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2016年1月22日 星期五

台積電超越Intel?

台積電研發飛快!Intel710奈米落後 龍頭不

保?
Image result for 台積電  Image result for intel

台積電(2330)奈米製程超進度,英特爾(Intel Corp.)面臨嚴重威脅,長久以來的晶片龍頭地位可能不保!

台積電的奈米製程研發速度超越每兩年可研發出新技術的摩爾定律(Moore`s Law)2016年底量產10奈米製程晶片之後,7奈米製程不必等兩年、2018年上半年就可投產。另外,5奈米製程則會在7奈米投產兩年後開始量產,時間點大約落於2020年,與摩爾定律相符。

相較之下,英特爾在14/16奈米製程的競賽中雖然擊敗台積電,但10奈米的投產進度卻反而將稍稍落後台積電。

為何會如此?Motley Fool獨家引述消息人士指出,台積電自10奈米起將晶片研發模式全面翻新,不再沿襲過去一個團隊同時研發兩個世代製程的做法,如今團隊僅專注一個特定製程,工程師不必分心研究兩種技術。

也就是說,20奈米的團隊完成工作後,被分配到16奈米技術的開發工作,然後台積電創立了新團隊專門研製10奈米。一旦16奈米組員的工作告一段落,就會被指定7奈米的開發作業,而10奈米團隊之後則會接手5奈米研發工作。
相較之下,英特爾則尚未採取台積電雙火車頭的研發模式。據傳,英特爾因為想把22奈米製程技術做到最好,使得14奈米製程遭到擱置。結果,英特爾為了趕進度,14奈米製程進入量產的時間足足提早一年,良率問題也接踵而至,進而拖累到接下來10奈米、7奈米的研發時程表。

歐洲半導體設備業龍頭艾司摩爾(ASML Holding NV)執行長Peter Wennink才剛在20日於財報新聞稿中表示,邏輯IC客戶將自第2季起接收ASML的高階浸潤式機台(immersion tool),以便為10奈米製程技術預作準備

barron`s.com報導,Cowen & Co.分析師Timothy Arcuri說,調查顯示台積電最近已獲得蘋果(Apple Inc.)承諾、會在2017年續拿10奈米的A11處理器訂單,預估英特爾、台積電擴充10奈米產能,有望讓ASML Q2營收明顯攀高。

台積電靠著蘋果肥單,以雙班制度搶進度,除非英特爾能改變研發模式、追隨台積電的做法,否則遲早會喪失領先地位。

*編者按:本文僅供參考之用,並不構成要約、招攬或邀請、誘使、任何不論種類或形式之申述或訂立任何建議及推薦,讀者務請運用個人獨立思考能力,自行作出投資決定,如因相關建議招致損失,概與《精實財經媒體》、編者及作者無涉。

資料來源-MoneyDJ理財網


01/22/2016

2015年11月24日 星期二

蘇俄駭客 (2)

Russia's Greatest Weapon May Be Its Hackers- 蘇俄駭客 (2)

Yet some code—in particular, the family of “backdoors” into programs known as CHOPSTICK—regularly used by APT28 has been linked to those virtual break-ins. And there’s less ambiguity about a similar attack on an unclassified military network at the U.S. Department of Defense last year. “We analyzed their network activity, associated it with Russia and then quickly kicked them off the network," Secretary of Defense Ashton Carter said in April.
Cyberspying on the West Wing’s emails may be cheeky, (impudent) but it’s not much different from the old-school espionage and signals-intelligence games that Russia and America have been playing for decades. What’s truly scary, on the other hand, is infiltrating physical infrastructure in a way that could herald a new generation of violent covert action and sabotage. “This is an entirely new way of waging war,” says one former KGB general once posted as a spy to London who now works in the private security sector. “It is like the invention of planes or submarines. Suddenly you can attack the enemy from a completely new and unexpected direction.... This is the essence of warfare: constant surprise.”
In April, Eugene Kaspersky, the Moscow-born CEO of Kaspersky Labs, noted that there has been a dramatic surge in targeted attacks against power grids, banks and transportation networks around the world—and warned that groups targeting crucial infrastructure have “the capacity to inflict very visible damage. The worst terrorist attacks are not expected.”
Among the most frightening new-generation cyberweapons are those designed to target super-secure, so-called “air-gapped” systems that have no links to the Internet or outside networks. The developers of Stuxnet bridged the air gap by developing ingenious programs that infected CD-ROMs and memory sticks that then colonized Iran’s nuclear development computers, ultimately inflicting devastating physical damage on uranium centrifuges and forcing the Iranians to replace their entire computer infrastructure. But a Stuxnet-like program that can be carried by email and memory sticks, called Uroburos, has been around since 2011—and was diagnosed as being of Russian origin. Uroburos targets Microsoft Windows, sets up surreptitious communications with its parent network and is able to leap across air gaps isolating secure networks from the Internet.
“The scary thing is that now everyone can do pretty much anything to anyone,” says Klimburg. He believes that one way to distinguish between criminal and government cyberactivity is measuring the amount of programming resources an attack requires—like malware designed to leap across air gaps. “If you see a huge amount of organization and programming going into an attack, that’s a good indicator that there’s a government involved.”
The U.S. and Europe remain extremely vulnerable to infrastructure attacks—especially as so much of these developed economies’ vital infrastructure is now electronic, from financial systems to social networks. One small example: In late April, a fleet of American Airlines Boeing 737s was temporarily grounded after an iPad application known as an “electronic flight bag” used by pilots for preflight checks crashed. The iPad app replaced 13 pounds of paper manuals—but when it went down, so did the entire fleet.
More worrying, though still hypothetical: The U.S. Government Accountability Office issued an official warning in April that “modern aircraft’s interconnectedness can potentially provide unauthorized remote access to aircraft avionics systems” and that an aircraft’s Wi-Fi access could be exploited by hackers. When security researcher Chris Roberts joked on Twitter about how easy it would be to “start playing with the EICAS”—Engine-Indicating and Crew-Alerting System—he was bumped off a flight. Boeing issued a statement saying that “no changes to the flight plans loaded into the airplane systems can take place without pilot review and approval.”
Other infrastructure is just as unprotected. A recent survey by the energy industry consultants Black & Veatch revealed that only 32 percent of U.S. electric utility companies had integrated security systems with the “proper segmentation, monitoring and redundancies needed for cyberthreat protection.”
Personnel work at the Air Force Space Command Network Operations & Security Center at Peterson Air Force Base in Colorado Springs, Colo. July 20, 2010. The U.S. and Europe remain extremely vulnerable to infrastructure attacks—especially as so much of these developed economies’ vital infrastructure is now electronic, from financial systems to social networks.RICK WILKING/REUTERS

In February, President Barack Obama set up a new Cyber Threat Intelligence Integration Center, described as “a national intelligence center focused on connecting the dots regarding malicious foreign cyberthreats to the nation.” Defense Secretary Carter made a trip to the heart of Silicon Valley, this month to help improve relationships with tech companies after damaging revelations by former National Security Agency contractor Edward Snowden about digital surveillance. “This threat affects us all,” Carter told the assembled techies. "There are also really great opportunities to be seized through a new level of partnership between the Pentagon and Silicon Valley.”
Behind the scenes, American spy agencies are also busy fighting a secret war against cyberenemies. Snowden—now in hiding in Russia—publicly revealed the massive scale of data mining by U.S. intelligence agencies, often in apparent violation of protections for U.S. citizens’ privacy. But a recent report by Kaspersky Labs suggests that the U.S. is no slouch in the hacking department either. A hacking collective that Kaspersky’s team dubbed Equation Group—sponsored, it coyly says, “by a nation-state with nearly unlimited resources”—has for the past 14 years apparently been busy planting top-flight spyware around the world, including a keystroke-logging program called Grok and a protective encryption system known as GrayFish.
The top targets? Iran and Russia, followed by Pakistan, China and India. The malware has targeted financial, government, diplomatic, aerospace and telecommunications networks, as well as research institutions and universities. According to Kaspersky’s engineers, the Equation Group designed “the world’s most mysterious malware warhead” as well as “a secret storage vault that survived military-grade disk wiping and reformatting, making sensitive data stolen from victims available even after reformatting the drive and reinstalling the operating system.”
Thanks to its vast resources, the U.S. may well be able to stay one step ahead of its cyberenemies. But the problem with this new battlefield is that none of the potential combatants know the rules—and, even more dangerous, no one can be certain of who the combatants are. “It is not always possible to distinguish between cyberespionage, cyber covert action and, most importantly, preparation for cybersabotage or war,” says Klimburg. “Serious misunderstandings are preprogrammed.... The consequences of misidentifying the motive of the attacker could be, in diplomatic-speak, ‘inadvertent escalation’—or accidental cyberwar.”
Richard Clarke, head of cybersecurity and counterterrorism coordination in the George W. Bush administration, has warned of the dangers of a “false flag” cyberattack designed to create tension between the U.S. and, for instance, China and launched by a hidden third party.
Some academics have proposed “cybermilitary exercises” between the United States and Russia as a vehicle for trust building. Others suggest establishing “rules of the road”—a kind of informal agreement for cyberspace that outlines what is a legitimate target for espionage purposes, with an agreement not to target super-critical infrastructure such as power grids with cyberespionage attacks.
But even if Beijing could be persuaded to come on board, the current geopolitical tension between Washington and Moscow is hardly conducive to gentleman’s agreements. Russian President Vladimir Putin has characterized the Internet as a “CIA invention” and this month ordered the FSB to “cleanse the Russian Internet” by forcing all Internet providers to keep their servers in Russia—another turn of the screw in the Kremlin’s long-term plan to create a separate Russian Internet, a project to which Putin has pledged some $100 million since 2012. And during the Sochi Olympics in February 2014, the FSB deployed aggressive cyberspying tools designed to infect foreign visitors’ computers and cellphones with spyware through Wi-Fi networks and cellphone towers.
It is unlikely that such a regime would shy away from using every cyberweapon at its disposal. It’s equally unlikely that, faced with a barrage of what White House spokeswoman Jan Psaki described as “hundreds of cyberattacks a day,” the U.S. will cease and desist from developing some of the world’s most sophisticated cyberweapons in retaliation. The cyber arms race is on.
Yet some code—in particular, the family of “backdoors” into programs known as CHOPSTICK—regularly used by APT28 has been linked to those virtual break-ins. And there’s less ambiguity about a similar attack on an unclassified military network at the U.S. Department of Defense last year. “We analyzed their network activity, associated it with Russia and then quickly kicked them off the network," Secretary of Defense Ashton Carter said in April.
Cyberspying on the West Wing’s emails may be cheeky, but it’s not much different from the old-school espionage and signals-intelligence games that Russia and America have been playing for decades. What’s truly scary, on the other hand, is infiltrating physical infrastructure in a way that could herald a new generation of violent covert action and sabotage. “This is an entirely new way of waging war,” says one former KGB general once posted as a spy to London who now works in the private security sector. “It is like the invention of planes or submarines. Suddenly you can attack the enemy from a completely new and unexpected direction.... This is the essence of warfare: constant surprise.”
In April, Eugene Kaspersky, the Moscow-born CEO of Kaspersky Labs, noted that there has been a dramatic surge in targeted attacks against power grids, banks and transportation networks around the world—and warned that groups targeting crucial infrastructure have “the capacity to inflict very visible damage. The worst terrorist attacks are not expected.”
Among the most frightening new-generation cyberweapons are those designed to target super-secure, so-called “air-gapped” systems that have no links to the Internet or outside networks. The developers of Stuxnet bridged the air gap by developing ingenious programs that infected CD-ROMs and memory sticks that then colonized Iran’s nuclear development computers, ultimately inflicting devastating physical damage on uranium centrifuges and forcing the Iranians to replace their entire computer infrastructure. But a Stuxnet-like program that can be carried by email and memory sticks, called Uroburos, has been around since 2011—and was diagnosed as being of Russian origin. Uroburos targets Microsoft Windows, sets up surreptitious communications with its parent network and is able to leap across air gaps isolating secure networks from the Internet.
“The scary thing is that now everyone can do pretty much anything to anyone,” says Klimburg. He believes that one way to distinguish between criminal and government cyberactivity is measuring the amount of programming resources an attack requires—like malware designed to leap across air gaps. “If you see a huge amount of organization and programming going into an attack, that’s a good indicator that there’s a government involved.”
The U.S. and Europe remain extremely vulnerable to infrastructure attacks—especially as so much of these developed economies’ vital infrastructure is now electronic, from financial systems to social networks. One small example: In late April, a fleet of American Airlines Boeing 737s was temporarily grounded after an iPad application known as an “electronic flight bag” used by pilots for preflight checks crashed. The iPad app replaced 13 pounds of paper manuals—but when it went down, so did the entire fleet.
More worrying, though still hypothetical: The U.S. Government Accountability Office issued an official warning in April that “modern aircraft’s interconnectedness can potentially provide unauthorized remote access to aircraft avionics systems” and that an aircraft’s Wi-Fi access could be exploited by hackers. When security researcher Chris Roberts joked on Twitter about how easy it would be to “start playing with the EICAS”—Engine-Indicating and Crew-Alerting System—he was bumped off a flight. Boeing issued a statement saying that “no changes to the flight plans loaded into the airplane systems can take place without pilot review and approval.”
Other infrastructure is just as unprotected. A recent survey by the energy industry consultants Black & Veatch revealed that only 32 percent of U.S. electric utility companies had integrated security systems with the “proper segmentation, monitoring and redundancies needed for cyberthreat protection.”

全文完

11/23/2015-
·         



2015年7月15日 星期三

冥王星

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

飛往冥王星的太空船

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

2006年發射

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

冥王星彩色照片
These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

黑白照片

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

它有五同球- 其中最大的叫Charon

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

與五大月球大小比例

These Are The Best Photos From NASA's 3-Billion-Mile Trip To Pluto

太空船接近冥王星

07/15/2015


2015年5月10日 星期日

007 龐德也會動心的小艇:

Boats that James Bond would kill for: 007 龐德也會動心的小艇:



DeepFlight Super Falcon Mk II


This is a personal submarine, and it's 100% real. In fact, an enormously wealthy boating enthusiast had an entire yacht made just to carry one of these around. It normally cruises at around 300 feet below sea level, but it can hit over (under?) 900, if it has to. Also: It has air conditioning, just because.



The Ady Gil


There’s only one purpose for which this boat was designed: circumnavigating the globe faster than any before it. It succeeded, and it was the boat to take if you wanted to get from Saint-Tropez to Venice as quickly as possible. Unfortunately, it didn’t survive a collision with a Japanese whaling ship (accidental), and currently lies at the bottom of the sea.





The Sea Shadow

The US Navy and DARPA worked with Lockheed on this beauty back in the 1980s as an experiment in stealth ships. In addition to its foreboding looks, it features a groundbreaking design with submerged hulls to help keep it steady. If it looks familiar to you, that’s because it was the basis for Elliot Carver’s ship in Tomorrow Never Dies.




Aston Martin Quintessence AM37


Aston Martin just announced its first speedboat, designed in collaboration with Quintessence Yachts. It features HD touch screens and voice recognition, and will legitimately be on sale once the final details are worked out. Bond wouldn’t just kill for this, he’d kill M for it.





U-Boat Worx C-Explorer 3


This is a sub capable of diving to over 3,000 feet and staying there for 16 hours. That’s deeper than a majority of military submarines. Think of it as the ultimate deep sea stakeout vehicle.



Sea Slice


The Sea Slice uses the same kind of submerged hull as the Sea Shadow (it's built by the same company), but on a much bigger and much faster boat. It’s the perfect boat for hosting a yacht party full of mercenaries, or anyone really. Relatively speaking, it's dirt cheap, too.





Landing Craft Air Cushion


These are massive military hovercrafts capable of running up to 185 tons of equipment from a beach to a boat or vice versa. You know, exactly the kind of thing you need when dismantling a villain’s lair on some remote island.



The Quadrofoil


At under $20K, the Quadrofoil’s basically a perfect throwaway vehicle for Bond, but it’s also a wonderfully unique ride that runs purely on electricity and barely makes a wave in the water.




Eclipse


Ok, so this one’s owned by a Russian “businessman,” and it’s more of a Bond-villain boat, but James would still need to get on it somehow. That’s tough because it has lasers designed to blind cameras, a missile defense system, and escape boats.




The Helicat


Basically, the Helicat is a jetski that looks like a helicopter. All that’s left is for Q to put some missiles on it, and maybe an actual helicopter engine, and it’s good to go.




Aquariva Super


It’s hard to find a classier or more elegant speedboat than a Riva. Just look at the beautiful woodwork. It's the perfect boat for seduction, followed by some sort of failed assassination attempt. 


05/10/2015

Justin Lai 選材

2015年5月7日 星期四

太空總署新發明10個引擎的電動小飛機

NASA HAS A TINY 10 ENGINE ELECTRIC PLANE


NAMED GREASED LIGHTNING?!?




太空總署有一種10個引擎的電動小飛機,名叫潤滑液閃電???


請看:


05/07/2015

2014年12月18日 星期四

幻想的海底城市



Japan's Ocean Spiral proposed as giant underwater city-未來日本的巨大海底城市




What would happen if the legend of the lost City of Atlantis was crossed with the screenplay for Kevin Costner's 1995 hit movie "Waterworld?" <!-- -->
</br><!-- -->
</br>Maybe something like The Ocean Spiral -- an underwater metropolis which generates its own energy from the seabed, produces food from deep sea aquaculture and is capable of providing accommodation for 5,000 people.


Spiral staircase- 螺旋狀的梯階-an underwater metropolis which generates its own energy from the seabed, produces food from deep sea aquaculture and is capable of providing accommodation for 5,000 people

一座海底城市,從海底產生本身的能源,從深海農場製造食物与可容納5仟人口

Divided into three distinctive zones, the structure will stretch all the way to the crushing black depths 2.8 miles under the sea.<!-- -->
</br><!-- -->
</br>A giant sphere with a diameter 500 meters (1,640 feet) situated just below the surface will form the first section and house residential zones, businesses and hotels. <!-- -->
</br><!-- -->
</br>Residents and visitors will enter via the upper level of the facility here.

Divided into three distinctive zones, the structure will stretch all the way to the crushing black depths 2.8 miles under the sea. 

A giant sphere with a diameter 500 meters (1,640 feet) situated just below the surface will form the first section and house residential zones, businesses and hotels. 

Residents and visitors will enter via the upper level of the facility here

分成三個區域性,這個結構延深到海下2.8浬的深度,直徑500米,位在水面下的巨大体有住宅、商業區及飯店。居民與訪客可從上層進來

This inhabited area will be connected to a nine-mile spiral (section 2) that will descend to the seabed where a deep-sea submarine port and factory (section 3) will create the energy required to power the sphere by using micro-organisms found there to turn carbon dioxide into methane.<!-- -->
</br><!-- -->
</br>Power generators situated along the spiral will then use differences in seawater temperature to create additional energy by applying thermal conversion technologies.

在海底- This inhabited area will be connected to a nine-mile spiral (section 2) that will descend to the seabed where a deep-sea submarine port and factory (section 3) will create the energy required to power the sphere by using micro-organisms found there to turn carbon dioxide into methane. 

Power generators situated along the spiral will then use differences in seawater temperature to create additional energy by applying thermal conversion technologies
這居住區連結到9浬的螺旋管,此管下降至海底,此處有深海潛水艇港與工廠,它能利用微生物將二氧化碳轉成甲烷來發電

沿螺旋管設立的發電機,利用照變化的科技將海水溫度之差來產生額外的能
Shimizu say projects like the Ocean Spiral may be necessary in the future to confront problems such as rising sea levels and the need to create new, clean energy sources.<!-- -->
</br><!-- -->
</br>According to a statement from the Japan Agency for Marine-Earth Science and Technology, a national research institute which is providing data to Shimizu for the project, it is vitally important "to promote maritime innovations in areas ranging from the use of marine resources to the deployment of marine biotechnology."<!-- -->
</br><!-- -->
</br>The agency adds that the research which will have to be carried out to make the Ocean Spiral viable will also "advance our understanding of the sea and earth."

Shimizu has a history of imaginative high-concept projects including a space hotel and floating botanical cities, although none of these have actually come to fruition yet.<!-- -->
</br><!-- -->
</br>The company says the Ocean Spiral would take five years to build and the technology required to make it a reality will be ready in 15 years.

Funding for what is likely to be a cash intensive exercise will also have to be secured. <!-- -->
</br><!-- -->
</br>Until such times arrive, however, all we're left with is a series of cool artist renderings to whet (or should that be wet?) the appetite.

At home in the Ocean- 海洋中的住家

12/18/14


2014年12月17日 星期三

太陽能

Solar sunflower inspired by nature could bring clean energy anywhere- 用大自然發電的太陽能可帶來乾淨的能源



The Sunflower Solar Harvester, being developed by the Swiss company Airlight Energy, tracks the sun like a sunflower and cools itself by pumping water through its veins like a plant. In the process, it produces heat, desalinated water, and refrigeration from the 12kW of energy it produces with just 10 hours of sunlight.

 At the core of the technology are IBM-designed water-cooled solar panels whose microchannels carry away the heat produced by the reflector mirrors. The flower-like array of reflectors concentrate the sun's energy more than 2000 times onto the six panels which each hold 25 photovoltaic chips.
At the core of the technology are IBM-designed water-cooled solar panels whose microchannels carry away the heat produced by the reflector mirrors. The flower-like array of reflectors concentrate the sun's energy more than 2000 times onto the six panels which each hold 25 photovoltaic chips