- Site Search
- Media Production
- Mobile/Live
- Playout
- Remote Production
- Studio Production
- Venues
- Live Production Bundles
-
GV STRATUS ONEAll in One Media Production Platform
-
GV ORBITCrafted to make IP easy!
-
GV AMPP PLAYOUTFlexible, Scalable, Cloud-first Playout Solution
-
OVERVIEW VIDEOProvide consistently better live content
-
GV PACEOur production automation control environment
-
AMPP VIDEO CASE STUDYBlizzard Entertainment Amps Up Overwatch League
-
PRO MEDIA PRODUCTIONAdded Simplicity & Affordability
- Network Orchestration
- Network Control Panels
- IP COTS Switches
- IP Modular Platforms
- IP Audio Processors
- IP Multiviewers
- IP Frame Rate Converters
- IP Standalone Converters
- Sync Generator
- Control, Configuration & Monitoring Sytems
- Control Panels
- Routers
- Multiviewers
- Frame Rate Converters
- Standalone Converters
- Modular Systems
- Fiber Transport
- Sync Generator
- Production Switchers Range
- K-Frame Production Switchers
- Kahuna Production Switchers
- Kula Production Switchers
- ICE - Automated Channel Playout
- ICE LE - Entry Level Automated Channel Playout
- ICE SDC - Software Defined Channel for Virtualized IP Playout
- Support Portal
- Contact Support
- Customer Support
- Documentation Library
- EDIUS Login
- Fiber Power Calculator
- Training
- About Us
- Case Studies
- Customer Support
- Image Archive
- Video Tutorials
- Whitepapers
- Forums
- Grass Cutters
- Video Tutorials: Automated Production
- Video Tutorials: Cameras
- Video Tutorials: Editing
- Video Tutorials: Playout
- Video Tutorials: Production Switchers
- Video Tutorials: Replay
- Office Locations
- Sales Enquiry
- Partner Portal
- Locate a Partner
- Locate an EDIUS Reseller
- GV Tech Alliance
RELEASE NOTES
Release Notes
Cisco Nexus 9508-R Spine & Leaf Release Notes v7.0 (3)(2)
(cisco rn 9508 v7.0 (3)(2)) File size: 83.0 KB, posted Jun 18 2018
WHITEPAPERS
Whitepapers
Why Shaping Traffic at the Sender is Important Whitepaper
—by Chuck Meyer, Chief Technical Officer, Production, (GVB-1-0657B-EN-WP) File size: 1.3 MB, posted Mar 05 2019
To manage this risk in advance, broadcasters should consider how the buffers in the switch work and ensure that data senders behave in such a way that the buffers never become too full. This practice is known as sender traffic shaping. To ensure pre-compensating for this adverse effect is efficiently applied to IP, broadcasters must follow one rule: the network must be designed and managed for the desired traffic load.
Shaping sender traffic is important for system reliability, and it is equally important to consider its impact for low latency and jitter in live production systems. To ensure the optimal workflow and performance, use the proposed SMPTE 2110-21 standard as a way to design the system, and then verify this, as well as system performance requirements, with your router vendor.
To manage this risk in advance, broadcasters should consider how the buffers in the switch work and ensure that data senders behave in such a way that the buffers never become too full. This practice is known as sender traffic shaping. To ensure pre-compensating for this adverse effect is efficiently applied to IP, broadcasters must follow one rule: the network must be designed and managed for the desired traffic load.
Shaping sender traffic is important for system reliability, and it is equally important to consider its impact for low latency and jitter in live production systems. To ensure the optimal workflow and performance, use the proposed SMPTE 2110-21 standard as a way to design the system, and then verify this, as well as system performance requirements, with your router vendor.
Aggregation is Key to Optimizing IP Network Design Whitepaper
—by Chuck Meyer, Chief Technical Officer, (GVB-1-0650C-EN-WP) File size: 1014.3 KB, posted Mar 05 2019
The world of IP technology moves rapidly. The speed with which data moves through an Ethernet connection and the amount of bandwidth that connection can accommodate increases at a rate that makes network planning challenging. What makes it even more challenging? Usually, higher bandwidth interconnects, such as active optical connectors, are initially more expensive and less available due to their rapid adoption by data center and telecommunications installations. Supply eventually catches up to the demand, but costs sometimes make early adoption prohibitive.
In the world of broadcast and media distribution, IP networks are being deployed to exploit the benefits that this technology presents: scalability; simplified geographic distribution; workflow efficiency; and the promise of future bandwidth increases. They are also being deployed in an effort to provide faster adoption of new media distribution services and formats as the role of traditional broadcast evolves into a more consumer choice-driven business model.
The world of IP technology moves rapidly. The speed with which data moves through an Ethernet connection and the amount of bandwidth that connection can accommodate increases at a rate that makes network planning challenging. What makes it even more challenging? Usually, higher bandwidth interconnects, such as active optical connectors, are initially more expensive and less available due to their rapid adoption by data center and telecommunications installations. Supply eventually catches up to the demand, but costs sometimes make early adoption prohibitive.
In the world of broadcast and media distribution, IP networks are being deployed to exploit the benefits that this technology presents: scalability; simplified geographic distribution; workflow efficiency; and the promise of future bandwidth increases. They are also being deployed in an effort to provide faster adoption of new media distribution services and formats as the role of traditional broadcast evolves into a more consumer choice-driven business model.