The America’s Cup (AC36) may not feature any teams from the Americas (New Zealand squares off with Italy beginning this weekend) but it will feature plenty of broadcasters and long-distance transmission connectivity given its location in Auckland, NZ. Steven Dargham, head of Major Events at Telstra Broadcast Services, discussed the company’s efforts around the world feed distribution and more with SVG editorial director Ken Kerschbaumer.
Zenlayer enhances real-time interaction for audio and video service provider ZEGO
ZEGO assists global enterprises rapidly acquire stable and high-quality live streaming capabilities in more than 200 regions. To better serve their 500+ million users, ZEGO used Zenlayer to quickly deploy and connect 22 core and edge PoPs in Europe, America, and Southeast Asia.
By doing so, they established a stable, low-latency, dedicated network with access to the best local carriers and improved end-to-end real-time interactive audio and video experiences for users even under complex network environments. At the same time, Zenlayer helped ZEGO reduce operation and maintenance costs, increase operation efficiency, and expedite technology developments and upgrades, allowing ZEGO to further expand its global footprint.
Streamlining Live Remote Acquisition of the Premier League for the Icelandic Audience
MOG’s streamlined production workflows have been helping broadcasters worldwide ensure a smooth acquisition and distribution of UHD/QFHD/FHD/HD/SD feeds in multiple formats and resolutions, with its powerful cloud software applications.
Recently, MOG and its Partner Exton has been selected by Síminn, the Icelandic Broadcaster, to ensure the smooth recording of 4 simultaneous HD 3G-SDI channels of the Premier League to fans across Iceland, with an intuitive but powerful remote software.
Member Speak – Never.no
Never.no was founded in 1999, by Lar Laurizson, a Norwegian creative genius. The company was originally a technology solutions business, with a crack-team of coders providing software for flows and managing data. Some of this would go into traditional development, such as website build, but in essence the approach was about how to improve digital delivery in general.
The company slowly evolved into the broadcast sector, where the initial ideas of what our content management platform, Bee-On, is now – focusing on audience engaged formats. Never.no were the creators of the very first automated music jukeboxes, people could pick up the phone and send an SMS to vote for a music track, which would influence the end result, in real-time. It’s a precursor to where we are now in terms of developing an easy-to-use platform for data management, particularly social, and publishing into or changing broadcast graphics in real-time.
Matrox White Paper: Insiders Guide to Validating Devices for SMPTE ST 2110 Infrastructures
Why Test ST 2110 Devices?
A SMPTE ST 2110-networked environment must deliver all of the benefits of an IP infrastructure – with the predictability of SDI – in order for it to be useful. This challenge can be met only when the infrastructure is well-managed and edge devices respect specifications. A rogue ST 2110 device may not deliver as expected, which would be bad enough. More importantly, it could adversely affect other functioning devices and lead to unpredictable general failure, which could be catastrophic.
With this in mind, the first step to take after acquiring a new ST 2110 device for a broadcast network is to make sure that it is a good “network citizen.” A good network citizen will not affect the network or disrupt operations when it is directly connected to an on-air production environment. The second step is to actually test the promised functionality and its compliance to SMPTE standards and industry norms. For example, a production environment that is architected around ST 2022-7 redundancy would be very poorly-served if devices do not actually support the ST 2022-7 specification properly – which could ultimately lead to disruptions.
It is important to understand that some devices might actually work well in a small synthetic setup, but fail when put into a real working environment. Due to a number of unaccounted variables, a simple pass-fail test may not be sufficient to make informed decisions on choice of equipment. For example, network packet timing is very different when several transmitters are sending to one receiver compared to a single transmitter sending to a receiver. The timing of a sender is also different if it sends a single ST 2110 flow vs. several flows. Another typical testing pitfall is the dependence on one kind of transmitter. A receiver might work great with a narrow gapped transmitter – like an SDIto-IP gateway – but not work well with a wide linear transmitter.
At first glance, issues like these may not appear to be a problem if the environment may only contain narrow gapped devices. However, knowing the functional boundaries of a working environment is critical to maintaining future expansion. Misinformed decisions taken today may limit future capability and possibilities, (e.g. supporting wide senders). To pre-empt this, it is advisable to build up a test suite that pushes the test boundaries for imperfect, but sufficiently good cases. It is only with these types of tests that informed decisions could be made, eventually leading to judicious ST 2110 device purchases, safe device firmware/software updates, and beneficial service agreements.
Roland-Garros 2020 : “Augmented Tennis” For Future TV
France Télévisions once again chooses the French Open to test the innovations of the television of the future. During this fall edition, France Televisions, in partnership with the French Tennis Federation, shares its vision of tomorrow’s uses materialized by spectacular and unprecedented experiments around “Augmented Tennis” within the RGLAB on the site of the international tournament from September 27 to October 11, 2020.
Infographic: 6 Ways To Monetise Media Online
If you are looking to start or grow your own media business, you should consider all the opportunities available to you. From offering monthly subscriptions to receiving charitable donations securely, it can be tough to know where to start. Discover the most popular ways that creators and content owners are monetising their media online in our new infographic.
Lessons from Digital Native Media Companies
The past decade has seen an influx of digital-native media companies which have thrived completely online. These are companies that have scaled up without the legacy infrastructure that their traditional counterparts have long relied on (and now have to wean themselves off).
The proliferation of digital-native media companies can be largely attributed to shifting demographics and consumption patterns. Today, millennials often dictate the trends and technologies of the time as they form a large part of the consumer base. As a generation, they gravitate towards digital platforms to access information on the go.
A Terrestrial Alternative to Satellite-based Video Distribution
On 19th November 2019, Ajit Pai, chairman of the United States Federal Communications Commission (FCC), announced a public auction of the C-band spectrum (about 500 MHz of bandwidth between 3.7 to 4.2 GHz) to facilitate the development of 5G. The C-Band, a swathe of satellite spectrum that has been historically used for fixed wireless services, plays a crucial role in broadcasting and live production of content such as news reporting and sports feeds.
Building a 100G Uncompressed Media Backbone for the Future
Research reveals that there were around 2.4 billion Internet users in 2014. By June 2019, that number doubled to 4.4 billion. That’s an 83% increase in the Internet user base in a span of just five years. For the media and telecommunications sector, this raises an all-important question: How far can current underlying networks scale to accommodate the growing traffic on the Internet?
While the good news is that no one single network will need to support this burgeoning traffic, there remains some scepticism around existing networks and their ability to keep pace with the bandwidth demands of next-generation connected devices.
