The Toughest (And Weakest) Phones Currently On the Market (tomsguide.com)
New submitter Daneel Olivaw R. shares a report from Tom's Guide: To measure each phone's toughness, [Tom's Guide] dropped it from both 4 and 6 feet onto wood and concrete. After each test, we recorded the damage to the phone. If a phone was rendered unusable -- the screen totally shattered, for instance -- then we stopped dropping it. [More details on the testing process can be found here.] Each drop was worth a maximum of 5 points; if a phone made it through all of the rounds unscathed, it would earn 35 points. The more severe the damage per drop was, the more points were deducted. If a phone was rendered unusable after a given drop, it would earn no points, and would not undergo any subsequent test. In total, there were seven tests. [...] If a phone died in the 6-foot edge drop, it was penalized an extra 10 percent. If it died in the 6-foot face drop, it was penalized 5 percent. And if it died when dropped into the toilet, it lost 2.5 percent. We then divided the total score by 3.5, to put it on a 10-point scale. Here are the scores of each device:
Motorola Moto Z2 Force - Toughness score: 8.5/10
LG X Venture - Toughness score: 6.6/10
Apple iPhone X - Toughness score: 6.2/10
LG V30 - Toughness score: 6/10
Samsung Galaxy S9 - Toughness score: 6/10
Motorola Moto G5 Plus - Toughness score: 5.1/10
Apple iPhone 8 - Toughness score: 4.9/10
Samsung Galaxy Note 8 - Toughness score: 4.3/10
OnePlus 5T - Toughness score: 4.3/10
Huawei Mate 10 Pro - Toughness score: 4.3/10
Google Pixel 2 XL - Toughness score: 4.3/10
iPhone SE - Toughness score: 3.9/10
Motorola Moto Z2 Force - Toughness score: 8.5/10
LG X Venture - Toughness score: 6.6/10
Apple iPhone X - Toughness score: 6.2/10
LG V30 - Toughness score: 6/10
Samsung Galaxy S9 - Toughness score: 6/10
Motorola Moto G5 Plus - Toughness score: 5.1/10
Apple iPhone 8 - Toughness score: 4.9/10
Samsung Galaxy Note 8 - Toughness score: 4.3/10
OnePlus 5T - Toughness score: 4.3/10
Huawei Mate 10 Pro - Toughness score: 4.3/10
Google Pixel 2 XL - Toughness score: 4.3/10
iPhone SE - Toughness score: 3.9/10
It's still never leaving it's case.
Metal? Wouldn't it be better to have a rubber or elastic polymer case that can absorb shocks rather than just transmit them?
No, actually. You want a case that doesn't let the phone distort, which breaks stuff. Mere deceleration isn't all that evil for phones (unlike human heads (;-))
davecb@spamcop.net
The ten toughest non-ruggedized phones.
You'd think that would have made the summary.
No I didn't RTFA....nobody saw me, can't prove anything.
John McAfee 'It was like that time I hired that Bangkok prostitute; to do my taxes, while I fucked my accountant'
Well not exactly chance, but its all in how the phone hits the ground - a sample size of 1 can hardly be considered meaningful indicator.
Did their market share sink so low that everyone forgot about them?
It's like a bug hitting a windshield, not enough weight to go splat.
Q: What’s the last thing that goes through a bug’s mind when it hits a windshield?
A: Its butt.
#DeleteChrome
You want distance to slow down. Accelerating over a large distance and suddenly stopping is how hammers break stuff. Say you drop 6 feet and stop over the 0.01" your cellphone corner dents inward - the kinetic energy gained through acceleration is the same as deceleration so in a napkin calculation the g forces are simply the ratio of distances, in this case 7,200g which makes your phone screen shatter and plastically deforms the metal case. Give that an elastic component and you could add 3/16" to reduce this to a manageable 384g. Adding a rigid metal case helps with bending, not with impact unless it has an elastic component, though mostly just with phones that have a plastic internal frame.
"Accelerating over a large distance and suddenly stopping is how hammers break stuff."
Actually, it's just a practical way to exert a lot of force. A hydraulic press exerting the same force that builds up over weeks will break stuff just the same. The suddenly stopping has nothing to do with it. A common misconception. Neither does accelerating over a large distance. How would the material know what the hammer was doing before? Or whether it was accelerating or just moving by a constant velocity?
Mostly random stuff.
You should try a country with good mountain ranges.
Most of this data is irrelevant unless you're a teenage girl who doesn't use a protective case so it'll fit in her back pocket.