Remove the Lag from DOTA 2

Many players face this problem, the LAG problem and its sux..!!!!
now i will show you how to remove it very fast very efficient, please follow the video step by step,,,, subscribe... :)

  >>>>>>>If you have a userconfig.cfg in that directory, open it. If you do not already have a userconfig.cfg:
Right-click in the folder
Go to: New>  Text Document
Rename the file userconfig.cfg
Open the file with Notepad
Type into the document clientport 270XX where XX are the last two digits of the clientport number. Acceptable values include 05 - 19 and 21 - 32
Save your userconfig.cfg
Launch your game 

Intel 18 Core and 36 Thread “Xeon E5-2699 V3″ CPU Spotted And Tested

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        Everyone knows that Intel’s Xeon processors offer a crazy level of CPU performance: the current flagship part, the E5-2697 V2, has a whopping 16 cores and 32 threads. With Haswell-EP, that’s the next generation of Xeon CPUs taking advantage of Haswell architecture instead of the current Ivy Bridge-EP based parts, that max core count gets bumped up to 18 cores and 36 threads. The new flagship part, the E5-2699 V3 has been spotted and it has a staggering 18 cores, 36 threads and 45MB of L3 cache running at 2.3GHz with a 145W TDP. 

       Interestingly this CPU has popped up at an Italian retailer selling for €3960.26 with alleged availability from June 12th. What’s even more interesting is that the same CPU part has shown up on the Chinese Chiphell forums giving an indication of its performance, which you can see below. Note that the below image is indicative of a dual CPU socket motherboard hence why the counts of cores and threads are doubled.

There are more details on other Haswell-EP parts that suggest there will be a:

• Intel Xeon E5-2690 V3 which has 8 cores, 16 threads and a 2.9GHz clock speed
• Intel Xeon E5-2692 V3 which has 12 cores, 24 threads and a 2.0GHz clock speed
• Intel Xeon E5-2695 V3 which has 12 cores, 24 threads and a 2.2GHz clock speed

Those CPUs have shown up at Chinese retail site Taobao and you can find those here, here and here respectively. Intel’s Haswell EP platform will be the first Xeon platform to take advantage of native Quad Channel DDR4 support with a base support speed of 2133MHz which is a bump from the DDR3-1866 of the current Ivy Bridge-EP platform. Haswell-EP will get a third revision of the LGA 2011 socket expected to be called LGA 2011-3. The processors for this socket will range from 70W to 145W in TDP with special 160W workstation parts. Rumour has it that the new Haswell-EP Xeon line up is likely to be released at Intel’s IDF 2014 event on the 9th-11th of September. However, given the information provided by certain retailers we may indeed see these parts sooner.

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This article was copied from eteknix.com  thnx for them

Forget fillings, scientists just discovered how to regrow full teeth using lasers...!!!

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      Good news for all you taffy addicts and crystal meth smokers out there — a Harvard-led team of scientists has just devised a way to regrow teeth. If developed further, this technology could spell the end things like fillings and dentures, and even lay the groundwork for other regenerative procedures like wound healing, bone regeneration, and more.

      Published yesterday in the journal Science Translational Medicine, the procedure used to achieve this tooth regrowth sounds like it’s taken straight out of a science fiction novel. The team used a low-power laser beam to trigger human dental stem cells and encourage them to form dentin: the hard, bone-like tissue that lies underneath a tooth’s enamel and makes up the bulk of a tooth’s mass.

     This is groundbreaking because up until now, stem cells –undifferentiated cells that have the ability to become different, more specialized types of cells– have proven difficult to manipulate with much precision. Scientists have long been fascinated with stem cells because of their potential to repair or replace damaged or worn out tissues, but generally speaking, medical researchers have struggled to figure out ways to coax them into becoming the specific types of cells, like dentin or skin, for example. 

     Pinning down the mechanism that causes a stem cell to transform into a particular type of new cell is tough. Previous techniques required scientists to isolate stem cells from the body, manipulate them in a lab until they grew into the particular kind of cell that was needed, and then return them to the body. Not only are these methods difficult and time-consuming, but they also face a number of regulatory hurdles, so progress in this area has been relatively slow.

     This new laser-based method, however, is considerably faster and vastly less invasive. Furthermore, the new technique was proven to work on multiple lab and animal models, which is extremely promising. We’ll let you dig into the technical details on your own, but the big takeaway here is that this was a big step for stem cell research, and will hopefully accelerate the pace at which next-gen restorative medicine is developed.

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This article was copied from digitalrtends.com  thnx for them

The lowdown on DDR4 RAM: When will it get here, and what will it do once it arrives?

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         Over the past few years, nearly every PC component, including storage drives, graphics accelerators, motherboards, and CPUs, has seen significant performance updates—everything except the DDR (double data rate)DRAM (dynamic random access memory) chips used as system RAM in our laptops, PCs, servers, and some tablets. The current DRAM standard, DDR3, was launched in 2007, and it has been the primary memory chip used in a wide range of computing devices for most of that time.

How fast is DDR4?

      Later this year, Intel will release its Haswell-based (Haswell-E) X99 chipset with support for DDR4: the new, faster memory chip standard. After being in development for five years, the new chips, which will provide roughly 50 percent more bandwidth, and consume about 30 percent less power. According to Intel, they’ll bedeployed in new motherboards in the “second half of 2014.”

      Not only will the X99 motherboard support DDR4, but it will also host 8-core processors—twice the number in the current Intel Core CPUs. The top DDR4 bus speed will be 3200MHz, compared to DDR3’s 2400MHz, and it will support data transfer rates of up to 3.2 billion transfers per second, which is twice the transfer speed of DDR3. Furthermore, the new chips use only 1.2 volts of power, compared to DDR3’s 1.5 volts. If those benefits aren’t enough, DDR4 also provides improved diagnostic and debugging tools for increased overall reliability.

When will we see DDR4?

        Samsung and a few other chip makers have already started manufacturing DDR4 memory sticks. Samsung Semiconductor says it’s churning out 32GB sticks for the premium server market, as well as what the company claims this is the world’s smallest and highest performing 4GB RAM chip. It’s expected that we’ll start seeing DDR4 chips first in high-end database and enterprise resource planning (ERP) servers, with DDR4-powered laptops and desktops coming to market in 2015. In addition, Samsung announced a low-power version of DDR4 (LP-DDR4) for mobile devices back in January 2014.

       According to the Joint Electron Devices Engineering Council (JEDEC), the organization that sets memory standards, DDR4 also supports deep power down, which allows it to go into a mode of sleep that requires no memory refresh. Plus, it can refresh a single chip on a DIMM, instead of forcing a refresh of the entire DIMM. These, and some other power enhancements, allow DDR4 to use up to 40-50 percent less standby power.

DDR’s last dance

      Most experts believe that DDR4 is the last generation of DDR DRAM that will be made. A few other types of non-volatile memory that can retain data, such as phase-change memory, MRAM (magneto-resistive RAM), and RRAM (resistive RAM), are under development, and look promising.

Phase-change memory, or PCM/PRAM, provides higher read/write bandwidth, higher endurance, and lower latency than DRAM does. According to memory maker Micron, “it [PCM] addresses the growing performance gap between DRAM and nonvolatile memory technologies.”

With faster processors, and soon-to-be-released SATA Express solid state drive technology making our computing devices faster, it won’t be long before we need faster memory to keep up. DDR4 should fill that gap for the immediate future.

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This article was copied from digitaltrends.com   thnx for them