<?xml version="1.0" encoding="utf-8"?>
<feed xmlns="http://www.w3.org/2005/Atom">
	<title>Views@Intel</title>
	<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/" />
	<link rel="self" type="application/atom+xml" href="http://blogs.intel.com/views/atom.xml" />
	<id>tag:blogs.intel.com,2008:/views//8</id>
	<updated>2008-01-05T01:32:30Z</updated>
	<subtitle>Unique perspectives from the inside</subtitle>
	<generator uri="http://www.sixapart.com/movabletype/">Movable Type Enterprise 1.53</generator>
	
			<entry>
			<title>So Long, and Thanks for All the Fish.</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/08/goodbye_and_thanks_for_all_the.php" />
			<id>tag:blogs.intel.com,2007:/views//8.763</id>
   
			<published>2007-08-17T18:57:29Z</published>
			<updated>2008-01-05T01:32:30Z</updated>
   
			<summary>Just a quick post to say that we are going to be moving all new &amp;#8216;Views@Intel&amp;#8217; content from the &amp;#8216;Views&amp;#8217; blog into the &amp;#8216;Technology&amp;#8217; blog to streamline things a bit - so head over here for all your usual tech...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Just a quick post to say that we are going to be moving all new &#8216;Views@Intel&#8217; content from the &#8216;Views&#8217; blog into the <a href="http://blogs.intel.com/technology/">&#8216;Technology&#8217; </a>blog to streamline things a bit - so head over <a href="http://blogs.intel.com/technology/">here </a>for all your usual tech news, info and loveliness. </p>

<p>Reminder to the millions of you who have RSS&#8217;ed (ok, both of you) to update your readers. </p>

<p>Nick</p>

<p>PS: For those of you who are not geeky enough to understand the title of the blog, I suggest you investigate the 4th book in Douglas Adam&#8217;s trilogy: Hitchhiker&#8217;s Guide to the Galaxy.</p>
]]>
				

									
				
										Comments (0) (closed)
					
			</content>
		</entry>
			<entry>
			<title>Sprinter Ad</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/07/sprinter_ad.php" />
			<id>tag:blogs.intel.com,2007:/views//8.705</id>
   
			<published>2007-07-31T23:28:31Z</published>
			<updated>2007-08-04T03:47:18Z</updated>
   
			<summary>Intel&amp;#8217;s intent of our ad titled &amp;#8220;Multiply Computing Performance and Maximize the Power of Your Employees&amp;#8221; was to convey the performance capabilities of our processors through the visual metaphor of a sprinter. We have used the visual of sprinters in...</summary>
			<author>
				<name>Nancy Bhagat</name>
				
			</author>
			
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Intel&#8217;s intent of our ad titled &#8220;Multiply Computing Performance and Maximize the Power of Your Employees&#8221; was to convey the performance capabilities of our processors through the visual metaphor of a sprinter. We have used the visual of sprinters in the past successfully. </p>

<p>Unfortunately, our execution did not deliver our intended message and in fact proved to be insensitive and insulting. Upon recognizing this, we attempted to pull the ad from all publications but, unfortunately, we failed on one last media placement.</p>

<p>We are sorry and are working hard to make sure this doesn&#8217;t happen again.</p>

<p>Nancy Bhagat
Vice President, Director of Integrated Marketing</p>
]]>
				

									
				
				
				
										Comments (107)
					
			</content>
		</entry>
			<entry>
			<title>Caneland, Caneland everywhere!</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/07/caneland_caneland_everywhere.php" />
			<id>tag:blogs.intel.com,2007:/views//8.695</id>
   
			<published>2007-07-24T18:55:00Z</published>
			<updated>2008-02-29T20:35:19Z</updated>
   
			<summary>This quarter will see the launch of Intel’s latest MP platform codenamed ‘Caneland’. MP means ‘multi-processor’ and refers to servers that can support 4 or more processors. Caneland is the platform name and is composed of the Tigerton processor and...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="caneland" label="caneland" scheme="http://blogs.intel.com/views/tag" />
									<category term="core" label="Core" scheme="http://blogs.intel.com/views/tag" />
									<category term="processor" label="processor" scheme="http://blogs.intel.com/views/tag" />
									<category term="tigerton" label="tigerton" scheme="http://blogs.intel.com/views/tag" />
									<category term="xeon" label="Xeon" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>This quarter will see the launch of Intel’s latest MP platform codenamed ‘Caneland’. MP means ‘multi-processor’ and refers to servers that can support 4 or more processors. Caneland is the platform name and is composed of the Tigerton processor and the Clarksboro chipset. First publicly demonstrated in October of 2006 and based on Intel’s Core microarchitecture, Caneland is expected to be the world’s 1st quad-core volume MP server platform in the market. </p>

<p>I caught up with Kirk Skaugen, Intel vice president and General Manager of the Server Products Group last week and asked him some questions about Caneland. See the video here:</p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=4b44cd0a7cf5183e03d90d959f94f66d57af55bf&rf=ev&hl=true" width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>

<p>Kirk spoke openly and frankly and gave out quite a lot of new information; mentioning that Caneland has been shipping since June, talked about how we expect Caneland’s 16 cores to double the performance of our previous MP offering on some workloads. Kirk also gave glimpses into what to expect next year from Intel in this slice of the market.</p>

<p>The Tigerton processor will top out at a frequency of 2.93GHz and will also come in a 50W low voltage flavour - making the prospect of very powerful and very dense blade servers a delicious reality. </p>
]]>
				

									
				
				
				
										Comments (11)
					
			</content>
		</entry>
			<entry>
			<title>Unlocked CPU&apos;s for laptops!</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/07/unlocked_cpus_for_laptops.php" />
			<id>tag:blogs.intel.com,2007:/views//8.680</id>
   
			<published>2007-07-16T17:37:43Z</published>
			<updated>2008-02-29T21:37:16Z</updated>
   
			<summary>Intel just launched an Extreme Edition version of it&amp;#8217;s Core 2 Duo line of mobile dual core processors. This coupled with the recent SLI notebook announcement from Alienware shows just how serious Intel is about upping mobile performance. Next year...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="core2duo" label="Core 2 Duo" scheme="http://blogs.intel.com/views/tag" />
									<category term="extremeedition" label="Extreme Edition" scheme="http://blogs.intel.com/views/tag" />
									<category term="gaming" label="gaming" scheme="http://blogs.intel.com/views/tag" />
									<category term="mobile" label="mobile" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Intel just launched an Extreme Edition version of it&#8217;s Core 2 Duo line of mobile dual core processors. This coupled with the recent <a href="http://www.alienware.com/product_detail_pages/area-51_m9750/area-51m_overview.aspx?SysCode=PC-LT-AREA51M9750&amp;SubCode=SKU-DEFAULT">SLI notebook announcement from Alienware </a>shows just how serious Intel is about upping mobile performance. Next year will also see battery friendly quad core CPU&#8217;s for notebooks, this news should excite Photoshopers everywhere. </p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=211bbc7d823199445b5a63ddfd303dd44a066f73&rf=ev&hl=true" width="317" height="273" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>
]]>
				<![CDATA[<p>As we become more and more mobile, &#8216;good enough&#8217; performance no longer is - sure, you may not need an extreme edition chip to power your email client (but it does run Outlook ever so well) but gamers demand more and more. Anecdotal evidence (ie: me asking my friends) shows that the shift to laptops is lagging among gamers in comparison to the average computer user. Up until only a year or two ago, mobile gaming was as scarce as a big technology IPO in 2002. This is because 50ms worth of lag at the wrong moment, or a sudden drop in frame rates can be the difference between winning or losing a game, and in pro-gaming circles this could cost you tens of thousands of dollars. Nowadays even pro-gamers like the <a href="http://www.four-kings.com/">4Kings </a>regularly use laptops to practice and compete. Some members of the team don&#8217;t even have desktops now.</p>

<p>Add this to the new unlocked Extreme Edition chips + quad core next year and there will be no more reasons to stick to desktops! </p>
]]>
									
				
				
				
										Comments (6)
					
			</content>
		</entry>
			<entry>
			<title>Intel R&amp;D day videos</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/06/intel_rd_day_videos.php" />
			<id>tag:blogs.intel.com,2007:/views//8.644</id>
   
			<published>2007-06-22T18:58:23Z</published>
			<updated>2008-02-29T21:29:09Z</updated>
   
			<summary><![CDATA[As you may have seen in the media, Intel recently hosted its annual R&amp;D day here in Santa Clara. The R&amp;D day is a futuristic showcase introduced by CTO Justin Rattner, followed by roomfuls of various exhibits based on the...]]></summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="dynamicphysicalrendering" label="Dynamic Physical Rendering" scheme="http://blogs.intel.com/views/tag" />
									<category term="raytracing" label="ray tracing" scheme="http://blogs.intel.com/views/tag" />
									<category term="terascale" label="terascale" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>As you may have seen in the media, Intel recently hosted its annual R&amp;D day here in Santa Clara. The R&amp;D day is a futuristic showcase introduced by CTO Justin Rattner, followed by roomfuls of various exhibits based on the research of Intel&#8217;s Corporate Technology Group (CTG).</p>
]]>
				<![CDATA[<p>So without further delay, here are a few highlights from the day:</p>

<p>Terascale chip running at 2 teraflops! (Intel&#8217;s 80 core chip effort you may have heard about)</p>

<p><object width="425" height="350"> <param name="movie" value="http://www.youtube.com/v/aiARDNp66Cw"> </param> <embed src="http://www.youtube.com/v/aiARDNp66Cw" type="application/x-shockwave-flash" width="425" height="350"> </embed> </object></p>

<p>Dynamic Physical Rendering - I think we are showing this technology off 20 years too early :-) </p>

<p><object width="425" height="350"> <param name="movie" value="http://www.youtube.com/v/yjJCGr8F6Fw"> </param> <embed src="http://www.youtube.com/v/yjJCGr8F6Fw" type="application/x-shockwave-flash" width="425" height="350"> </embed> </object></p>

<p>If you liked that last one - you can check out the full video that Jason had running behind him by clicking <a href="http://www.youtube.com/watch?v=bcaqzOUv2Ao ">here</a>.</p>
]]>
									
				
										Comments (0) (closed)
					
			</content>
		</entry>
			<entry>
			<title>From RISC to Reward</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/06/from_risc_to_reward.php" />
			<id>tag:blogs.intel.com,2007:/views//8.643</id>
   
			<published>2007-06-22T15:47:07Z</published>
			<updated>2007-08-01T02:27:15Z</updated>
   
			<summary>Intel recently held a press briefing in San Francisco outlining future Itanium plans. Chief among the nuggets of information where the following revelations:...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="32nm" label="32nm" scheme="http://blogs.intel.com/views/tag" />
									<category term="itanium" label="Itanium" scheme="http://blogs.intel.com/views/tag" />
									<category term="risc" label="RISC" scheme="http://blogs.intel.com/views/tag" />
									<category term="tukwila" label="Tukwila" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Intel recently held a press briefing in San Francisco outlining future Itanium plans. Chief among the nuggets of information where the following revelations:</p>
]]>
				<![CDATA[<p>Tukwila is to feature 4 cores each able to process 2 threads thanks to Hyper-Threading technology, Tukwila will also offer some new RAS features.</p>

<p>Poulson is to going to be built using Intel&#8217;s 32nm process technology and will boast a brand new micro-architecture and feature &#8220;significantly more cores&#8221;. </p>

<p>Kittson is the codename for an Itanium chip in the post Poulson timeframe.</p>

<p>Now all this is very exciting if you are a big iron server guy - but what does Itanium mean for the market? Well, to get the bigger picture we have to go back to the days of the Pentium - when Intel had hardly any play in the server space and an Intel server was a desktop PC turned on its side. </p>

<p>The server world was dominated by big proprietary servers, with the CPU&#8217;s, platforms, OS&#8217;s and applications all designed, built, sold and serviced by the same company. There were several such &#8216;vertical&#8217; players around. Once you bought into their solution - you were effectively locked in, with technical and financial barriers hampering efforts to migrate to an alternate solution.</p>

<p>The PC however had long enjoyed a much more horizontal business model - with many hardware vendors competing for customers using standard off the shelf parts from several OS vendors, applications providers etc&#8230;</p>

<p>In 1995 Intel released the Pentium Pro, and with its ability to be used in dual and quad socket systems, began to bring this freedom of choice to the server market. The result? Intel Xeon and its x86 based competitors now account for the lion’s share of the server market in terms of unit volume. </p>

<p>The big vertical providers that had powered a bygone revolution now moved into the highest end of the server space. This is where Itanium now competes and this is where Itanium and its horizontal business model is continuing to evolve where Xeon left off. If you buy Itanium, you can choose from a number of OEM&#8217;s, a number of OS&#8217;s (including flavours of Unix, Linux and Windows), and from over 12,000 applications. Basically you are free to choose. </p>

<p>If you would like to see the press presentation given by Diane Bryant (Intel VP and Co-General Manager of the Server products Group)? Click below to see it and the Q&amp;A in full.</p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=c6894c64117dbe065a149f2ab346f180fc35f58e&rf=ev&hl=true" width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>

<p>And the Q&amp;A session :</p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=972a0bd68d6ee99f8d029dd057dc126644bbc6be&rf=ev&hl=true" width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>

<p>The presentation Diane used can be found by clicking <a href="http://download.intel.com/pressroom/kits/itanium2/Itanium_pressdeck_061407.pps">here</a>. </p>
]]>
									
				
				
				
										Comments (4)
					
			</content>
		</entry>
			<entry>
			<title>Not all silicon processes are created equal.</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/06/not_all_silicon_processes_are.php" />
			<id>tag:blogs.intel.com,2007:/views//8.640</id>
   
			<published>2007-06-20T22:12:04Z</published>
			<updated>2008-02-29T21:52:56Z</updated>
   
			<summary>There is a lot of talk right now about 45nm – the newest and most exciting step along the Moore’s Law story. (Yes, it IS exciting…) Essentially it means that transistors can be made smaller, and the smallest feature size...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="45nm" label="45nm" scheme="http://blogs.intel.com/views/tag" />
									<category term="gordonmoore" label="Gordon Moore" scheme="http://blogs.intel.com/views/tag" />
									<category term="highk" label="high-k" scheme="http://blogs.intel.com/views/tag" />
									<category term="metalgate" label="metal gate" scheme="http://blogs.intel.com/views/tag" />
									<category term="mooreslaw" label="Moore&apos;s Law" scheme="http://blogs.intel.com/views/tag" />
									<category term="silicon" label="silicon" scheme="http://blogs.intel.com/views/tag" />
									<category term="transistor" label="transistor" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>There is a lot of talk right now about 45nm – the newest and most exciting step along the Moore’s Law story. (Yes, it IS exciting…)</p>

<p>Essentially it means that transistors can be made smaller, and the smallest feature size is only 45nm across, that is less than 200 silicon atoms wide.</p>
]]>
				<![CDATA[<p>Ok, so we have tiny transistors, this means we have space for more of them, and this means more capabilities built into the chips – these could take the form of more performance or other goodness such as virtualization or new instructions. </p>

<p>But Intel has been loud and proud recently about their 45nm transistors – and not just because we are first again. But because our new 45nm transistors are built using revolutionary new materials (a High K gate dielectric and new metal gates) that will allow for faster and lower power devices. So why should anyone care?</p>

<p>Gordon Moore (utterer of the famous law) expressed his excitement quite clearly: <blockquote>“The implementation of high-k and metal materials marks the biggest change in transistor technology since the introduction of polysilicon gate MOS transistors in the late 1960s.” </blockquote>So the biggest change in 40 years! This is to transistors what breaking the sound barrier was to aviation– and does the rest of the industry care?</p>

<p>Well – several companies have been claiming their new 45nm transistors will be as good as Intel’s. When confronted with such assertions, several questions should be asked:</p>

<ul>
<li>Do they have designs for both necessary types high-K/metal gate transistors, both PMOS and NMOS? Hint: you need the full complement to make a chip that will see the full benefits from the new materials; you can’t stick a jet engine on one wing and propeller on the other.) </li>
<li>Have they created any working chips using the new materials? </li>
<li>Will their chips be 100% lead free? </li>
<li>Will their 45nm chips contain high-K metal gate transistors? </li>
</ul>

<p>Thanks to Intel’s new 45nm high-K metal gate transistors process we can pack 2,500 CPU dies onto a single 300mm wafer. These are our recently announced “Silverthorne” low power processors that benefit greatly from energy sipping silicon.</p>

<p>Because only Intel is bringing out truly revolutionary transistors this year, only Intel processors will benefit from the densest, fastest and lowest power mass-produced CPU transistors – and that means better high scores for gamers, better video playback for movie buffs, better server performance, and a longer lasting laptop battery.</p>

<p>See, transistors are now cooler. :-)</p>
]]>
									
				
				
				
										Comments (2)
					
			</content>
		</entry>
			<entry>
			<title>Will Software follow, or even save Moore&apos;s Law?</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/05/will_software_follow_or_even_s.php" />
			<id>tag:blogs.intel.com,2007:/views//8.543</id>
   
			<published>2007-05-27T17:00:10Z</published>
			<updated>2008-02-29T21:25:11Z</updated>
   
			<summary>Software has not kept up with Moore’s Law, and I did not get any disagreement. But will it in the future? Are you bold enough to predict that software will save Moore’s Law? That is what Peder Ulander (VP of...</summary>
			<author>
				<name>Shekhar Borkar</name>
				<uri>http://blogs.intel.com/views/2007/04/profile_shekhar.php</uri>
			</author>
			
												<category term="mooreslaw" label="Moore&apos;s Law" scheme="http://blogs.intel.com/views/tag" />
									<category term="software" label="software" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Software has not kept up with Moore’s Law, and I did not get any disagreement. But will it in the future? Are you bold enough to predict that software will save Moore’s Law? That is what Peder Ulander (VP of Sun Microsystems) and I discussed with the members of the press in a roundtable.</p>
]]>
				<![CDATA[<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=7ea288c7d6fd1e7acfda88d79c86debda4b0191d&rf=ev&hl=true <http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=7ea288c7d6fd1e7acfda88d79c86debda4b0191d&rf=ev&hl=true> " width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>

<p>Things were progressing happily, with processors doubling clock frequency and core complexity every generation, just to feed the voracious appetite of software. Not any more. Frequency and core complexity will barely inch along, but with lots of cores—welcome to the era of multi, and we are now at the mercy of the software to use it effectively. Software, too, now has to follow Moore’s Law. Would you depend on software to follow the law, let alone save it?</p>

<p>There was a lot of skepticism, and I am not surprised. Parallelizing software? Been there, done that, was the overwhelming response. But don’t forget that things are different now. First, there is a compelling reason—there is no other alternative but <em>multi</em> for affordable performance. Second, parallelism is plentiful, but you must go beyond thread level, to task level, and application level to harvest it. And third, there are tremendous advances in software technology in the last ten years. Don’t expect the change to happen over night, it will take years, but we must start now.</p>

<p>We need to look at software a lot differently, as Peder points out, and I completely agree. Look at it beyond a piece of code running on your computer, think about it as a service provider. Look at it as a whole system, integrated with the platform and the hardware. Start influencing Universities with the new outlook to educate future crop of software engineers. </p>

<p>Why go through this trouble, what is the killer app they ask! I think I’d rather attempt to predict <em>the meaning of life</em> before predicting the killer app! Killer apps evolve, they are not planned. You will know it only when it emerges and succeeds. Don’t try predicting it, it will lead to nowhere.</p>
]]>
									
				
				
				
										Comments (3)
					
			</content>
		</entry>
			<entry>
			<title>How bright is the future of Moore&apos;s Law?</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/05/how_bright_is_the_future_of_mo.php" />
			<id>tag:blogs.intel.com,2007:/views//8.518</id>
   
			<published>2007-05-20T22:14:05Z</published>
			<updated>2008-02-29T21:22:46Z</updated>
   
			<summary>Every now and then you hear a pessimist predicting demise of Moore&amp;#8217;s Law. It is too difficult, if not impossible to continue they say, give several compelling scientific and economic arguments, is the end for real? Hardly&amp;#8230;!...</summary>
			<author>
				<name>Shekhar Borkar</name>
				<uri>http://blogs.intel.com/views/2007/04/profile_shekhar.php</uri>
			</author>
			
												<category term="fab" label="fab" scheme="http://blogs.intel.com/views/tag" />
									<category term="lithography" label="Lithography" scheme="http://blogs.intel.com/views/tag" />
									<category term="mooreslaw" label="Moore&apos;s Law" scheme="http://blogs.intel.com/views/tag" />
									<category term="silicon" label="silicon" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Every now and then you hear a pessimist predicting demise of Moore&#8217;s Law. It is too difficult, if not impossible to continue they say, give several compelling scientific and economic arguments, is the end for real? Hardly&#8230;!</p>
]]>
				<![CDATA[<p>When you say electronics, the first thing that comes to mind is Moore&#8217;s Law, not a law of nature, but a discipline that the industry followed for the last four decades, delivering faster and affordable electronics that we enjoy today and take for granted.  </p>

<p>Moore&#8217;s Law doubles the number of transistors every two years, improves performance, and lowers energy consumption, (all for the same dollar cost)—too good to be true, but it is really true, short of a miracle, and explained by the laws of Physics. A main-frame computer in the 60&#8217;s and 70&#8217;s occupied a floor, consumed kilo-watts of power, cost millions of dollars, but now you have that compute power in your laptop running on batteries, such is the power of Moore’s Law. And now you can see why I am so obsessed by it.</p>

<p>It is true that following Moore&#8217;s law is getting difficult, but when has it not? When I was a graduate student, my professor predicted that Moore&#8217;s Law would end in the 90&#8217;s when it reaches sub-micron dimensions. Did it? In the late 90&#8217;s they predicted demise of Moore&#8217;s Law based on power and leakages, yet the law survived, and now they are making general claims that it will end sometime soon. Gordon Moore gave a keynote at the International Solid State Circuits Conference (ISSCC) in 2003 where he stated that no exponential is forever, but we can delay &#8220;forever&#8221;, and that is the strategy I urge you to follow. Let’s take a look at why it seems so difficult.</p>

<p>First, the laws of physics which helped in the past are now making it difficult to continue. Today&#8217;s transistors are so small that the geometries are approaching atomic limits. For example, the wavelength of light being used to pattern these geometries is much longer than the pattern itself, sort of like trying to shoot a duck with huge cannon! Also at such atomic dimensions, quantum mechanical effects start surfacing and making things difficult overall.</p>

<p>Second, economics of Moore&#8217;s law is getting harder. The cost of a fabrication facility (Fab) is now in billions of dollars. Compare this to the 70&#8217;s when you could afford to build a fab in your garage for a few million dollars, and almost everyone did, it was a fashion then! A mask set (for photolithography) alone now costs more than a million. If you make a mistake in your design, then correcting the mistake would cost you millions of dollars in a new mask set, not to mention months of delay in design and fabrication. Design technology too has advanced over time, but not at the same rate as Moore&#8217;s Law, demanding increasing design resources.</p>

<p>Third, establishing the value proposition to follow Moore&#8217;s Law becomes increasingly difficult. If you double the number of transistors, then what will you do with it, and how does it add value? Difficult to justify following Moore’s Law in the face of growing economic concerns. When the 386 was introduced in the 80&#8217;s, the pessimists claimed that it delivered plenty of compute power, and would not know what to do with a 486. Of course, there was no internet, no world-wide-web, or even windows then, and look what followed! You cannot underestimate creativity, and that is why, I believe that you need both, steady evolution of hardware (compute power), and evolution of value proposition for it, with new users and usages, both evolving hand-in-hand. Expecting to identify a killer-application upfront to establish the value proposition is futile.</p>

<p>Therefore, those who know how to follow Moore&#8217;s Law by bending the laws of Physics, adding value, and making it economical, will succeed. And those who don’t will start falling off pointing fingers at those who do. I am a fighter and am not playing dead. In my subsequent posts, I will highlight how do deal with the three issues one by one, and prove it to you that the future of Moore&#8217;s Law is indeed bright!</p>
]]>
									
				
										Comments (0) (closed)
					
			</content>
		</entry>
			<entry>
			<title>The Less Obvious Hard Parts about Designing Systems with Radios</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/05/the_less_obvious_hard_parts_ab.php" />
			<id>tag:blogs.intel.com,2007:/views//8.510</id>
   
			<published>2007-05-14T17:31:42Z</published>
			<updated>2008-02-29T21:21:56Z</updated>
   
			<summary>The Communications Technology Lab at Intel has a charter that matches its name – we are supposed to look at all the issues around communications for Intel’s future platforms. That’s a pretty broad charter since it means we worry about...</summary>
			<author>
				<name>Kevin Kahn</name>
				<uri>http://blogs.intel.com/views/2007/04/profile_kevin_kahn.php</uri>
			</author>
			
												<category term="80211" label="802.11" scheme="http://blogs.intel.com/views/tag" />
									<category term="80211n" label="802.11n" scheme="http://blogs.intel.com/views/tag" />
									<category term="antenna" label="antenna" scheme="http://blogs.intel.com/views/tag" />
									<category term="ethernet" label="ethernet" scheme="http://blogs.intel.com/views/tag" />
									<category term="lasers" label="lasers" scheme="http://blogs.intel.com/views/tag" />
									<category term="mimo" label="MIMO" scheme="http://blogs.intel.com/views/tag" />
									<category term="photonics" label="photonics" scheme="http://blogs.intel.com/views/tag" />
									<category term="radio" label="radio" scheme="http://blogs.intel.com/views/tag" />
									<category term="uwb" label="UWB" scheme="http://blogs.intel.com/views/tag" />
									<category term="wifi" label="Wi-Fi" scheme="http://blogs.intel.com/views/tag" />
									<category term="wimax" label="WiMAX" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>The Communications Technology Lab at Intel has a charter that matches its name – we are supposed to look at all the issues around communications for Intel’s future platforms.  That’s a pretty broad charter since it means we worry about everything from how security works in Internet protocols, to how to process the packets flying off a fiber in 10Gbps and higher Ethernets into our servers, to future possibilities for integrating photonics and silicon, to how to build radios.  </p>
]]>
				<![CDATA[<p>We tend to talk a lot about some of the more glamorous items like Silicon Lasers and CMOS radios but today I thought it worthwhile to focus on some of the possibly less glamorous but just as important issues around how you actually can build small platforms that integrate lots of radios and have them really work.  It turns out that this is harder than you might think unless you are a radio person (who can probably stop reading now).  Adding communications to a PC used to be as simple as choosing an Ethernet chip to add to the motherboard and writing a driver.  Not that this was that easy but at least the problem was contained to the issues around making the Ethernet chip work and talk to the operating system.  Radio is a bit more magical and is a much more holistic systems problem – one that is substantially different from what PC OEMs traditionally dealt with.</p>

<p>First of all you have the problem space – an almost boundless and growing set of radio standards.  The well dressed platform of the next few years probably comes equipped with a large subset of WiFi, WiMax, Bluetooth, GPS, TV (of a number of sorts), UWB, and various legacy cellular radios.  As if the number of raw standards weren’t enough, these radios will be utilizing radio frequencies from a few hundred megahertz (TV) up through nearly 6 gigahertz (WiFi) or even 10GHz (UWB).  And then there is the alluring 60GHz band that is the next likely frontier for short range communication.  The frequencies make a difference because antennas are generally designed to be specific to bands and a lot of bands could mean a lot of antennas.  What is worse is that more and more of these radio systems are MIMO based which means that they need more than one antenna per band – at least 2 and maybe 4.  Of course at the same time that we are growing the need for antennas we are also finding users looking for smaller, thinner, lighter devices – all this meaning that we are having to cram more stuff into ever smaller spaces.  Finally, there is the complication that antennas don’t always like to live too close to their neighbors.  They can interfere with one another and, in the case of MIMO systems, they need to be spread apart enough to get distinct samples of the signals.  There is yet one more problem with squeezing all these radios into a small space – interference.  One radio can interfere with another radio.  Also, all the other circuits in a high speed modern PC tend to have RF noise as a side effect and can interfere with the radios.  So how do we address all these issues?</p>

<p>Let’s start with the antenna problem.  One could design very broadband antennas so that a single antenna could deal with a very large band of frequencies but this isn’t that effective.  First of all designing such antennas with good response across all the bands is pretty hard.  Worse, the broader the antenna bandwidth the more noise one captures along with the signal.  So the performance of the radio using the antenna tends to be poorer.  The other obvious alternative is to design an antenna for each band but this means lots of antennas to squeeze in, especially when the MIMO systems will need a couple of these per band.  We have been focusing on the third alternative which is to build antennas that can be reconfigured to tune for a set of different bands.  If we can do this we get the noise immunity that comes from a specific band antenna while being able to use one antenna for a number of different bands.  Designing such antennas is difficult in itself since antenna design still has a lot of “art” in it in addition to the science.  It also requires some very good switches to connect parts of the antenna to change its shape and hence sweet spot.  We demonstrated an example of this approach though at our recent IDF in Beijing.</p>

<p>Another aspect of the antenna problem is isolation – particularly when two radios have to operate at the same time where one is transmitting and the other receiving.  We like to talk about radios as though they operate in discreet channels – e.g., we talk about WiFi in channel 6 in the 2.4GHz band.  However, in reality radio transmissions put out energy across all frequencies, usually more in nearby frequencies and less further away, and our designs simply focus the vast majority of that energy into the target band.  Since rather little energy gets emitted outside the “channel” we don’t normally think much about it – but in a small device the transmitting antenna is very close to other receiving antennas so even the small amount of “out of band” emission can be a big problem.  As an example of the difficulty consider that WiFi transmits in the 2.4GHz band while WiMax in the U.S. can operate in the 2.5GHz region.  Even a very well behaved WiFi radio can cause fits for a WiMax receiver in that band on the same platform.  While there are other mitigation approaches to this problem, creating antenna designs that maximize the isolation of one antenna from another can help a lot.  We’ve also demonstrated this sort of design in the recent past.  By the way – lest you think that you’d never need to have both such a WiFi and WiMax radio operating at the same time consider a carrier who wanted to use WiMax for wide area coverage but augment that with WiFi in hotspots to better utilize their precious licensed spectrum.  In roaming from one to the other the client system would need to make a new connection before the old connection broke which would require simultaneous operation.</p>

<p>There are other ways to deal with radio to radio interference.  One apparently simple approach would be to simply not transmit on one band while you were receiving on another.  Unfortunately this is easier said than done because the MAC protocols of the various radio systems were not designed in general for such coordination.  Also, the radios for the various systems may be entirely different chips with no knowledge of one another so trying to coordinate them can be difficult.  Nevertheless, our lab has been working on mechanisms to work within the defined standards to use such approaches to mitigate interference when possible and it is a promising approach for many cases.</p>

<p>The last part of this design problem I wanted to touch on is the problem of interference from the rest of the system.  There are lots of components in a PC that are switching on and off at very high frequencies – think 2+ GHz processors and the like.  All these parts generate RF noise that while low in absolute terms can be really loud from the perspective of a radio that is trying to listen to a very faint signal at about the same frequency.  This can cause the radio to be much less sensitive than it would otherwise be – rather like the problem of listening to someone speak while standing next to some loud piece of machinery.  We have measured the real “noise” in various bands in real systems and found that is can be very non-uniform and spread out with the result that there is often no “quiet” spot to mount a radio component.  In one system we measured for example, the LCD put a lot of noise right on top of the upper channels in the 2.4GHz WiFi band with the result that the system listening range on those channels would have been cut by about half.  These kinds of effects can explain why two systems that use identical radio components may appear to behave very differently in how well they receive an access point’s signal.  Solutions to these problems can involve shielding the aggressor components or shielding the victim radios with metal or other shields.  Of course such shielding can add undesired bulk to small designs.  It can also involve tweaking operating frequencies of other components – for example in the LCD case I mentioned even a small adjustment in the screen operating frequency was enough to move the offending noise to a place where it wouldn’t bother the radios.</p>

<p>Of course, all these issues (and more) are a lot more complex and difficult that I have been able to indicate here – luckily for me I have a lab full of brilliant engineers who specialize in this stuff.  However, I hope that some of you now have at least a somewhat better appreciation for the difficulty involved in putting together the pieces that give you that magical internet access without wires!</p>
]]>
									
				
										Comments (0) (closed)
					
			</content>
		</entry>
			<entry>
			<title>It&apos;s official – Silicon Photonics are ACE. Part 1.</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/05/its_official_silicon_photonics.php" />
			<id>tag:blogs.intel.com,2007:/views//8.500</id>
   
			<published>2007-05-02T23:49:03Z</published>
			<updated>2007-08-15T14:52:13Z</updated>
   
			<summary>Intel and the University of California Santa Barbara recently won the EE Times ACE award for the Most Promising New Technology category. Silicon Photonics technologies use silicon and laser light to transmit and receive data. And there has been a...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
												<category term="future" label="future" scheme="http://blogs.intel.com/views/tag" />
									<category term="lasers" label="lasers" scheme="http://blogs.intel.com/views/tag" />
									<category term="light" label="light" scheme="http://blogs.intel.com/views/tag" />
									<category term="photonics" label="photonics" scheme="http://blogs.intel.com/views/tag" />
									<category term="silicon" label="silicon" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Intel and the University of California Santa Barbara recently won the<a href="http://www.eetimes-ace.com/winners.htm"> EE Times ACE award for the Most Promising New Technology </a>category.   Silicon Photonics technologies use silicon and laser light to transmit and receive data.</p>

<p>And there has been a lot of excitement around the series of recent announcement from Intel, published in publications such as Nature. People generally get excited about technologies that include the word &#8216;Laser&#8217; and making anything smaller is generally cool, but why all the buzz around Silicon Photonics? </p>
]]>
				<![CDATA[<p>In a nutshell, Silicon Photonics has the potential to enable the computer and communications revolution to continue and indeed hit the gas pedal. </p>

<p>Copper is the traditional medium used to move bits and bytes of data around a computer, and this has been so since the beginning of computing. But copper has its disadvantages – think of a copper trace on a circuit board as a big highway – and the electrons are the cars. The cars have to manoeuvre around the copper atoms, slowing them down, causing friction and heat. The copper trace is rarely perfect – it has tiny deformities – further impeding the electron&#8217;s progress, the cars bump into each other, crash about and generally cause mayhem and traffic jams. Essentially this means that there is a limit to how much data you can pump through a bit of copper wire. There are also other issues with copper traces on circuit boards caused by imperfections in the copper traces themselves, and by symmetries in the fibreglass weave used inside the circuit board.  These imperfections can be thought of as pot holes and speed bumps on the highway.  These cause the signal quality quickly to degrade with distance, and any increase in the amount of data you have travelling up and down the trace only increases the traffic. This is why those high quality audio cables you buy in swanky high-end hi-fi shops are so expensive. Of course copper will stay with us for some time to come and Intel is also working on how to increase the bandwidth of copper connections.</p>

<p>Now light in optical fibre behaves very differently. Think of light as one of those new record breaking French TGV trains (or the Spanish Talgo), but built on magnetic rails. Low friction means that the trains can run very quickly and since photons don&#8217;t have to work their way though a lattice of atoms the signal travels very cleanly over much longer distances. In addition, you can send more than one signal down the fibre by using multiple colours (or wavelength) of light. Basically, just add rail tracks and double, triple or quadruple (or more) your total available bandwidth. </p>

<p>So if photonics is such a cool and wonderful solution – why are we not using it yet? Well photonic technologies are in use today – usually to transmit data over very large distances (across campuses, cities and even oceans). But the technology is very expensive. Manipulating light is much harder than manipulating electrons. It has traditionally required the use of very large devices (signal modulators, tranceivers, lasers etc…) using exotic and expensive materials like Gallium Arsenide and Lithium Niobate. Difficult to prounounce, even more difficult to manufacture. They don’t use silicon or the types of manufacturing techniques Intel uses for its chips and thus, these devices are orders of magnitude more expensive to produce than a silicon equivalent.  By the way, silicon is basically sand and is the most abundant material in the earth&#8217;s crust.   </p>

<p>These devices are large, I mean something the size of a matchbox, and by expensive I mean costing up to several thousand dollars. You need hundreds of such devices to make something that can either send or receive a signal. </p>

<p>So why will Silicon Photonics change this? Well very simply – silicon photonics will combine the technologies already in use to make processors out of silicon to make the types of devices small enough and cheap enough to be integrated directly into silicon chips. With all the components necessary built into something the size of your finger nail and costing in the region of tens of dollars. </p>

<p>In my next blog about Silicon Photonics, I&#8217;ll talk a bit about what individual components you would need to make a useful device – and what these devices could achieve in the real world.</p>
]]>
									
				
										Comments (0) (closed)
					
			</content>
		</entry>
			<entry>
			<title>Instruction Set Enhancements</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/04/instruction_set_enhancements.php" />
			<id>tag:blogs.intel.com,2007:/views//8.470</id>
   
			<published>2007-04-12T02:41:03Z</published>
			<updated>2007-08-01T02:27:15Z</updated>
   
			<summary>Moore&amp;#8217;s Law gives me twice the number of transistors every 2 years with each new process generation. My goal is to use those transistors to provide greater customer value, which can come in the form of new capabilities or higher...</summary>
			<author>
				<name>Brady Thomas</name>
				
			</author>
			
												<category term="extensions" label="extensions" scheme="http://blogs.intel.com/views/tag" />
									<category term="instructionset" label="instruction set" scheme="http://blogs.intel.com/views/tag" />
									<category term="microarchitecture" label="microarchitecture" scheme="http://blogs.intel.com/views/tag" />
									<category term="mooreslaw" label="Moore&apos;s Law" scheme="http://blogs.intel.com/views/tag" />
									<category term="performance" label="performance" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Moore&#8217;s Law gives me twice the number of transistors every 2 years with each new process generation. My goal is to use those transistors to provide greater customer value, which can come in the form of new capabilities or higher performance. Examples of new capabilities can range from virtual address extensions (like the 64 bit extensions introduced a few years ago) or new features like virtualization.</p>
]]>
				<![CDATA[<p>Additional performance can be delivered in a variety of different ways. Microachitecture enhancements which provide more computation per clock cycle is one technique. Larger cache also increase performance. Both of these provide additional performance on old binaries.</p>

<p>New instructions with the associated hardware support also provide more performance, but require new software to be written to use those instruction. We have successfully introduced new instructions over the years and will continue to do so in the future.</p>

<p>The challenge is to find something that can be by a wide range of applications or for specific applications like media processing that is widely used.</p>

<p>Once you add a new instruction it is EXTREMELY difficult to take it away. You have keep supporting it forever! Therefore, one must be careful to select functions that will be relevant over an extended period. Fortunately, with increasing densities, the burden of having to keep supporting &#8220;ancient&#8221; features is small.</p>

<p>In recent time we have been able to deliver good performance improvement at a relatively modest increase in transistor count.</p>

<p>Stay tuned for more as I continue this from Beijing. My big challenge tomorrow is getting home from Cleveland to San Jose via Chicago which has snow related delays! Hopefully I will get home in time to pack my bags and pick up my passport for the flight to Beijing for IDF.</p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=4e6a1002bcaf5e8b63caa11f03141fffafafba03&rf=ev&hl=true" width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>
]]>
									
				
				
				
										Comments (6)
					
			</content>
		</entry>
			<entry>
			<title>The revolution will be televised and then switched off</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/04/the_revolution_will_be_televis.php" />
			<id>tag:blogs.intel.com,2007:/views//8.466</id>
   
			<published>2007-04-10T09:20:53Z</published>
			<updated>2007-08-01T02:27:15Z</updated>
   
			<summary>At Intel, my charter is pretty simple and straightforward: provide insights and inspire innovation. My team and I use ethnographic methods and theory, in addition to human factors engineering, cognitive psychology, interaction design and other social science epistemologies to broaden...</summary>
			<author>
				<name>Genevieve Bell</name>
				<uri>http://blogs.intel.com/views/2007/04/profile_genevieve_bell.php</uri>
			</author>
			
												<category term="ethnography" label="ethnography" scheme="http://blogs.intel.com/views/tag" />
									<category term="holidays" label="holidays" scheme="http://blogs.intel.com/views/tag" />
									<category term="homeresearch" label="home research" scheme="http://blogs.intel.com/views/tag" />
									<category term="technodeterminism" label="techno-determinism" scheme="http://blogs.intel.com/views/tag" />
									<category term="vacation" label="vacation" scheme="http://blogs.intel.com/views/tag" />
				
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>At Intel, my charter is pretty simple and straightforward: provide insights and inspire innovation. My team and I use ethnographic methods and theory, in addition to human factors engineering, cognitive psychology, interaction design and other social science epistemologies to broaden and deepen Intel’s understanding of our current and potential customers – all those people beyond the company walls! </p>
]]>
				<![CDATA[<p>We care about how people live, how people want to live, about what matters to them; we strive to understand how technologies are used, understood, and imagined in homes around the world; and finally we seek to foster and develop technologies that provide a seamless fit with — and enhance — cultural, social, spiritual values and practices. (And yes, this is real work, and yes, it is an accepted way of thinking about technology, technology development and innovation. And yes, it is surprising to see this at Intel).  </p>

<p>As my team and I are part of Intel’s Digital Home Group, we focus our energies on the ‘home’ in all its many forms and permutations. It is against this backdrop that I have been thinking about and studying ‘domestic satellites’ – homes away from home, or perhaps more precisely places of homefulness away from one’s primary residence. Think of these as dorm rooms, hotel rooms, hospital rooms, elder care facilities, vacation homes, even recreational vehicles, caravans, tents and perhaps your car or cubicle. All the places where we attempt to recreate some version of ‘home’, however incomplete or perhaps deliberately skewed. </p>

<p>I would argue (riffing on classic critical standpoint theory, and Harding&#8217;s notion of strong objectivity) that these sites, these domestic satellites, can tell us a whole lot about the nature of the home, precisely because they are a version, not the original rendering, of it. We might learn more about what people value, what they care about, and what frustrates them by seeing how they create home-like experiences away from home. Such domestic extensions also seemed likely to yield interesting technology opportunities in and of themselves – devices that would need to withstand long period of dormancy followed by sudden bursts of activities, or those that were energy conscious or aware, or those that have small format factors, high levels of portability and failsafe reliability and security.</p>

<p>We have been particularly interested in the cultural and social practices, material artifacts and technologies in and around these homes away from home. In 2005, home sales achieved new records and were often described as a major engine for the American economy. In the same year, Americans put in record hours on the job, and their leisure time sank to a new all time low. In 2006, the number of second homes purchased in the United States represented nearly <a href="http://money.cnn.com/2006/04/05/real_estate/second_homes/index.htm">40% of total home purchases</a>; approximately 13% of those purchases were for dedicated vaction homes. In much of Western Europe, second home stock is also a growing percentage of overall housing stock, and the culture of long summer vacations is waning, if only slightly. We wanted to know what might be going on here; literally and culturally. </p>

<p><img alt="signSA.JPG" src="/views/signSA.JPG" width="480" height="320" /></p>

<p>Over the last three years, we have conducted a series of small exploratory ethnographic and design research projects amongst American RV’ers, and second home owners in France, Australia and the United States &#8212; Françoise Bourdonnec, <a href="http://www.intel.com/technology/itj/2007/v11i1/1-sideways/9-authors.htm">Alexandra Zafiroglu</a>, <a href="http://www.redassociates.dk/">Michele Chang</a>,   and <a href="http://www.studioincite.com/makingwifi/">Katrina Jungnickel</a> all participated in this research. (And yes, this is real work too!) We have spent time in RV parks, caravan parks, vacation and second homes, bed and breakfasts, and some of the principal residences of second home owners; we have interviewed holiday makers, home owners, and those who provide services to vacations and vacationers. Much of our work is still waiting to be thoroughly analyzed and I anticipate we will publish findings (stayed tuned for that) later this year, but in the meantime, there are lots of interesting insights to share and discuss.</p>

<p>Perhaps most interesting amongst the early findings relate to the nature of daily life. In listening to people talk about their second homes, the things they do there, and the things they do not, it is hard not to hear this almost lament, a kind of nostalgia, or longing for a time when technology didn’t feel quite so overwhelming. Elsewhere I have described this sense of a life driven by technology as a kind of ‘techno-determinism’ – in which technology seems to be ascribed a kind of agency; it becomes its own social force, a social actor even. And for many people that we talked to and interviewed and spent time with, in the course of this project to date, it is this sense of techno-determinism that they are trying to escape. </p>

<p>I wonder, if the more affluent classes, these second homes represent a place where people are taking back their vacations – from email, their cell phones, and the constant demands of a life filled with devices and gadgets and infrastructures. This is not a wholesale rejection of technology, after all these holiday and vacation spots routinely fill with the sounds of radio and television and the stereo. This is not the Luddites smashing the new machines (though there are some great books and articles written on that theme – including this one by <a href="http://www.themodernword.com/pynchon/pynchon_essays_luddite.html ">Thomas Pynchon</a>); though people did have a remarkable affection for old fashion newspapers and books. What this appears to be instead is a reappraisal and redefinition of the technology’s place, at least in one domain of people’s lives. Even when a similar set of technologies is present in both principle and secondary residences, they appear to be approached and imagined differently. Second homes seem to allow people a respite; places where one feels free to let a phone ring unanswered, and to leave email for another day.</p>

<p>And perhaps that is as it has always already been; at least since the Industrial Revolution. Indeed there is a long and honorable tradition of different kinds of holiday dwellings around the world – dachas in Russia, bachs and cribs in New Zealand, cottages in the UK and Canada and vacation homes in America – places to get away from the factory, from the city, from work. What for me is interesting, however, is the ways in which these sites now seem to represent a place to get away not only from work, but the technologies of work and the work of technologies. What is also interesting then is what this starts to say about how we might think about our homes – have they become so overly embedded with information, communication and entertainment technologies, that we feel we need to go somewhere else just for a little down time? And if that is one of the findings, what should a multinational company that produces technology and technology visions do with such an insight?</p>

<iframe src="http://intelpr.feedroom.com/linking/index.jsp?skin=oneclip&fr_story=7e5cfce8156e42b27a3884fee6bc51a56fdf3a84&rf=ev&hl=true" width="320" height="277" scrolling="no" frameborder="0" marginwidth="0" marginheight="0" ></iframe>
]]>
									
				
				
				
										Comments (6)
					
			</content>
		</entry>
			<entry>
			<title>1st Post!</title>
			<link rel="alternate" type="text/html" href="http://blogs.intel.com/views/2007/04/1st_post.php" />
			<id>tag:blogs.intel.com,2007:/views//8.463</id>
   
			<published>2007-04-10T06:00:31Z</published>
			<updated>2007-08-01T02:27:15Z</updated>
   
			<summary>Welcome to “Views” – a new Intel.com blog that we hope provides pure unfiltered spring mountain thoughts from the people who make the Moore’s Law magic and the innovation and performance silicon ignites for all-things digital and connected to the...</summary>
			<author>
				<name>Nick Knupffer</name>
				<uri>http://blogs.intel.com/technology/2008/01/profile_nick_knupffer.php</uri>
			</author>
			
			
			<content type="html" xml:lang="en" xml:base="http://blogs.intel.com/views/">
				<![CDATA[<p>Welcome to “Views” – a new Intel.com blog that we hope provides pure unfiltered spring mountain thoughts from the people who make the Moore’s Law magic and the innovation and performance silicon ignites for all-things digital and connected to the world wide web.  Those who will be posting here reflect love of, and expertise in creating technology.</p>
]]>
				<![CDATA[<p>And this blog (of which I am your humble editor) is designed to give you a window into the thoughts of a slice of Intel’s finest minds. We intend to provide you with a varied menu, including musings from such authorities as Dr. Genevieve Bell, who leads an elite team of researchers in Intel’s Digital Home Group and will be discussing topics close to her heart and on the minds of communities and people she and her team visit with around the world. We have Dr. Dileep Bhandarkar who will shortly be posting his thoughts about Instruction Set Architecture advances and enhancements. Shekhar Borkar will discuss the miracle of Moore’s law and what this means for future transistors (what are we going to do with all of them?) Dr Kevin Kahn will be taking us on a tour of the world’s wireless wranglings around spectrum allocation and taming bandwidth bedlam in our laptops - how do you get all those different, current and future radios and protocols (WIFI, WIMAX, Bluetooth, UWB, Wireless USB) to work together? And we will have many more engineers, designers and inventors from around the world talking about their projects and passion for technology. </p>

<p>I will also be making my own constructive comments from time to time to bring you views and opinions from deep within Intel.   </p>

<p>Please feel free to post comments and questions on any entry that you read here, we hope to respond to as many as possible. </p>
]]>
									
				
				
				
										Comments (2)
					
			</content>
		</entry>
	
</feed>
