Battery is lost in 3 to 4 hours due to the data pack in today's smartphone. Then we believe that our phone's battery is getting worse. And going over the net leads to a loss of data packs. But there is no cause for worry. Just changing your smartphone setting will trouble you away. Change these settings to the phone There are many settings in the phone that are always more cost-efficient. The battery is also down. So let's close those settings.
Uninstall useless apps from your phone. Or change the setting. So if you want to save the phone's battery life and data, you can turn off these settings. Go to your phone's settings and get the Google option. Click on it. There will be an option when clicking. Including data management to game and install app. You can see many settings by clicking on the PLAY GAMES option. In which you have to sign in to Automatically and Use this account to sign in. Below the Play Game, let's close the Request Notification option.
To
anyone working in technology (or, really, anyone on the Internet), the
term “AI” is everywhere. Artificial intelligence — technically, machine learning — is finding application in virtually every industry on the planet, from medicine and finance to entertainment and law enforcement.
As the Internet of Things (IoT) continues to expand, and the potential
for blockchain becomes more widely realized, ML growth will occur
through these areas as well.
While
current technical constraints limit these models from reaching “general
intelligence” capability, organizations continue to push the bounds of
ML’s domain-specific applications, such as image recognition and natural
language processing. Modern computing power (GPUs in particular) has contributed greatly to these recent developments — which is why it’s also worth noting that quantum computing will exponentialize this progress over the next several years.
Alongside
enormous growth in this space, however, has been increased criticism;
from conflating AI with machine learning to relying on those very
buzzwords to attract large investments, many “innovators” in this space have drawn criticism from technologists
as to the legitimacy of their contributions. Thankfully, there’s plenty
of room — and, by extension, overlooked profit — for innovation with
ML’s security and privacy challenges.
Reverse-Engineering
Machine learning models, much like any piece of software, are prone to theft and subsequent reverse-engineering. In late 2016, researchers
at Cornell Tech, the Swiss Institute EPFL, and the University of North
Carolina reverse-engineered a sophisticated Amazon AI by analyzing
its responses to only a few thousand queries; their clone replicated the
original model’s output with nearly perfect accuracy. The process is
not difficult to execute, and once completed, hackers will have
effectively “copied” the entire machine learning algorithm — which its
creators presumably spent generously to develop.
The risk this poses will only continue to grow. Inaddition
to the potentially massive financial costs of intellectual property
theft, this vulnerability also poses threats to national
security — especially as governments pour billions of dollars into autonomous weapon research.
Not
only is this attack a threat to the network itself (i.e. consider this
against a self-driving car), but it’s also a threat to companies who
outsource their AI development and risk contractors putting their own
“backdoors” into the system. Jaime Blasco, Chief Scientist at security
company AlienVault, points out that this risk will only increase as the world depends more and more on machine learning. What would happen, for instance, if these flaws persisted in military systems? Law enforcement cameras? Surgical robots?
Training Data Privacy
Protecting the training data put into machine learning models is yet another area that needs innovation. Currently, hackers can reverse-engineer user data out of machine learning models
with relative ease. Since the bulk of a model’s training data is often
personally identifiable information —e.g. with medicine and
finance — this means anyone from an organized crime group to a business
competitor can reap economic reward from such attacks.
Further,
as organizations seek personal data for ML research, their clients
might want to contribute to the work (e.g. improving cancer detection)
without compromising their privacy (e.g. providing an excess of PII that
just sits in a database). These two interests currently seem at
odds — but they also aren’t receiving much
focus, so we shouldn’t see this opposition as inherent. Smart redesign
could easily mitigate these problems.
Conclusion
In
short: it’s time some innovators in the AI space focused on its
security and privacy issues. With the world increasingly dependent on
these algorithms, there’s simply too much at stake — including a lot of
money for those who address these challenges.
Threat Intel’s ‘History of…’ series will look at the origins and evolution of notable developments in cyber security.
What
exactly is cloud computing? This is something that, no doubt, most
people have wondered in recent times, as more and more of the services
we use have migrated to the semi-mythical “cloud”.
One dictionary definition of cloud computing defines it as: “Internet-based computing in which large groups of remote
servers are networked so as to allow sharing of data-processing tasks,
centralized data storage, and online access to computer services or
resources.” Users no longer need vast local services to access storage
or carry out certain tasks, they can do it all “in the cloud”, which
essentially means over the internet.
If we go back to the very beginning, we can trace cloud computing’s origins all the way back to the 1950s,
and the concept of time-sharing. At that time, computers were both huge
and hugely expensive, so not every company could afford to have one. To
tackle this, users would “time-share” a computer. Basically, they would
rent the right to use the computer’s computational power, and share the
cost of running it. In a lot of ways, that remains the basic concept of
cloud computing today.
In
the 1970s, the creation of “virtual machines” took the time-share model
to a new level. This development allowed multiple computing
environments to be housed in one physical environment. This was a key
development that made it possible for the cloud computing we know today
to develop.
Professor
Ramnath Chellappa is often credited with being the person who coined
the term “cloud computing” in its modern context, at a lecture he
delivered in 1997. He defined it then as
a “computing paradigm where the boundaries of computing will be
determined by economic rationale rather than technical limits alone.”
However, some months before this, in 1996, a business plan created by a group of technologists at Compaq
also used the term when discussing the “evolution” of computing. So,
while the source of the expression might be in dispute, it is clear that
the modern “cloud” was something that was being seriously thought about
by those in the IT industry in the mid ’90s — 20 years ago.
Modern developments
In
2006, Amazon launched Amazon Web Services (AWS), which provided
services such as computing and storage in the cloud. Back then, you
could rent computer power or storage from Amazon by the hour. Nowadays,
you can rent more than 70 services,
including analytics, software and mobile services. Its S3 storage
service holds reams of data and services millions of requests every
second. Amazon Web Services is used by more than one million customers
in 190 countries. Massive companies including Netflix and AOL don’t
have their own data centers but exclusively use AWS. Its projected
revenue for 2017 was $18 billion.
While
the other major tech players, such as Microsoft Azure, did subsequently
launch their own cloud offerings to compete with AWS, it dominates the
cloud infrastructure market; according to recent reports,
at the end of 2017 it held a 62 percent market share of the public
cloud business, with Microsoft Azure holding 20 percent, and Google 12
percent. While AWS is still way ahead of its rivals in this space, it is
interesting to note that its market share did drop since the previous
year, while both Microsoft and Google’s market share grew.
While
AWS dominates in the enterprise space, when it comes to consumers, they
are probably most familiar with services like Dropbox, iCloud and
Google Drive, which they use to store back-ups of photos, documents, and
more. The increased use by people of mobile devices with smaller
storage capacities increased the need for cloud-based storage among
consumers. While they may lack understanding about what exactly the
cloud is, it is likely that most consumers are using at least one
cloud-based service. The cloud has allowed for the growth of the mobile
economy, in many ways, allowing for the development of apps that may not
have been possible in the absence of a cloud infrastructure.
In organizations, the numbers using cloud services is even larger. The Symantec ISTR 2017
showed that the average enterprise has 928 cloud apps in use, though
many businesses don’t realize that their employees are actually using so
many cloud services.
Security concerns
However,
while there are many advantages to cloud computing, and many reasons
why companies and individuals use cloud services, it does present some
security concerns. One of the appeals of information stored on the cloud
is that it can be accessed remotely, however, if inadequate security
protocols are in place, this is also one of its weaknesses. There have
been many stories in the news about Amazon S3 buckets being left on the web unsecured
and revealing personal information about people. However, as it seems
unlikely that cloud computing is going anywhere, the answer to these
kinds of issues is more likely to be improving people’s cyber security
practices to ensure they protect data stored online with strong
passwords and other forms of authentication, such as two-factor and
encryption.
The
adoption of cloud was almost inevitable in our hyper-connected world.
The need for computing power and storage simply became too expensive and
too much for many businesses and individuals to tackle, meaning they
needed to farm out these tasks to cloud services. As the move to mobile
continually escalates, and as the Internet of Things (IoT) continues to
grow as a sector, cloud computing is set to continue its growth.
It may have started out as a marketing term, but cloud computing is an important reality in today’s IT world.
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Hardik Gandhi is Master of Computer science,blogger,developer,SEO provider,Motivator and writes a Gujarati and Programming books and Advicer of career and all type of guidance.