Given the challenges posed by the propagation characteristics of mmWave spectrum, many had speculated that mmWave would be confined to fixed wireless applications. But the X50 modem bears the Snapdragon name and is made by Qualcomm Technologies, so naturally, it’s built from the ground up for mobility. Years of research and development have allowed us to invent technologies to overcome mmWave’s limitations. Instead of using only a handful of antennas (as with 4G), the Snapdragon X50 5G modem relies on multi-element antenna arrays. The antennas are designed to work together intelligently, using beamforming and beam tracking technologies, extending mmWave’s mobility and reach to non-line-of-sight scenarios. For example, the Snapdragon X50 5G modem can direct the energy of the mmWave beam, bouncing off obstacles to reach the mmWave 5G small cell with which it is communicating. But what happens when the 5G device moves completely out of range of the 5G small cell? This is where our leadership in 4G LTE will play a crucial role. Just today, Qualcomm Technologies, along with Telstra, Ericsson, and NETGEAR, announced the first commercial Gigabit Class LTE device and network. Gigabit Class LTE is now a reality, and again we’re at the forefront. It’s our firm belief that Gigabit Class LTE will be the advanced coverage layer that co-exists, and interworks, with 5G deployments. This means that when a mobile device moves out of the range of the 5G small cell, LTE will provide the coverage. The drop in broadband speed during this transition won’t be precipitous; after all, it’s inconceivable that people will tolerate a drop from multi-gigabit per second peak download speeds to only a few hundred megabits. Application developers should be able to count on a predictable high-speed mobile broadband link to the device to develop new generations of applications, services, and user experiences. With Gigabit Class LTE, the experience will be much more uniform in those mobility scenarios, emboldening developers and delighting users. The Snapdragon X50 5G modem is designed to make this seamless mobility possible. It can be paired with a Snapdragon processor with an integrated Gigabit Class LTE modem. In addition to supporting 4G LTE and mmWave 5G, the complete 4G/5G multi-mode platform is designed to help provide dual-connectivity to both (so a mobile device can connect simultaneously over both generations of technology) to achieve seamless mobility between the two. This type of multi-mode capability was crucial for the success of 4G LTE technology, as 3G/4G multi-mode devices based on Qualcomm Technologies' chipsets were able to fall back to 3G wherever 4G coverage wasn’t available in nascent networks. Here we are at the cusp of a new generation of cellular networks, and multi-mode capability will once again be supporting the success of the fledgling generation. That’s why leadership in 4G is critical in order to lead the way to 5G. Though the Snapdragon X50 5G modem represents many firsts for the industry and Qualcomm Technologies, our sights are set on the ultimate goal: a true, global standard for 5G. This is coming to fruition: We’re an active contributor and champion of the 3GPP 5G New Radio (NR) standard.
Qualcomm has launched its first 5G modem - the Snapdragon X50 5G - to help foster a new generation of mobile services. The chip is based on Qualcomm's latest 10nm process and will be available in China later this year. To overcome mmWave's limitations, the X50 works with multi-element antenna arrays that use beam tracking to extend mmWave's mobility and reach to non-line-of-sight situations. The first products featuring the new modem are expected to appear in 2018.