3 ways to create more secure passwords

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Encrypted passwords

“There is no such thing as perfect security,” says Jim Waldron, Senior Architect for Platform Security at HP. If you can access a website or server, consider it vulnerable to security breaches. That’s why so many businesses account for fraud in their business models—they expect to lose a certain amount each year to security leaks, lost IP, and more.

While you can never be 100% secure from hackers while connected to the internet, there are steps you can take to help protect your personal and professional data. All you need to do is activate features that are increasingly common (or easy to manage) on modern business-class PCs: Multi-factor authentication, client-based user authentication, and password best practices.

Multi-factor authentication
Multi-factor authentication is a simple but effective security system that involves the use of at least two factors (or methods) of authentication. It groups different factors together so that even if one is compromised, the data remains protected. Under this system, factors are divided into three domains:

HP support

 

  • Something you know: Password, PIN, etc.
  • Something you have: ATM card, smartcard, etc.
  • Something you are: Fingerprint, iris, etc.

For multi-factor authentication to be successful, you want to pull from at least two different domains, with a maximum of three domains. A common example of multi-factor authentication is when you withdraw cash from an ATM. To do so, you insert your ATM card (something you have) and enter your PIN (something you know). Without both factors you can’t access your account—and neither should anyone else.

Businesses are taking notice too, and multi-factor authentication’s popularity is rising. In 2014, 37% of enterprise organizations surveyed used multi-factor authentication for the majority of their employees, and that number is expected to grow to 56% by 2016.

What you can do now
If you have a business-grade PC, chances are your PC already includes the technologies you need to start using multi-factor authentication. In fact, HP offers multi-factor authentication on all of its business PCs. Consult your manual or HP Support, and identify the factors your PC supports in addition to traditional passwords, such as fingerprint or smartcard readers. Just make sure to choose factors from separate domains.

Client-based user authentication
Every time you log into a system, your identity needs to be authenticated by that system. This process occurs one of two ways: server-side authentication or client-based authentication. With server-side authentication your unencrypted information—such as your password or fingerprint—is sent to a server where it is compared against that server’s records. With client-based authentication, the authentication process—e.g., “Does this fingerprint match the one in our records?”—is performed on the client device, such as your work PC.

While client-based authentication is not as common as its counterpart, it is far more secure. In fact, “In almost all authentication scenarios it is preferable to perform the direct authentication on the client and then communicate an ‘Identity Assurance’ to the relying party,” says Waldron.

Everyone wins when it comes to client-based authentication. The client no longer has to send unencrypted, private information over the internet or store that information on another party’s server, while the relying party no longer has to store sensitive client information on their server—reducing the amount of information that can be stolen if and when a hack occurs.

What you can do now
One of the easiest ways to use client-based authentication is with a hardened fingerprint sensor. The sensor authenticates your fingerprint directly in the hardware, rather than sending it to a server or hard drive, and returns a key that can be used to decrypt password vaults.

Password best practices
As we’ve mentioned before, passwords aren’t perfect. While implementing and using the above features might not seem practical for some of us, everyone can benefit from following basic password best practices. They are quick to implement, and can save you a lot of hassle down the line.

To make the most of your password security, your passwords should be:

  • Long—at least 16 characters. Use a password manager to store unique passwords and fill out log-in forms so that you don’t have to memorize them.
  • Complex—containing symbols, numbers, uppercase letters, lowercase letters, and spaces (if possible)
  • Unique—only use a password once, don’t recycle or repeat across accounts
  • Short-lived—the National Cyber Security Alliance suggests changing your password every 60 days
  • Difficult to guess—avoid common words found in a dictionary, all or part of your name, repeated letters, or combos that align to your keyboard layout, such as “QWERTY” or “123456”

If you are uncertain whether your password is secure enough or if it meets enough of the criteria above, there are several reliable services that will check your password strength for you. Microsoft’s Safety & Security Center offers a free password checker you can access through your browser, while Mac users can access Apple’s Password Assistant through the Keychain Access utility.

What you can do now
The first thing you can do—right this second—is revise your most important passwords to align with password best practices. That includes your work accounts, personal email, bank accounts, and any other services that contain sensitive data. If you need help remembering your new passwords, consider using a password manager such as HP Password Manager. That way you only have to authenticate once to gain access to all your systems. You can also adopt a system to make your passwords easier to remember. Using acronyms, for example, you can turn the phrase “I was born in 1986 and my parents still live on Lake Street!” into “Iwbi1986ampsloLS!”—creating a strong password that’s easy to remember.

Passwords are changing, and while they will never be perfect, they can still provide an effective first layer of defense against hackers and ne’er do wells. The above features and techniques are increasingly common on modern business PCs, making it easier than ever to protect your private data. All you have to do is use them.

Have questions?

Get help from IT Experts/Microsofts Cloud Solutions Partner
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The 15 most frightening data breaches

data breaches

 

Ashley Madison (2015)

All data breaches are scary, but some just have that extra scream factor.

In arguably the most embarrassing data breach of the bunch, a group calling itself “The Impact Team” stole 37 million records from adultery website Ashley Madison, including many records that customers had paid to have deleted.

Virtually all of the company’s data was stolen in the hack, including records that suggest most female accounts on the site are fake, and that the company used female chat bots to trick men into spending money.

LivingSocial (2013)

Daily deals company LivingSocial had its network compromised in 2013, with hackers stealing roughly 50 million names, email addresses, birthdays, and encrypted passwords from its SQL database.

Sony PlayStation Network (2011)

Game over, man. In April 2011, hackers raided Sony’s PlayStation Network (PSN) service, stealing personally identifiable information from more than 77 million gamers.

Sony was further criticized for delaying the release of public information about the theft and for storing customer data in an unencrypted form.

The attack took Sony’s PSN out of service for 23 days.

Internal Revenue Service (2015)

Nigerian scammers pilfered more than $50 million from the U.S. Treasury via an embarrassingly simple 2015 hack of the Internal Revenue Service website.

Information scraped from previous data hacks was used to steal Americans’ identities and request copies of past tax returns on the IRS website. The crooks then filed new tax returns with falsified data, requesting big refunds.

The hack caused massive nightmares for the estimated 334,000 people whose records were stolen before the IRS shut down the transcript request service.

Target (2013)

Hackers installed point-of-sale malware on Target’s computer network sometime in 2013, resulting in the theft of more than 70 million customer records. Stolen data included payment card numbers, expiration dates, and CVV codes.

The retailer reached out to affected customers by offering free data monitoring (standard practice) and a 10% off discount on a future shopping trip. But it was too little, too late; same-store sales slid in the quarter following the hack.

Anthem (2015)

Anthem, the United States’ second largest for-profit health insurer, disclosed in February 2015 that it had lost 78.8 million unencrypted customer records to criminals. Names, social security numbers, email addresses, and income data was stolen.

The rare piece of good news: Financial and medical records were not affected.

Adobe (2013)

Adobe revealed in October 2013 that hackers had stolen 38 million active customer IDs and passwords, forcing the company to send out a wave of password reset warnings.

Weeks after, the news got worse for the company: The thieves also made off with the source code for its popular Adobe Photoshop software.

eBay (2014)

Talk about an inside job: In 2004, online auction house eBay suffered the largest hack in U.S. history, losing 145 million login credentials to a hacker using an internal eBay corporate account.

Names, email and street addresses, phone numbers, and birth dates were compromised, but thankfully, passwords were stored in encrypted form.

Home Depot (2014)

In September 2014, Home Depot admitted that it fell prey to hackers who installed antivirus-evading malware on its self-checkout registers. An estimated 56 million sets of customer payment card data were stolen in the attack.

The company’s losses related to the event are expected to top $1 billion when all of the lawsuits are finally settled. Only $100 million of that will be covered by insurance.

JP Morgan Chase (2014)

The September 2014 breach of JP Morgan Chase proved that even the largest U.S. banks are vulnerable to data theft. Online banking login details were not stolen, but crooks did get their hands on 76 million sets of names, emails, addresses, and phone numbers of bank customers, creating serious phishing concerns.

A group of Russian hackers is believed to be responsible for the attack.

PNI Digital Media (2015)

PNI Digital Media, the company that handles online photo printing for CVS, Walgreens, Rite Aid, Costco, and many more national chains, lost an unknown number of customer records to hackers in 2015.

Given that the company boasted more than 18 million transactions in 2014, it’s likely that this breach affected tens of millions of Americans.

Heartland (2008)

Credit and debit card processing firm Heartland Payment Systems became one of the largest data breach victims in U.S. history when hackers compromised more than 130 million accounts in 2008.

The criminal ring involved in the Heartland data theft was also found to be responsible for the 2005 hack of TJX Companies involving 94 million records.

TJX Companies (2005)

In a 2005 scheme dubbed “Operation Get Rich or Die Tryin,” a group of hackers used an unsecured Wi-Fi network at a Marshalls store to break into parent TJX Companies’ computer system and steal 94 million customer records, including payment card data.

Albert Gonzalez, the ringleader of the hack, is serving a 20-year sentence in Leavenworth.

U.S. Office of Personnel Management (2015)

Earlier this year, the United States Office of Personnel Management admitted that hackers had taken 21.5 million records belonging to those who had undergone government background checks or otherwise applied for federal employment. The hackers stole a wealth of sensitive data, including security clearance information and fingerprint data belonging to secret agents.

The Washington Post reported that the attack is believed to have originated in China.

Zappos (2012)

In January 2012, online shoe retailer Zappos stated that cybercriminals had stolen data of 24 million customers, including names, addresses, and the last four digits of their payment cards.

After the announcement, Zappos had to disconnect its phone lines to keep upset customers from calling in and overloading its phone system.

Have questions?

Get help from IT Experts/Microsofts Cloud Solutions Partner
Call us at: 856-745-9990 or visit: https://southjerseytechies.net/

South Jersey Techies, LLC is a full Managed Web and Technology Services Company providing IT Services, Website Design ServicesServer SupportNetwork ConsultingInternet PhonesCloud Solutions Provider and much more. Contact for More Information.

To read this article in its entirety click here.

Fifth-Generation Wi-Fi Is Coming

We’re on the verge of the biggest change in wireless networking since 2007. Fifth-generation Wi-Fi technology promises to deliver faster-than-cable speed–without the cables.

If your business has kept pace with changes in wireless networking, you’ve deployed dual-band routers and client adapters that can stream encrypted data over the airwaves at speeds greater than 100 megabits per second at relatively close range.

But no good deed goes unpunished. New hardware based on the nearly finished 802.11ac standard is about to debut, and it will make your existing wireless infrastructure feel as though it’s mired in molasses.

Though the standards body responsible for defining 802.11ac hasn’t finished dotting all the i’s and crossing all the t’s yet, semiconductor manufacturers Broadcom and Qualcomm Atheros are already sampling 802.11ac chipsets (Broadcom has labeled its effort “5G Wi-Fi”). Both companies are closely involved in defining the standard, and they promise to deliver firmware updates to correct for any minor changes that may creep into the standard between now and the moment it is ratified (probably later this year or early in 2013).

Wondering how the IEEE moved from 802.11n to 802.11ac? The standards body uses a new letter suffix to identify each new technical paper related to the 802.11 project, so the logical follow-ons to 802.11z were 802.11aa, 802.11ab, and now 802.11ac. The standard is dubbed “fifth-generation Wi-Fi” because it’s the fifth generation of the technology that will be certified by the Wi-Fi Alliance marketing consortium. At the risk of muddying the waters, there is an 802.11ad standard in the works, but it’s not the next step in mainstream wireless networking. WiGig, as that standard is known, is a short-range, line-of-site technology that uses the 60GHz frequency band to stream media.

Unlike 802.11n networking hardware, which can use either the 2.4GHz or the 5GHz frequency bands, 802.11ac devices will operate exclusively on the 5GHz band. The 2.4GHz band delivers better range, but Wi-Fi data streams that use it must compete with a multitude of other devices that operate at the same frequency–everything from microwave ovens to Bluetooth headsets). The 5GHz band contains many more available channels; and in the 802.11ac standard, each of those channels is 80MHz wide, versus the 40MHz width specified for channels under the 802.11n standard.

Trendnet’s TEW-811DR router will support 802.11ac.What’s more, 802.11ac will use a modulation scheme that quadruples the amount of data that will fit on an encoded carrier signal. The maximum bandwidth per spatial stream in 802.11n is 150 mbps, which means that an 802.11n router outfitted with three transmit and three receive antennas can deliver maximum theoretical throughput of 450 mbps. In contrast, the maximum bandwidth in 802.11ac jumps to 433 mbps per spatial stream, and the maximum number of spatial streams increases from three to eight. So the theoretical maximum throughput on an 802.11ac network will eventually be several times that of gigabit ethernet. First-generation devices, however, will be limited to using either two or three transmit and receive antennas to deliver a theoretical throughput maximum of 866 mbps or 1.3 gbps).

As we’ve seen with 802.11n networks, real-world throughput will likely be one-third to one-half as fast as the theoretical maximums. Still, even mobile devices outfitted with 802.11ac chipsets and just one transmit and one receive antenna–think smartphones and tablets–should be able to handle more than twice the bandwidth that today’s devices with 802.11n chipsets can manage. With bandwidth-intensive applications such as videoconferencing and Customer Relationship Management (CRM) moving from the desktop to smartphones and tablets, 802.11ac networks will become essential infrastructure elements for businesses large and small.

One means of overcoming the 5GHz band’s shorter range with 802.11ac chipsets will be to utilize transmit and receive beam-forming technology. Beam forming was an optional and non-standardized element of the 802.11n spec. In the 802.11ac standard, beam-forming will remain an optional feature, but its implementation will be standardized. Most of today’s 802.11n devices use omnidirectional signal transmission and reception. Signals propagate in a series of concentric rings, like the ripples you create by dropping a stone in a pond.
With beam forming, the router and its clients develop an awareness of each other’s relative location, so they can coherently focus their transmission streams at each other. Without beam forming, reflected signals may arrive out-of-phase and cancel each other out, reducing total bandwidth. A beam-forming chipset can adjust the signals’ phase to overcome that problem, thereby substantially increasing usable bandwidth.

The first generation of 802.11ac routers, such as the Trendnet TEW-811DR, will be concurrent dual-band models that support 802.11n clients on the 2.4GHz frequency band and 802.11ac clients on the 5GHz band. These devices are likely to reach the market in the third quarter of this year. Laptops with 802.11ac chipsets should arrive in time for the winter holiday season, with mobile devices such as smartphones and tablets following in early 2013. The Wi-Fi Alliance, which has assumed responsibility for ensuring that wireless networking products interoperate properly, plans to begin its 802.11ac certification program in early 2013.

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