In the U.K., OpenSignal is a company that uses crowdsourcing through its Android app to collect data. Thanks to this data, we can tell you that Sweden, the first country to launch LTE service, has the fastest 4G network with an average download speed of 22.1 Mbps. Right behind is Hong Kong with an average download speed of 19.6 Mbps. Denmark and Canada are third and fourth with average download speeds of 19.1 Mbps and 18.1 Mbps. What about the U.S.? With an average download speed of 9.6 Mbps, the States finished 8th.
Some of the reason for the low U.S. score is that some carriers in the U.S. built their 4G networks around 20MHz for their initial rollouts (Verizon and AT&T) and the LTE networks for Sprint and MetroPCS were built around 10MHz. Meanwhile, the European operators used 40MHz when they built their 4G LTE pipelines.
28.TheRequiem(Posts: 240; Member since: 23 Mar 2012)
Incorrect, Sprint has developed Network Vision using new technology from Samsung (the only other country using modular Fiber optic tech is South Korea) and are building a complete redux of their network (basically stripping towers bare and putting up all ne wmodern equipment). Unfortunately, AT&T & Verizone simply upgraded legacy tower's with LTE. In the long run, Sprint/ Softbank and their spectrum assets (which is more then all other US Carriers spectrum, combined) will bring about one of the most advanced wireless networks in North America. Keep in mind, Clearwire, has over 160mhz in high-end LTE Spectrum and Sprint willl be using several frequencies for LTE... this will result in LTE Advanced speeds far past the 100mbps. Verizon and AT&T will have trouble with their spectrum/ subscriber counts. Also, fyi, I have witness Sprint LTE and have hit over 40mbps on it... so alas, you are incorrect.
The U.S. has states with a bigger population than Sweden! If their wireless companies all had the luxury of focusing ONLY on California, this may be a different story. Since we're comparing apples to oranges, let's compare amount of space and number of people covered with cell or data coverage. These countries don't have significant populations of people living in rural areas like the U.S. does. It's a bogus comparison in my opinion.
This is a good point. Because since I've been on LTE, I average 10Mbps down in weaker reception areas. In a good to great areas, 25-30. I have Verizon, live in the DC, MD, VA area; MD to be exact. You could consider all 3 one area...they are so close together.
I live closer to DC...but on speed tests...I get faster speeds from VA or Baltimore servers.
22.g2a5b0e(Posts: 3723; Member since: 08 Jun 2012)
I'm so tired of people saying HSPA+ is not even close to LTE. First off, there are multiple types of HSPA+. The version T-Mobile employs in most of its markets is the dual-band HSPA+42 variety. With it, I average 15-20 down with spikes over 25. Don't tell me that's not comparable to LTE. It is true that the up speeds are lacking in comparison to LTE, though.
I agree. HSPA+....I would gladly take that if I wasnt on Verizon. Or if Verizon had that.
My issues with other carrriers is coverage. I know even Verizon has dead zones. I live n work in or around one. It just seems like for my area....Verizon's dead zones is smaller than Sprint n T Mo. AT&T.....not sure about...but they might actually be better in my area.
Whats really odd is in my building...Sprint might work better than Verizon. But its like its confined to the building and immediate surrounding area.
I thought South Korea would be first. The entire country has access to a 1000 Mbps IPS. Guess that doesn't translate to having the fastest 4G average. All though no one really has true 4G yet. Definition of 4G being 100 Mbps for mobile (in car or on train) and 1000 Mbps standing still.
24.gaby1451(Posts: 114; Member since: 30 Mar 2011)
Wait, can someone please explain the last part about the U.S. LTE networks being in 10MHz and 20MHz vs. Europe's 40MHz. I don't understand, what's the difference and how does it pertain to download speeds?
Its about bandwidth. If you are looking at two networks, both operating around the same frequency... let's say 1900 MHz just for this example... that are using identical technology... let's say LTE for this example... then the size of the sliver of that band that they are using is what we are referring to as 'bandwidth'. Basically, this is saying that while an American carrier is using either 10 or 20 MHz of the 1900 MHz band (which is centered around 1900 MHz), the Europeans are using 40 MHz in the same band. Now, as the band center increases, you can get more information into a smaller sliver of bandwidth because the 10 MHz sliver at 1900 MHz is less of a ratio jump than 10 MHz is at, say, 850 MHz. Also, higher power is allowed at lower frequencies, and so longer range of interference becomes a bigger problem at lower frequencies as well.
Sprint's 10 MHz in the 1900 band, and MetroPCS' 10 MHz in the 1700 band, are not bad in comparison to the 20 MHz for AT&T and Verizon in the much lower 700 and 750 bands. They are all very poor, though, when compared to 40 MHz in the 1800, 2100, and 2600 bands elsewhere in the world. That much bandwidth in that high of a frequency band range is a crucial factor in allowing for more simultaneous data sessions and higher data speeds on international LTE networks. Ever wondered why WiFi always got 20 Mbps long before 1xEv-DO could get 3 Mbps? Yeah... WiFi is often found in the 2300 and 2500 bands, where you don't need a lot of bandwidth to get higher speeds and higher numbers of available simultaneous connections, and ran at very low power so as to avoid interference over any significant range.
On the contrary... the coverage is small because of the area, but the speed of data is not a function inverse to area. It is, in fact, the network saturation on a smaller bandwidth that is the issue here in the States. LTE bandwidth here is essentially only a quarter of what they get overseas, is buggy because it is largely in the 700 MHz region where interference and attenuation issues plague the system, and our LTE networks have, thanks to great marketing and urgency expressed by the carriers here and their mutual insane drive to push everyone to consume more and more data at all times on all these newer and faster devices, been choked with a flood of new customers. Our big problem is backhaul... too many customers trying to eat up too much data at once slows everything down for everyone, and the land-based data-line end of things becomes yet another bottleneck in supply and demand. Elsewhere in the world, there are not as many customers who are willing to pay the premium for the newest handsets or the fastest data (or even the highest data caps), and so the overseas networks are often able to accomodate more sessions AND deal with less traffic overall, anyway. It is the effect of having a big shiny new network that is effectively empty... the overseas LTE data speeds can't help but be fantastic under those circumstances.
Australia went to 4G in September 2009, and was only the 2nd country in the world apart from South Korea. 4.5 G starts here in late 2014 , Europe in late 2015 and the US in 2017. 4 G here is exceptionally fast and a massive improvement over the 3.5 G system. The reason why the US will take longer to change over is due to it's only recent conversion to 4 G, (only completed less than 12 months ago) and even now the majority of mobile phones in use in the US are incompatible with other countries systems, so it's going to be a massive job to catch up with the rest of the world as far as compatibility is concerned.