30 World's Most Dangerous in the World

Assalammualaikum wr. wb.
Greetings for all bloggers pal. Internet is now very popular, if not already a staple for humans. Because it is now many crimes committed on the Internet, and one of them is a virus. Be careful in browsing or open certain sites are not yet clear. Because it can contain harmful viruses that will harm us. Here are the most dirty and dangerous sites in the world, in many such sites there are a variety of viruses that can cause a computer or even a cell phone is broken my friend.
List of 30 World's Most Dangerous in the World

     17ebook.com
      aladel.net
      bpwhamburgorchardpark.org
      clicnews.com
      dfwdiesel.net
      divineenterprises.net
      fantasticfilms.ru
      gardensrestaurantandcatering.com
      ginedis.com
      gncr.org
      hdvideoforums.org
      hihanin.com
      kingfamilyphotoalbum.com
      likaraoke.com
      mactep.org
      magic4you.nu
      marbling.pe
      krnacjalneg.info
      pronline.ru
      purplehoodie.com
      qsng.cn
      seksburada.net
      sportsmansclub.net
      stock888.cn
      tathli.com
      teamclouds.com
      texaswhitetailfever.com
      wadefamilytree.org
      xnescat.info
     yt118.com

Well that was a list of 30 most dangerous website in the world, hopefully we do not get stuck on these sites. That's all I am just posting this time, over my lack apologize profusely.
Wassalammualaikum wr. wb.

.: Good Work:.


BY  http://septia-mujizat.blogspot.com/2011/06/30-situs-paling-berbahaya.html

30 World's Most Dangerous in the World

Assalammualaikum wr. wb.
Greetings for all bloggers pal. Internet is now very popular, if not already a staple for humans. Because it is now many crimes committed on the Internet, and one of them is a virus. Be careful in browsing or open certain sites are not yet clear. Because it can contain harmful viruses that will harm us. Here are the most dirty and dangerous sites in the world, in many such sites there are a variety of viruses that can cause a computer or even a cell phone is broken my friend.
List of 30 World's Most Dangerous in the World

     17ebook.com
      aladel.net
      bpwhamburgorchardpark.org
      clicnews.com
      dfwdiesel.net
      divineenterprises.net
      fantasticfilms.ru
      gardensrestaurantandcatering.com
      ginedis.com
      gncr.org
      hdvideoforums.org
      hihanin.com
      kingfamilyphotoalbum.com
      likaraoke.com
      mactep.org
      magic4you.nu
      marbling.pe
      krnacjalneg.info
      pronline.ru
      purplehoodie.com
      qsng.cn
      seksburada.net
      sportsmansclub.net
      stock888.cn
      tathli.com
      teamclouds.com
      texaswhitetailfever.com
      wadefamilytree.org
      xnescat.info
     yt118.com

Well that was a list of 30 most dangerous website in the world, hopefully we do not get stuck on these sites. That's all I am just posting this time, over my lack apologize profusely.
Wassalammualaikum wr. wb.

.: Good Work:.
by http://septia-mujizat.blogspot.com/2011/06/30-situs-paling-berbahaya.html

ffective SEO in a Post-Panda Market: The Rules Have Changed

Like any business, Google’s objective is to provide their users with the ideal experience - that means delivering the information the user is searching for without forcing them to wade through page after page of fluff and garbage. If your ranking has taken a post-Panda nosedive, don’t throw in the towel just yet. Your site can be salvaged, but you’ll have to change your M.O. - no more keyword stuffing, article spinning, or other lazy techniques if you want to show up early in search results.

The Not-So-Secret

Of course, search engines are driven by algorithms. Most of old SEO techniques were based on tricking said algorithm, but Google’s Panda update made that very hard to do. The changes to the algorithm itself are very secret, but here’s one change that’s not - search engine results are now being evaluated by real, live people. Across the U.S., there are scores of evaluators who actually lay eyes on a page and rate how well it answers the search query according to a detailed rubric. Old-fashioned SEO, especially when clumsily done, will almost always get flagged as spam because it doesn’t offer value to the reader.

Out: Keyword Stuffing
In: Organic flow of words

Stop thinking in terms of a single keyword - start thinking of related terms. For example, instead of packing your article with the most possible references to "lose weight fast", use other related phrases like "weight loss", "diet", "exercise" and "fat loss". If your content is written organically, these phrases will pop up naturally. A keyword should never disrupt the flow of a sentence or produce an awkward-sounding phrase.

Out: Article Spinning
In: High-quality, journalistic content

Sure, it’s much quicker to send an article through a spinner, but that almost guarantees your page won’t ever see the light of day. Instead, you need well-written, informative content with listed quality references. The perfect length seems to be about 500 words or so, and pictures, as always, help a lot. Use only primary references to appear more authoritative.

Out: Endless Affiliates
In: Helpful links only

If another site provides information you think your readers could use, link to that page. Otherwise, stop with the affiliates. Google’s new algorithm catches sites with huge affiliate lists and filters them down toward the bottom of the stack. Use social media to advertise your site and gain exposure instead of relying on others’ cast-offs.

Out: General Information Sites
In: Authoritative sites

Other than personal blogs, every website must have a niche. No one site can claim to be an authority on interior design, finance, appliance repair and celebrity hi-jinks. Pick a topic and stick with it, and become the go-to site for anyone needing information on that topic. Choose your topic based on high-ranking trends instead of personal interest if you must, but use authoritative references for every fact you write.

Out: Landing Pages
In: Meaty, informative content

When the user clicks onto your page, he wants to see what he’s looking for immediately. Don’t take him to a list of links, or the only thing he’ll click is the "back" button. Google knows this, and so do those page evaluators we talked about. Don’t get thrown away as spam.

Basically, SEO in the post-Panda world means you have to step up your game. No more cheating, and no more gaming the system. Your stuff has to be honestly good if you want search engine referrals. End of story. If it sounds like too much work to you (and it’s a lot of work), count on running a ghost site because this ship has sailed. By Buzzle Staff and Agencies

How Does Intel Turbo Boost Work?

When a processor is tweaked without add-on hardware to run faster than its base configuration, the result is that instead of processing x number of instructions per second (for which the original design was built), it is now capable of handling x+n instructions per second. In simple terms, it's going to process much more and therefore, faster than what it was built for. Intel's trademarked Turbo Boost Technology enables higher performance by making available an increased processor core frequency, provided some dependency conditions are met. Unlike manual overclocking by manipulating clock speeds on the BIOS, dynamic overclocking is automatic and is based upon constantly evaluating if the dependencies are met, commonly referred to as dynamically assessing headroom. Let us explore these dependencies in detail and find out how the Intel Turbo Boost Technology works.

Working of Intel Turbo Boost Technology and Processor Dependencies
Unlike overclocking which causes overheating of hardware making it prone to damage, Intel Turbo Boost is a technology built into the design of the processor versions that support it. The biggest benefit of this design is faster performance without exceeding the electrical and thermal specifications of the core, thus conserving energy when it is not needed. However, the increased core frequency is constrained by the following factors.

• Estimated processor power and current consumption
• Estimated processor temperature
• Number of active processor cores (they dictate the maximum frequency)

If the current application workload isn't keeping all cores fully busy and pushing right up against the chip's Thermal Design Power (TDP is the maximum amount of power the chip can withstand with help from the cooling systems) limit, Turbo Boost can increase the clock speed of each core individually to derive more performance out of the chip. Under the above constraints of TDP, the processor can increase its clock speed in steps of 133.33 MHz. All active cores in the processor will maintain the same frequency. Whatever power the other two or three cores would have consumed can be redirected over to the active cores, allowing them to run at higher speeds. The highest performance state when requested by the Operating System, activates the Intel Turbo Boost Technology. The operating configuration, platform design and workload parameters dictate how long the Intel Turbo Boost state will be maintained. Under ideal conditions, the technology positively influences the performance of both multithreaded and single-threaded workloads.

Advantages of Dynamic Overclocking
Intel Turbo Boost Technology being a dynamic feature that kicks in when certain conditions are met, the user cannot predict when the system will switch to the "turbo mode". However, it still provides a solution such that there's no compromise involved while choosing a dual core or quad core processor. Dual core processors have greater clock speeds because, the more number of cores in quad core meant increased power consumption and caused overheating. One had to make a choice also between applications that favored dual core or quad core. However, with Intel Turbo Boost, any idle core would go into a lower power state and the active cores would be dynamically overclocked thus eliminating compromise! A new version of Core i7 processor has a feature that enables operation at base clock speed when the system is battery-powered but switches to Turbo Boost, doubling its clock speed, when plugged in.

How to Use Turbo Boost Technology
The important thing to know is that Intel Turbo Boost technology will work only on the following supported processor families.

• i7 mobile and desktop processors
• i7 processor extreme edition
• i7 mobile processor extreme edition
• i5 mobile and desktop processors

In the above processors, the Intel Turbo Boost Technology is enabled by default. A BIOS switch can be used to disable it, however, this is not recommended. There are no further settings available for the user to intervene in the operation, activation or frequency specification of the Intel Turbo Boost Technology. An optimized version of the original Intel Turbo Boost Technology, Intel Turbo Boost Technology 2.0 is incorporated in 2nd Generation Intel core processors, providing even more performance. To view the Turbo Boost in action, you may download a tool known as the Intel Turbo Boost Technology Monitor. The Intel Processor Identification Utility will enable you to view the highest Turbo Boost frequency on the supported processor.

If you're only using your PC for Internet browsing, working on a few word processing and spreadsheet applications and mostly just checking your email, you might not find much use for the Intel Turbo Boost Technology although you may prefer it to manual overclocking. However, if you're mostly working with HD media or video-intensive applications, 3D gaming or multitasking compute-intensive applications, then this on-demand performance technology that intelligently allocates extra processing power to match workload, is as futuristic as it gets.

Traditionally the playing field of gaming enthusiasts and power users, overclocking has found its way into modern-day processors for good. Preset processor clock speeds seem to have become a thing of the past. Adaptive performance of processors to suit the demands of the user in a dynamic and flexible way seems to be the future. By Preeti Sunil

Cloud Computing Vs. Grid Computing: How Do They Differ?

Grid computing was something everyone talked about as "the next big thing" until it was replaced by the term, cloud computing. As some technology enthusiasts predicted, cloud computing did not spell the end of grid computing. It still exists outside the world of buzzwords and news bytes. Before we delve into how they differ, let us quickly refresh our minds with their definitions.

Grid Computing

The concept of grid computing is not new. In a way, it is nothing but parallel or distributed computing; however, the difference lies in the scale and complexity! So imagine parallel processing at a level where instead of sharing one or more resources, each and every computing resource is shared among all the computers within the network (as if they form an interconnected grid). Now imagine that the grid can consist of several different authorized heterogeneous systems, even owned by different organizations! It would be like a huge supercomputer with unmatched processing power, memory capacity and data storage capacity suitable for the most complex computations, but really it is just a network of interconnected computers. As far as the user of a grid computer is concerned, he/she is just using the local computer (now a supercomputer owing to the grid links) unaware of the links contributing to the power and enormous complexity of the network grid or cluster to which that machine belongs.

Cloud Computing

Cloud computing in fact evolved from grid computing and belongs to the same paradigm of load sharing within virtualized resources and providing on-demand computing power in a dynamically scalable fashion. Just as it sounds from their definitions, both cloud computing and grid computing are overlapping concepts. The key emphasis with the Internet-based cloud computing paradigm however, remains in achieving economies of scale in terms of the computing infrastructure utilization. Cloud computing is a buzzword today, mostly because of its commercial viability with regard to businesses being able to offload overburdened IT infrastructures with value-added capabilities. Now you might wonder, if both grid and cloud computing share the same vision of achieving greater computing scalability, are they just fancy technical jargon describing the same technology? Not really. So, how do they differ? Let us study the points of contrast between grid computing and cloud computing.

Grid Computing Vs. Cloud Computing

	Grid Computing	Cloud Computing
Business Model	Typically, grid infrastructures are accessed by multiple, heterogeneous organizations or project teams that typically share a common goal and need access to a virtual supercomputer to work on a single task or a single set of tasks. However, the users or project sponsors would have to bear the enormous cost of setting up and maintaining and monitoring the grid. When compared to accessing a cloud infrastructure that charges only as per consumption of resources, the set-up costs of a grid along with the cost of ownership of resources (like network administration, maintenance staff, etc.) are likely to be phenomenally high.	A customer accessing a cloud infrastructure or service will pay the cloud provider on a pay-per-use basis. The business model relies on optimizing utilization such that the cost makes sense for the customer as well as brings profits to the provider. We can perhaps associate it to the use of utilities such as electricity, gas, etc., or purchasing in bulk, but only when there's a requirement or demand. The benefit is in achieving economies of scale. It's independent of whether the task requires computational power or increased storage capacity. The customer is ideally not involved with the building or maintenance of the cloud infrastructure or services. This feature of abstraction is common to both grid computing and cloud computing.
Computing Model	Grid computing does not have universal standards with regard to configuration of systems and software. Some software and most algorithms and codes require major restructuring in order to use all the benefits of "parallel processing" available with grid computing. Even data communication protocols are grid-specific. Since most resources are being shared, network congestion control, fairness in allocation, reduction in latency, etc., are factors governing the development of grid protocols. Standard protocols are just not agile or flexible to support grid infrastructures.	Cloud computing has a more commercial focus and is therefore, more flexible when compared to the grid model. For example, expansion of a business requiring more resources is as easy as informing your provider to avail their seamless and mostly automated expansion services. Even writing a new code etc., becomes less time-consuming with the use of generic software. Existing protocols such as Web Services (WSDL, SOAP), and some advanced Web 2.0 technologies such as REST, RSS, AJAX, etc., can be utilized in cloud-based systems.
Security	We have already seen that the grid infrastructure comprises diverse configurations and platforms. Hence, the security for such a system would be a consideration right from the setting up of the grid. Important factors considered are authentication (single sign-on), authorization, credential, conversion, auditing, and delegation. Typically, a grid infrastructure has operational autonomy which ensures greater security controls and protocols. However, providing a security layer to a grid infrastructure is a time-consuming process.	For obvious reasons (relative homogeneity of cloud systems), cloud security models are relatively simpler and less secure than that of grid computing. It is a matter of mutual understanding where the provider ensures protection of the customer's data and applications. Private cloud (where the infrastructure is dedicated to a single customer) and community cloud (cloud infrastructure shared between a finite set of multiple customers) are effective ways to restrict access to authorized, limited number of users. Cloud infrastructure typically use Web forms (over Secured Sockets Layer (SSL)) to create and manage account information for end-users. Encrypted communications ensure secure identity and password management.
Some Potential Issues	- Is there a possibility of lesser complexity in building grids? - Is there a possibility of developing ubiquitous standards for grid infrastructure?	- Does the cloud provider have a disaster management and recovery mechanism in place to deal with loss of customer's data? - Is there a backup/contingency plan in case of disasters to ensure business continuity? - What if the cloud provider exits the business or is acquired by another company, what happens to the customer's data and cloud operations?
Examples	- The European Organization for Nuclear Research (CERN) is one of the leading organizations running major grid computing initiatives including analyzing chemical compounds in the search for potential drugs for diseases such as avian flu. - SETI (Search for Extraterrestrial Intelligence) @Home project is one of the earliest grid initiatives that downloads and analyzes data from radio telescope. Participants simply need to download and run a program to join the grid network.	- Salesforce.com, Google App Engine, Microsoft Azure, and Amazon EC2 are famous cloud providers in the public domain (they provide services to anyone who needs them over the public Internet). - Other service providers include the open source AbiCloud, Elastichosts and NASA's Nebula platform.

From the above discussion of contrasting factors between grid computing and cloud computing, it is clear that it's not a simple matter of choosing one over the other. The trade-offs involved relate to which functionality is most suitable over the other. It seems as though cloud computing is more suited to businesses looking to derive value out of their IT operations in a streamlined fashion. The agility that comes with utilizing services from the cloud complements its scalability. The grid computing paradigm on the other hand, has been the traditional arena of funded scientific research although there are emerging instances of its use in biomedical, financial and industrial research. It now finds applications in weather modeling and weapons test simulations. In fact, web serving (serving requests of website content from users located all over the world) is an example of a commercial application that benefits from the grid infrastructure.

Both computing paradigms are revolutionary; however, they're both still immature. Their scalable properties are as promising as is their ability to provide on-demand resources. However, both are struggling to battle their inherent weaknesses and emerge as viable commercial options for businesses. Experts across the board agree that while cloud computing will not replace grids, they might merge and few even imagine the possibility of a World Wide Grid! By Preeti Sunil

How to Tweet Tolerably

Okay, so you jumped on the Twitwagon and decided to begin narrating your life in 140-character blocks. That’s great (welcome to the 21st century), and I’m sure your friends are champing at the bit - but that doesn’t mean you can just Kutcher up the Twitterverse and expect to gain fame and fortune.

The great thing about Twitter is that it can be whatever you want it to be - a diary, a marketing platform, or just a way to stay in touch throughout the day. You are late to the party however, so there are certain unwritten rules established within the community (who can be as unforgiving as the rest of the internet). Breaking the rules doesn’t get you penalized in any official way, but it makes you an annoying feed-clog that people will unfollow, fast.

Don't Tweet the Minutiae

Hold the play-by-play. Nobody needs to know that you have a #headache, or you’re drinking a venti latte at #Starbucks, or that you lost your #keys. Your tweets should be interesting to others, so install a filter between your brain and your Twitter finger. Process your thought for a second - if somebody else tweeted this information, would you shrug and move on, or would you retweet it? If it’s the shrug, don’t bother.

Don’t Flood Feeds

Just as bad as tweeting things nobody cares about is the over-tweeter. Nothing will get you unfollowed faster than sending several dozen tweets per day. If you really have that much to say, Twitter isn’t the right platform. Start a blog or at least a Tumblog and use that as a platform for your expositions on the topic of the day. Hey - you could still use Twitter to promote the blog.

Keep the Private Stuff Private

Again, part of this rule falls under the minutiae bit (the TMI sub-clause) - nobody needs to know the details of your tampon usage or just what was in Junior’s diaper this morning. Ever. Unless they’re a doctor, and you’re sitting on the exam table in front of them. There are things though, that although not terribly disturbing, are not really for everyone’s eyes. In these cases, use the Direct Message (DM) feature to send a message to the one person your tweet concerns.

Don’t Steal Thoughts

Occasionally, you will find humor, wit and wisdom on Twitter. Share it with your friends by all means - but give the creator credit. Use the Retweet (RT) function to quote verbatim, or paraphrase and acknowledge the source with a via. While we’re on the subject of credit, if you tweet something you heard somewhere, credit the source with a HT (Hat Tip) to lend credibility (or not) to your statement.

Don’t Just Collect People

Sure, you want to follow your favorite celebrities, and all your friends, and your various Twitter-aware family members, and the strangers who have recognized your brilliance and followed you (that’s only polite, right?), but seriously. If you follow a thousand people, and each of those people tweets only once every day, that’s a thousand tweets in your feed. Every single day.

That’s a part-time job, and you don’t get paid, and most of it is boring. Celebrities and companies who have huge swathes of followers actually hire people whose only job is to keep the Twitter thing going. Lots of those tweets are actually written by some intern, not the actual person. So follow out of genuine interest, not obligation - and don’t feel bad about unfollowing someone who’s proven to be less interesting than your curiosity supposed.

Feeling confident? These are only the very basic rules that keep Twitter from being irritating - there are hundreds of tinier, stickier rules for the various subsets of users. Get your feet wet before you scare yourself off with the rigidity of this supposedly "anything goes" platform. Your followers will let you know when it’s time to hone the focus. By Buzzle Staff and Agencies

Liquid cooling systems have been used to cool cars since eons and seemingly, it also happens to be the way

to cool your computer. Yes, it is true that computers today are designed to emit less heat, but integrated circuits are integrated circuits; they are bound to radiate heat in generous proportions. The joys of overclocking are way too many to be caged under the restriction of heat generation. Having yawned over air coolers, it is time to move on to a slicker option - that is liquid cooling.

Components of a Liquid Cooling System

The liquid coolant comes first, and a popular option is distilled water. Chemical additives (antifreeze solutions) give it that snazzy color and help lower the temperature of the water, increasing its effectiveness. An interesting variant is liquid nitrogen. With a boiling temperature of -196°C, it beats water in every aspect. But the recommended use of liquid nitrogen is strictly for smaller overclocking sessions. A reservoir is the tank that stores the coolant. You need a pump that helps the liquid to flow smoothly. This pump is available in variations that help you fix it outside the reservoir, or submerge it. The radiator is used to absorb the heat from the coolant and dispel it outside the unit. The tubes connect the reservoir to the water blocks. Water blocks are attached to the CPU, or if you wish, to the chipset and the GPU. These blocks hold the cool liquid, and their base is made of metal. Position them on top of the part that needs cooling, and apply a layer of thermal paste in between to accelerate heat transfer.

Here's how it works. The reservoir contains the coolant, which is pumped to the cooling block attached to the CPU and/or GPU. Having cooled the part, the heated liquid will flow through the outlet, back into the reservoir to be re-cooled for the second cycle. Before you begin, note that there are two methods of cooling.

• The internal method, as the name suggests, has the cooling system installed inside the PC case. Your PC case must obviously be big enough to accommodate all the components and avoid any cramping.
• The external method is the exact opposite, so you'll have to deal with a system that will be eating up a lot of space on your desk, and will seem tedious for those of you who keep shifting their computers. It is, however, perfect for extremists who are looking to push all boundaries.

How to Install a Liquid Cooling System

Having understood the components and the working principles, let's look at the step-by-step instructions to install a liquid cooling system for your PC.

Draw a Design
As mentioned before, an ideal way to create a cooling system is to customize it. What works for a computer can't necessarily suit another. So, the very first step would be to gauge your requirements and draw a basic design that covers all your needs.

Attach the Radiator and Reservoir
The radiator is installed on a large fan grate, just like a regular fan case. All you need to ensure is that the fans blow the hot air outside the PC case. The reservoir is next. You are free to install it inside the case on top of the drive bay, or outside. You must keep your refilling convenience in mind.

Install the Cooling Block
The cooling block sits on a support bracket behind the CPU. You must now remove the motherboard and detach the heat sink from it. Install the mounting units that will hold the cooling blocks for the CPU and the chipset. Clean the area of any residual thermal paste. Before you mount the cooling blocks, you need to decide if you want to attach the pipes right away or after. Be very cautious when you mount the water blocks, make sure they sit nice and easy, as applying extra pressure can cause damage. Similarly with the GPU, you must remove the heat sink before installing the water block. You have to start connecting the pipes as per your design, keeping the direction of the flowing coolant in mind.

Bring in More Pipes
Cooling the CPU remains a priority for most, but here we're looking at a scenario where you would be cooling the chipset and the GPU too. If you have one pipe that takes the coolant to every part, the one that is last in line will perpetually receive heated liquid, and this is unfortunate. Ideally, separate pipes should lead to every component, negating the risk of the last part being heated instead of cooled.

Final Touches
As you're done with the installation, it is time to fill the reservoir with the coolant of your choice. Follow the instructions meticulously, avoid spilling or over filling at all costs. In any case, keeping a stack of tissues is a good idea for emergency mopping. Now start the system and monitor the flow of liquid. Air bubbles can cause problems at this stage, so you need to sway your PC slightly to get rid of them. If it all appears to be dry, it is time to boot your computer.

What Makes Liquid Cooling Special

Liquid cooling scores on the grounds of excellent thermal conductivity and high heat capacity. With a heating capacity that is four times that of air, water as a coolant, wins hands down. Unlike air, when you have a substance that sops in the heat without heating itself too much, you don't have to think too much before installing it. But before you get down to installing a system like this, it would be prudent to keep certain factors in mind.

• For starters, a liquid cooling system is expensive. These days, they thankfully come in kits, a far cry from the times when one needed to source individual spares that matched the computer's specifications.
• Maintaining a system like this requires a great degree of dedication as liquids and electrical devices are not the best of friends. With so many components in place, you need to watch out for trouble.
• If you happen to be one of those ill-fated ones who have any liquid spill on the motherboard, the entire nerd community's sympathies would rest with you.
• A cooling system is unique to every PC, and the user is in the best position to configure the one that suits it best. While the CPU is the undisputed heat generator, it would be a good idea to include the GPU and the motherboard chipset as well.

All said and done, liquid cooling rules and it is instrumental in keeping your PC happy even when it's overworked, sans the whirring fans.

Installing a liquid cooling system would, once upon a time, win you a place in the upper echelons of geekdom. The availability of ready kits has dimmed the significance of it of late, but a true geek always reaches out to the customized versions. Also, new age processors are not furnaces like they used to be. But for those who overclock, a liquid cooling system is a blessing, and a 'quiet' one at that. By Renuka Savant