
| 3.Identification Number | |
| 4.Hardware Model | Prostream-Mux |
| 5.TFTP Server Address | 192.168.100.1 |
| 6.In Service | True |
| 7.Extraction Mode | PSI nd SI |
| 8.EITO PID | 7424 |
| 9.VCT Type | Cable |
| 10.IGMP Version | Version 2 |
| 11.Service Mode | Active-Primary |
| 12.Device offset | 1 |
| 13.Source Clock | Internal |
Physical ETH03 | Value |
| 1.IP Address | 192.168.100.131 |
| 2.MAC address | 00:20:A3:01:6F:7F |
| 3.Subnet mask | 255.255.255.0 |
| 4.Default gateway | 192.168.100.254 |
Physical ETH02 | Value |
| 1.IP Address | 000.000.000.00 |
| 2.MAC address | 00:20:A3:01:6F:7E |
| 3.Subnet mask | 255.255.000.0 |
| 4.Default gateway | 0.0.0.0 |
Physical ETH01 | Value |
| 1.IP Address | 000.000.000.000 |
| 2.MAC address | 00:20:A3:01:6F:7D |
| 3.Subnet mask | 255.255.0.0 |
| 4.Default gateway | 0.0.0.0 |
HHP Properties | Value |
| 1.HHP Enable | False |
| 2.Multicast Ip address | 224.0.1.2 |
EAS Information | Value |
| 1.EAS Mode | None |
Advanced Properties | Value |
| 1.PSI Spooler | True |
| 2.Blink All | False |
| 3.Video Format | PAL |
| 4.Described Software Version | 03.03.01.001 |
| 5.Software On Device | 03.03.01.001 |
| 6.Serial Number | 040745138 |
| 7.Hardware Version | |
| 8.Boot File Name | c:/tftboot/africa/03.03.01.0... |
| 9.Number Of Ports | 5 |
| 10.Operation Mode | Normal |
| 11.Port IP | 80 |
CAS Configuration | Value |
| 1.Scrambling Mode | DVB-SCA |
| 2.ECM Configuration Mode | Default |
| 3.Customize ECM Configuration | ECM Configuration |
| 4.EMM Configuration Mode | Default |
| 5.Customize EMM Configuration | EMM Configuration |
| 6.CWS Configuration Mode | Default |
| 7.Customize CWS Configuration | CWS Configuration |
Elemant Manager Inform | Value |
| 1.Name | Prostream EM-1 |
| 2.IP address | 192.168.100.1 |
PROSTREAM [ONLINE MUX]
General Properties | Value |
| 1.Service Mode | Active |
| 2.Device Offset | 2 |
Physical ETH03 | Value |
| 1.IP address | 192.168.100.132 |
| 2.MAC address | 00:20:A3:01:7B:A3 |
| 3.Subnet mask | 255.255.255.0 |
| 4.Default gateway | 192.168.100.254 |
Physical ETH02 | Value |
| MAC address | 00:20:A3:01:7B:A2 |
Physical ETH01 | Value |
| MAC address | 00:20:A3:01:7B:A1 |
HHP Properties | Value |
| Multicast IP address | 224.0.1.1 |
RADYNE D240 XR-PRIMARY [MODULATOR]
General Properties | Value |
| 1.Name | Radyne D240XR-01 |
| 2.Description | Modulator Device |
| 3.Identification | |
| 4.IP address | 192.168.100.141 |
| 5.DDF File name | Radyne-DM-240-XR.ddf |
| 6.Hardware model | DM-240-PSKASF |
| 7.In Service | True |
| 8.Service mode | Active-Primary |
| 9.Software version on device | F05729-A |
Element Manager Inform | Value |
| 1.Name | Modulator EM-1 |
| 2.IP address | 192.168.100.1 |
RADYNE D240 XR-BKUP [MODULATOR]
General Properties | Value |
| 1.IP address | 192.168.100.142 |
| 2.Software Version | F05729-A |
Element Manager Inform | Value |
| 1.Name | Modulator EM-1 |
| 2.IP address | 192.168.100.1 |
A/B SWITCH
Genaral Properties | Value |
| 1.Name | IF A/B Switch |
| 2.Description | Switch |
| 3.Identification Number | |
| 4.Hardware Model | Quintech |
| 5.Switch type | 2x1 Type |
| 6.Default port type | PSK |
| 7.Number of levels | 1 |
| 8.Level 1 port type | PSK |
| 9.Manual override | False |
| 10.In Service | True |
Hardware Properties | Value |
| 1.Communication Type | IP |
| 2.IP address | 192.168.100.151 |
| 3.IP port | 9100 |
Element Manager Inform | Value |
| 1.Name | Switch EM-1 |
| 2.IP address | 192.168.100.1 |
OUTPUT
General Properties | Value |
| 1.Name | Output-01 |
| 2.Description | Output Device |
| 3.Number of cards | 1 |
| 4.Default Port type | ASI |
| 5.Number of ports | 1 |
| 6.Port 1 type | PSK |
| 7.IP address for alarm forwarding | 0.0.0.0 |
IP SWITCH
General Properties | Value |
| 1.Name | IP Switch |
| 2.Description | Switch |
| 3.Hardware model | Stub |
| 4.Switch type | 2x1 Type |
| 5.Default port type | ASI |
| 6.No.Of levels | 1 |
| 7.Level 1 Port type | Ethernet |
| 8.Manual override | False |
| 9.In Service | True |
| 10.Enable Upstream IP Ports | False |
| 11.Disable Upstream ASI Ports | False |
Hardware Properties | Value |
| 1.COM port | None |
| 2.Level 1 router address | 0 |
| 3.Level router type | Video |
| 4.Hardware level | 0 |
Element Manager Inform | Value |
| 1.Name | Switch EM-01 |
| 2.IP address | 192.168.100.1 |
| 3.IP address for communication | 0.0.0.0 |
IP OUTPUT
General Properties | Value |
| 1.Name | IP Output |
| 2.Description | Output Device |
| 3.Number of cards | 1 |
| 4.Default Port type | ASI |
| 5.Number of ports | 1 |
| 6.Port 1 type | Ethernet |
| 7.IP address for alarm forwarding | 0.0.0.0 |
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