Osa 5440
Osa 5440
Your benefits
Unique flexibility and versatility Multi-technology high-speed connectivity
Operational simplicity
Syncjack ff− techonology
High-level specifications
y Default profiles over Ethernet y High-capacity Stratum 1 server y Ten hot-swappable expansion
and IP multicast y Hardware timestamping cards per OSA 5440
y Telecom profiles G.8265.1, y NTP/PTP/Sync-E/SSU y Line cards:
G.8275.1 and G.8275.2 supported simultaneously ff 16x E1/T1/2.048MHz
y Enterprise hybrid and power y NTP authentication (120/100/75ohm)
profiles y PTP to NTP conversion ff 4x 1/10GbE (PTP/Sync-E)
y Hardware-based packet ff Multi-band GNSS
processing ff 10x composite clock (CC)
Synchronizing
professional broadcast
Database timing
PTP time-as-a- at global scale
service Timing
distribution
Cable network network
timing Highly scalable
Multi-technology core grandmaster
grandmaster OSA 5440
Macro cell
timing
Enhanced primary
In- and outdoor reference time clock
small cell timing
Finance
4
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Product overview
OSA 5440
3RU
Size (WxHxD) 443mm x 132.5mm x 216mm /
17.44” x 5.21” x 8.50”
Quartz (OCXO)
Quartz HQ+ (high-quality OCXO)
Clock
Quartz HQ++ (enhanced high-quality DOCXO)
Rubidium
Expansion line Cards Up to 10
PTP/NTP/Sync-E ports Up to 48
BITS output ports Up to 161
Composite clock ports Up to 100
Hot-swappable redundant DC PSU
PSU
(up to 4)
Hot-swappable redundant
Fan units
Up to 2 (optional)
Holdover performance
Clock Aging / Day (after 30 days) Temperature stability
High-quality OCXO
Quartz CSM ±5x10-10 ±50x10-10
Stratum 3 / G.812 Type III
High-quality OCXO
Quartz HQ+ CSM ±2x10-10 / ±1x10-10 * ±2x10-10
G.812 Type I
DOCXO
Quartz HQ++ CSM ±5x10-11 / ± 1x10-11* ±1x10-11
Stratum 2 / G.812 Type II
Rubidium
Rubidium CSM ±5x10-12 ±2x10-10 / ±2x10-11**
Stratum 2 / G.812 Type II
*Note: Effective daily aging after device has been powered for one month and locked to GPS for three days, for the following three days
**Note: Effective temperature stability after compensation
Note: The above are typical values (1 sigma confident) assuming controlled temperature environment, after the device has been powered for one month
and locked to GPS for 72 hours. Due to the excellent temperature stability of the HQ++, the HQ++ holdover will outperform the Rubidium holdover when
significant temperature variations are presented.
CLK OUT
From / To SyncE Tx BITS/CC OUT PTP NTP 1PPS OUT ToD
(10MHz)
GNSS ü ü ü ü ü ü ü
SyncE Rx ü ü ü ü n/a freq. n/a
BITS IN ü ü ü ü n/a freq. n/a
CLK IN ü ü ü ü n/a freq. n/a
PPS IN ü ü ü ü ü ü ü
PTP ü ü ü ü ü ü ü
GM/PRTC frequency and time accuracy − Programmable reference signals including SyncE, BITS,
y While locked to GNSS: PPS, GNSS and CLK
y Phase and time – PRTC / G.8272 phase accuracy − MTIE mask and time error threshold alarms based on
− Single band GNSS, PRTC-A: ±100nsec from UTC SNMP traps
− Multi band GNSS, PRTC-B: ±40nsec from UTC − TE/TIE raw data collection and export to server
y Frequency – PRC / G.811 frequency accuracy − Daily MTIE and TE performance monitoring reports
− Calculation of packet maximum, constant and dynamic
GM/ ePRTC frequency and time accuracy
TE, TIE and MTIE between physical reference signal and
y While locked to GNSS and connected to ePRC
timestamps within the PTP packets
y Phase and time – ePRTC / G.8272.1 phase accuracy:
y PTP network analysis including PTP network probe
±30nsec from UTC
− Packet delay and packet delay variation performance
y Holdover within ±100nsec for 14 days
statistics
Assured PNT (aPNT) Solution − Delay asymmetry
y Multiple backups to GNSS including PTP, SyncE, CLK, BITS − Network usability statistics (FPP based on G.8261.1)
and local oscillator − Packet loss statistics
y PRTC can automatically select between 3 available input − Programmable reference signals including SyncE, BITS,
references PPS, GNSS and CLK
y Frequency automatically selected between 3 available − Enhanced sync assurance statistics, performance
input frequency references monitoring (15min and 24h), including data export,
y Improved holdover with HQ+/HQ++/rubidium oscillator threshold crossing alarm (TCA) and SNMP traps
y Automatic switchover in case of jamming /spoofing/ y User configurable MTIE masks
interference detection
Low-touch provisioning
y ePRTC combines GNSS/PTP/PPS+ToD with cesium clock
y Text-based configuration files
from improved accuracy in locked mode and extended
y FTP/SFTP/SCP for configuration file copy
holdover in case of GNSS outage
y Remote software upgrade
y Interoperable with OSA 5405 smart antenna
y PTP and GNSS assurance using ENC Sync Director Management and security
Syncjack™ monitoring and assurance tools Local management
y Clock accuracy for up to two clock probes – computing y Serial port (RS232 over RJ45) for CLI (on CSM)
TE, TIE and MTIE of physical clocks Remote management
− Calculation of maximum, constant and dynamic TE, y Local LAN port (100/1000BaseT over RJ45) using CLI,
TIE and MTIE between physical source and reference SNMP and Web GUI interfaces (on AUX)
signals y Support for IPv4 and IPv6 (dual stack)
− Programmable source and reference signals including y Maintains in-band VLAN-based management tunnels
SyncE, BITS, PPS, GNSS and CLK y Configurable static routes and default getaways
− MTIE mask and time error threshold alarms based on y Fully interoperable with ADVA FSP 150 and ADVA FSP 3000
SNMP traps products
− TE/TIE raw data collection and export to server y Ensemble management, control and GNSS assurance
− Daily MTIE and TE performance monitoring reports
y Clock analysis for up to four PTP clock probes – packet Management protocols
TE, TIE and MTIE y Telnet, SSH (v1 / v2)
− Support for active and passive probe mode y HTTP / HTTPS