Samsung, which once led India’s smartphone market, is investing $ 500 million in its India operations to set up a manufacturing plant at the outskirts of New Delhi to produce displays.
The company disclosed the investment and its plan in a filing to the local regulator earlier this month. The South Korean giant said the plant would produce displays for smartphones as well as a wide-range of other electronics devices.
In the filing, the company disclosed that it has allocated some land area from its existing factory in Noida for the new plant.
Samsung is now the second largest smartphone player in India, which is the world’s second largest market with nearly 500 million smartphone users. The company in recent months has also lost market share to Chinese brand Realme, which is poised to take over the South Korean giant in the quarter that ended in December last year, according to some analysts.
TechCrunch has reached out to Samsung for comment.
It’s the slowest week of the year for gadget news. Christmas is in the rearview, and it’s a few days until the new year. After that, it’s a straight shot to CES and then MWC. Meantime, best we’ve got going for us are a handful of rumors, including a peek at what Google’s next budget might could potentially possibly conceivably look like.
Per renders from OnLeaks and 91Mobiles, a vision of the Pixel4A has appeared — or, a render, rather. The handset will no doubt be an important one for Google. After all, the 3A (pictured at top) helped the company recover from some lackluster sales last year. A couple of pieces jump out at first glance. The display appears to finally buck the company’s longtime notch dependency, in favor of a hole punch camera on the front.
Perhaps even more compelling, the device seems to hold the torch for the headphone jack. In 2020, that could well be a standout feature even among mid-range handsets. As the company eloquently put it around the time of the 3A’s release, “a lot of people have headphones.”
Other notable features on the forthcoming devices include the addition of the squircle phone bump on the rear, a design element borrowed from the Pixel 4. Likely the handset will stick to a single camera, instead of adopting the flagship’s truly excellent dual-camera set up. Even so, Google’s been able to accomplish some solid imaging technology with just the one sensor, courtesy of clever ML software.
The display, too, will be slightly larger than its predecessor, bumping up one or two tenths of an inch. The handset is reportedly dropping around May, probably just in time for I/O 2020.
If you thought the saga of the $ 7,000 Apple Pro Display XDR couldn’t get any more ridiculous, prepare yourself for the proverbial cherry on top: The company insists that you only use the single special cleaning cloth that comes with the monitor. If you lose it, you’re advised to order another.
Apple, already under fire from longtime users for the ever-increasing price of its products, attracted considerable ire and ridicule when it announced the high-end monitor in June. Of course there are many expensive displays out there — it was more the fact that Apple was selling the display for $ 5,000, the stand separately for $ 999, and an optional “nano-texture” coating for an additional grand.
Just wait till you see how much the Mac Pro that goes with it costs.
Technically it’s not actually a “coating” but an extremely small-scale etching of the surface that supposedly produces improved image quality without some of the drawbacks of a full-matte coating. “Typical matte displays have a coating added to their surface that scatters light. However, these coatings lower contrast while producing unwanted haze and sparkle,” the product description reads. Not so with nano-texture.
Unfortunately, the unique nature of the glass necessitates special care when cleaning.
“Use only the dry polishing cloth that comes with your display,” reads the support page How to clean your Apple Pro Display XDR. “Never use any other cloths to clean the nano-texture glass. If you lose the included polishing cloth, you can contact Apple to order a replacement polishing cloth.” (No price is listed, so I’ve asked Apple for more information.)
Obviously if you’re cleaning an expensive screen you don’t want to do it with Windex and wadded-up newspaper. But it’s not clear what differentiates Apple’s cloth from an ordinary microfiber wipe.
Do the nano-scale ridges shred ordinary mortal cloth and get fibers caught in their interstices? Can the nano-texture be damaged by anything of insufficient softness?
Apple seems to be presuming a certain amount of courage on the part of consumers, who must pay a great deal for something that not only provides an uncertain benefit (even Apple admits that the display without the coating is “engineered for extremely low reflectivity”) but seems susceptible to damage from even the lightest mishandling.
No doubt the Pro Display XDR is a beautiful display, and naturally only those who feel it is worth the price will buy one. But no one likes to have to baby their gadgets, and Apple’s devices have also gotten more fragile and less readily repairable. The company’s special cloth may be a small, even silly thing, but it’s part of a large and worrying trend.
Meet Angell, a new smart bike from a French startup led by Marc Simoncini who is mostly known for founding Meetic. The company is announcing its first electric-bike today. And the goal is to make an e-bike that is smarter than everything out there.
“We dedicate half of public space to cars even though cars only represent 12% of trips,” Angell founder and CEO Marc Simoncini told me. And according to the company’s data, only 2% of people use bikes to move around a city in France, compared to 31% in the Netherlands and 13% in Germany.
So there’s a market opportunity for a newcomer in the e-bike space in France, and eventually in other major cities around the world. “Our goal is to become the global leader in the smart bike space,” Simoncini said.
When it comes to hardware, the Angell e-bike is a 14kg bike with an aluminum frame, integrated lights and a removable battery. It has a 2.4-inch touch screen to control the bike. The battery should last 70km on a single charge. There are also turn signals that you can activate with a button.
The Angell e-bike comes with everything you’d expect from a connected bike and that you can already find on Cowboy and Vanmoof e-bikes. It connects with your phone using Bluetooth and has an integrated lock and alarm system. If somebody tries to steal your bike, the bike will play a loud sound. If somebody manages to steal your bike, you can track it using an integrated GPS chip and cellular modem.
But Angell wants to go one step further with its integrated display. First, you can select different levels of assistance directly on the bike itself. You can display information on the screen when you’re riding your bike, such as speed, calories, battery level and distance on the screen. You can also set an emergency contact so that they automatically receive a notification if your bike detects a fall.
More interestingly, you can set a destination on your phone and get turn-by-turn directions on your bike. In addition to arrows that tell you when you’re supposed to turn, your handlebar vibrates as well.
“70% of the Angell project is software,” Simoncini said.
The Angell e-bike will be available at some point during the summer of 2020. It’ll cost €2,690 ($ 2,966) with pre-orders starting a few months earlier. Customers can also choose to pay €74.90 per month for 36 months. Angell will also partner with an insurance company to offer a theft and damage insurance product for €9.90 per month.
The Angell e-bike is just the first step of the company. Eventually, Angell wants to dedicate 5% of its revenue to a smart city fund and incubator, the Angell Lab. The company wants to create an ecosystem of startups that want to reinvent city mobility. Angell is fully funded by Marc Simoncini for now.
Using a computer and modern software can be a chore to begin with for the visually impaired, but fundamentally visual tasks like 3D design are even harder. This Stanford team is working on a way to display 3D information, like in a CAD or modeling program, using a “2.5D” display made up of pins that be raised or lowered as sort of tactile pixels. Taxels!
The research project, a collaboration between graduate student Alexa Siu, Joshua Miele, and lab head Sean Follmer, is intended to explore avenues by which blind and visually impaired people can accomplish visual tasks without the aid of a sighted helper. It was presented this week at SIGACCESS.
The device is essentially a 12×24 array of thin columns with rounded tops that can be individually told to rise anywhere from a fraction of an inch to several inches above the plane, taking the shape of 3D objects quick enough to amount to real time.
“It opens up the possibility of blind people being, not just consumers of the benefits of fabrication technology, but agents in it, creating our own tools from 3D modeling environments that we would want or need – and having some hope of doing it in a timely manner,” explained Miele, who is himself blind, in a Stanford news release.
Siu calls the device “2.5D,” since of course it can’t show the entire object floating in midair. But it’s an easy way for someone who can’t see the screen to understand the shape it’s displaying. The resolution is limited, sure, but that’s a shortcoming shared by all tactile displays — which it should be noted are extremely rare to begin with and often very expensive.
Getting an intuitive understanding of a 3D object, whether one is designing or just viewing it, usually means rotating and shifting it — something that’s difficult to express in non-visual ways. But a real-time tactile display like this one can change the shape it’s showing quickly and smoothly, allowing more complex shapes like moving cross-sections to be expressed as well.
Joshua Miele demonstrates the device.
The device is far from becoming a commercial project, though as you can see in the images (and the video below), it’s very much a working prototype and a fairly polished one at that. The team plans on reducing the size of the pins, which would of course increase the resolution of the display. Interestingly another grad student in the same lab is working on that very thing, albeit at rather an earlier stage.
The Shape Lab at Stanford is working on a number of projects along these lines — you can keep up with their work at the lab’s website.