Apple's mergers and acquisitions
posted on
Aug 18, 2013 07:54AM
Apple's mergers and acquisitions: # 27, 31 and 45
#27) P.A. Semi
Led by the founders of SiByte, P.A. Semi has emerged from two years in stealth mode with plans for a family of low-power, high-performance platform processors. Based on IBM's PowerPC cores, the startup's PWRficient processors are 64-bit multicore devices that are scalable from portable applications to high-end super computers.
Semiconductor industry veteran Dan Dobberpuhl co-founded P.A. Semi in July 2003 with Leo Joseph and Amarjit Gill. These three previously co-founded the aforementioned SiByte, which developed the first integrated multicore SOC and was acquired by Broadcom in 2001 for about $2 billion in stock.
Dobberpuhl, the company's president and CEO, is an industry luminary who previously served as VP and GM of Broadcom's Broadband Processor division following Broadcom's acquisition of SiByte. Before that, he worked for Digital Equipment Corporation for more than 20 years, and was the lead designer of the DEC Alpha processor series and the StrongARM processors, the industry's first truly high-performance and low-power processor.
Gill, executive VP of sales and business development, was VP of sales and business development at SiByte. Over his 17 years in the embedded-microprocessor industry he has worked at National Semiconductor, Texas Instruments, and Digital Semiconductor, where he served as director of sales for global accounts.
COO Joseph served as VP of marketing and business operations at SiByte. Previously, he was marketing manager for the StrongARM product line at Digital Equipment Corporation, where he was responsible for the worldwide marketing and business development of StrongARM microprocessors.
The "P.A." in the company's name refers to P.A. Semi's original location, Palo Alto, Calif. The company has since relocated to Santa Clara.
P.A. Semi managed to build up a workforce of 150 people while in stealth mode, with the founders self-funding the company up to the first 80 employees. P.A. Semi then engaged with two investors, Bessemer Venture Partners and Venrock Associates, which have led two rounds of funding. The company has not disclosed financial details of the funding.
P.A. Semi's license agreement with IBM allows the startup to develop its own PowerPC cores independently of IBM, making P.A. Semi only the fourth commercial PowerPC-based products supplier, along with AMCC, Freescale and IBM itself.
P.A. Semi designed its PWRficient 64-bit multicore processors to bring low power and high throughput to applications requiring high-performance processing. P.A. Semi's multicore SOC architecture can scale from 1 GHz to 2.5GHz per core with very low power consumption. The first PWRficient platform processor, for example, is a dual-core chip running at 2 GHz that dissipates between 5 watts and 13 watts, depending on the application.
P.A. Semi is building its chips in a 65-nm process from an un-named foundry partner. The process provides the company with extremely high integration capabilities, enabling minimal chip count in systems. The PWRficient chips essentially integrate everything but the DRAM and Flash memories.
Because of the PWRficient chips' scalability, P.A. Semi is targeting a range of markets, from printing and imaging solutions to datacom and network infrastructure and server/server blade infrastructure. While diverse, these markets share a common need for high performance, low power, and throughput and cost efficiency.
The highly integrated PWRficient processors replace the typical three- to five-chipset platform with a single chip. P.A. Semi's high-level strategy behind the processor family is to build a number of different blocks that the company can connect together in various configurations to stamp out new physical designs with a minimal amount of effort. In fact, after the initial product launch, P.A. Semi expects to be able to tape out a new chip on a quarterly basis.
The architectural elements are:
· PA6T core ?PowerPC-compliant, 64-bit core.
· CONEXIUM coherent ordered crossbar - features a scalable on-chip interconnect that can integrate one to eight SMP cores. Also has 512 KB to 8 MB L2 cache and one to four 72-bit ECC-capable DDR2 memory controllers.
· ENVOI I/O system ? SERDES I/O for PCI Express, XAUI, SGMII, SATA/SAS, RapidIO; specialized I/Os as required; reconfigurable to suit diverse applications.
· Offload engines ? Hardware accelerators embedded into the I/O system: TCP/IP, iSCSI, IPSec, SSL, encryption and authentication, RAID processing.
To minimize cost and design effort for customers, P.A. Semi developed a strategy based on sockets, which are defined by the package, pinout and power envelope. The three sockets - entry, mid-tier and high-end ? enable customers to design to a specific socket, instead of to a specific processor, so they can easily upgrade or change their PWRficient solutions.
The company will launch its first products in Q3 2006, targeting compute servers, telecom, datacom and storage markets. The first PWRficient chip, the PA6T-1682M, is a dual-core product that dissipates 5 watts to 13 watts, depending on the application. Single-core and quad-core versions are due in early and late 2007, respectively, with an eight-core version planned for 2008.
P.A. Semi has a working, 100% functional 65-nm test chip. The test chip has fully functional analog and digital circuits, and the company has verified full-speed operation of all the chip's elements.
We do not often see startups whose target markets are almost exclusively dominated by the likes of Intel, AMD, IBM, Toshiba and other industry heavyweights. Transmeta tried it, and things did not work out so well. Nevertheless, P.A. Semi certainly has a lot going for it, in particular industry legend Dobberpuhl and a 130-strong team of engineers with an average of 10 years' experience under their belts. The platform processor they developed has the versatility, performance and cost-efficiency the company's potential customers are hungry for.
However, while P.A. Semi has taken the performance-per-watt idea to remarkably high levels, the company did not invent the concept and all of its competitors understand the imperative of providing high-performance, low-power devices. P.A. Semi's initial parts will not launch until late 2006, and who knows what Intel, AMD and others will come out with during the intervening year.
On the plus side, while the x86 architecture is dominant with data center tier-one companies such as H-P and Dell, IBM develops PowerPC-based systems. In addition, P.A. Semi has an opportunity to help the tier-two players compete against the tier-ones. The second-tier guys are very focused on improving power density and are always on the lookout for competitive advantages.
P.A. Semi's management team has the same impressive pedigree as the company's founders. The team includes Jim Keller, VP of engineering/Architecture Group, who was the director of architecture at Broadcom and SiByte and a Senior Fellow at AMD. He earlier worked at DEC, where he coarchitected the Alpha 21164 and 21264 processors..
Sribalan Santhanam, VP of engineering/Design Group, served as director of implementation at Broadcom and SiByte. Before that he was with DEC, where he led the implementation of the StrongARM SA-1500 processor and served as a key designer on the SA-110 and Alpha 21064 and 21164 processors.
Peter Bannon, VP of architecture, was previously at Intel as an Intel Fellow, working on Itanium platform design. Prior to that, he was with Compaq Computers and DEC, where he was the coarchitect of the DEC Alpha 21164 and 21164-A and developed the VAX design.
Mark Hayter, chief system architect and Sr. director of system engineering, also came from Broadcom and SiByte. Prior to that, he was at the DEC Systems Research Center, where he was the project lead for the VirtualBook.
Puneet Kumar, Sr. director of systems software, is also a veteran of Broadcom and SiByte, where he was a software architect and senior manager of software engineering. Prior to that, he was at the DEC Research Center, where he was the software architect for the first hard-drive-based MP3 player.
Wayne Meretsky, director of customer systems engineering, previously worked at AMD. An AMD Fellow, Meretsky built the AMD software development team, coauthored the x86-64 specification, and conceived and drove AMD's x86-64 strategy. Prior to that, he was the technical lead for the Macintosh OS at Apple Computer, where he drove the PowerPC transition. Meretsky has also held positions at Rational and Data General.
Sanjay Iyer, director of marketing, joined P.A. Semi from The Linley Group, where he was a senior technology analyst. Prior to that, Iyer cofounded two startups, and was director of technical marketing at RealChip and the GM of the Technology Division of Aureal. Iyer also held engineering positions at Silicon Graphics and AMD.
http://www.insidechips.com/public/6363print.cfm
#31)
Intrinsity was a privately held Austin, Texas based fabless semiconductor company; it was founded in 1997 as EVSX on the remnants of Exponential Technology and changed its name to Intrinsity in 2000. It had around 100 employees and supplied tools and services for highly efficientsemiconductorlogic design, enabling high performance microprocessors with fewer transistors and low power consumption. The acquisition of the firm by Apple Inc. was confirmed on April 27, 2010.
Intrinsity's main selling point was its Fast14 technology, a set of design tools implemented in custom EDA software, for using dynamic logic and novel signal encodings to permit greater processor speeds in a given process than naive static design can offer.
Concepts used in Fast14 are described in a white paper:[2] and include the use of multi-phase clocks so that synchronisation is not required at every cycle boundary (that is, a pipelined design does not require latches at every clock cycle); 1-of-N encoding where a signal with N states is carried as a voltage on one of N wires with the other N-1 grounded, rather than being carried on log(N) wires which can be in arbitrary states; and a variety of sophisticated routing algorithms including ones which permute the order of the wires in a bundle carrying a 1-of-N signal in such a way as to reduce noise exposure, and ones which allow complicated gates to 'borrow' delay from simple ones to allow a shorter clock cycle than a more pessimistic design approach permits. Converters between the two signal encodings are readily available, and are useful for interfacing to blocks of static logic.
This technology has been used to implement ARM, MIPS and Power Architecture cores, which Intrinsity licences under the name of FastCores; the first implementation was FastMATH, a MIPS-based DSP-like microprocessor implemented in 130 nm technology and introduced in 2002. It operates at 15 W power at 2.0 GHz and 1 V, and 6 W power at 1 GHz and 0.85 V; it was awarded Best Extreme Processor in 2003 by Microprocessor Report.[3] The design took 16 months by a team of 45 engineers.
In July 2009, Intrinsity announced that it had developed in collaboration with Samsung a 1 GHz implementation of the ARM Cortex-A8 chip; it had developed a similar high-speed implementation of the Cortex-R4 chip two years earlier.
http://en.wikipedia.org/wiki/Intrinsity
#45)
Passif Semiconductor was a Silicon Valley start-up founded by two former University of California, Berkley students. The company’s goal was to reduce the power consumption of wireless chips, a topical subject given the increasing number of radios modern smartphones and other devices are expected to pack in.
According to Lessin’s sources, the deal – made earlier this year – was not the first time Apple showed interest in Passif. In fact, the company is believed to have attempted to buy the start-up several years ago, at the time offering “mid-tens-of-millions of dollars” but rebuffed.
“Apple buys smaller technology companies from time to time, and we generally do not discuss our purpose or plans” a company spokesperson told AllThingsD.
Although Apple is standoffish about the reasons behind its purchase, it’s not hard to see where low-power wireless could come into its current range – or, indeed, its rumored devices. The iPhone and iPad each incorporate multiple radios, for cellular and short-range connectivity, while Apple’s MacBook line has been shrinking with each generation.
However, it’s the tipped “iWatch” smartwatch project and Apple’s interest in wearables which arguably makes the most sense for Passif’s technology. One of the long-standing concerns around smartwatches has been their limited power supply, so if Apple could address that using new, lower-powered chips then it could gain an edge over rivals like Pebble.
Apple has acquired Passif Semiconductor, a low-power wireless chip specialist with a product range that includes Bluetooth LE support for wearables like smartwatches. The deal, confirmed by Jessica Lessinand AllThingsD, has been confirmed by Apple, but no financial details – nor examples of what the Cupertino company intends to do with the wireless expertise – have been revealed.
http://www.slashgear.com/apple-buys-low-power-wireless-specialist-passif-semiconductor-01292467/
NumberDateCompanyBusinessCountryValue (USD)ReferencesDerived products
1 | March 2, 1988 | Network Innovations | Software | United States | — | [7] | — |
2 | June 7, 1988 | Orion Network Systems | Satellite communication systems | United States | — | [8] | — |
3 | June 27, 1988 | Styleware | Computer software | United States | — | [9] | AppleWorks GS |
4 | July 11, 1988 | Nashoba Systems | Computer software | United States | — | [10] | FileMaker |
5 | January 3, 1989 | Coral Software | Computer software | United States | — | [11] | — |
6 | February 7, 1997 | NeXT | Computer programming services | United States | US$404,000,000 | [12] | Mac OS X, iOS |
7 | September 2, 1997 | Power Computing-Clone-Making[note 1] | Clone computers | United States | US$100,000,000 | [13] | — |
8 | January 8, 1999 | Xemplar Education | Software | United Kingdom | US$4,926,000 | [14] | — |
9 | November 3, 1999 | Raycer Graphics | Computer graphic chips | United States | US$15,000,000 | [15] | — |
10 | January 7, 2000 | NetSelector | Internet software | United States | — | [16] | — |
11 | April 11, 2000 | Astarte-DVD Authoring Software[note 2] | Software | Germany | — | [17] | DVD Studio Pro |
12 | 2000 (Q4) | SoundJam MP[note 3] | Software | United States | — | [18] | iTunes |
13 | 2001 | Bluefish Labs | Productivity software | United States | — | [19] | iWork |
14 | May 11, 2001 | bluebuzz | Internet service provider | United States | — | [20] | — |
15 | July 9, 2001 | Spruce Technologies[note 4] | Graphics software | United States | — | [21] | DVD Studio Pro |
16 | December 31, 2001 | PowerSchool | Online info systems services | United States | US$62,000,000 | [22] | PowerSchool |
17 | February 1, 2002 | Nothing Real | Special effects software | United States | US$15,000,000 | [23] | Shake |
18 | April 4, 2002 | Zayante | FireWire chips and software | United States | US$13,000,000 | [24] | FireWire |
19 | June 11, 2002 | Silicon Grail Corp-Chalice[note 5] | Digital effects software | United States | — | [25] | Final Cut |
20 | June 20, 2002 | Propel Software | Software | United States | — | [26] | |
21 | June 21, 2002 | Prismo Graphics | Special-effects titling software for film and video | United States | — | [27] | LiveType (Final Cut Studio) |
22 | July 1, 2002 | Emagic | Music production software | Germany | US$30,000,000 | [28] | Logic & GarageBand |
23 | March 2005 | Schemasoft | Software | Canada | — | [29] | File formatting (iWork) |
24 | April 2005 | FingerWorks | Gesture recognition company | United States | — | [30][31] | iOS multitouch |
25 | October 16, 2006 | Silicon Color | Software | United States | — | [32] | Apple Color (Final Cut Studio) |
26 | December 4, 2006 | Proximity | Software | Australia | — | [33] | Final Cut Server |
27 | April 24, 2008 | P.A. Semi | Semiconductors | United States | US$278,000,000 | [34] | Apple A4, A5 (SoC) |
28 | July 7, 2009 | Placebase | Maps | United States | — | [35] | Maps |
29 | December 6, 2009 | Lala.com | Music streaming | United States | US$17,000,000 | [36] | iCloud, iTunes Match |
30 | January 5, 2010 | Quattro Wireless | Mobile advertising | United States | US$275,000,000 | [37] | iAd |
31 | April 27, 2010 | Intrinsity | Semiconductors | United States | US$121,000,000 | [38] | Apple A5 (SoC) |
32 | April 27, 2010 | Siri | Voice Control Software | United States | — | [39] | Siri |
33 | July 14, 2010 | Poly9 | Web-based mapping | Canada | — | [40] | Maps |
34 | September 20, 2010 | Polar Rose | Face-Recognition | Sweden | US$29,000,000 | [41] | iPhone software (camera) |
35 | September 14, 2010 | IMSense | High Dynamic Range Photography | United Kingdom | — | [42] | iPhone software (camera) |
36 | August 1, 2011 | C3 Technologies | 3D Mapping | Sweden | US$267,000,000 | [43] | Maps |
37 | December 20, 2011 | Anobit | Flash Memory | Israel | US$390,000,000 | [44] | iPhones and iPads |
38 | February 23, 2012 | Chomp | App search engine | United States | US$50,000,000 | [45] | iPhones and iPads |
39 | June 2, 2012 | Redmatica | Audio | Italy | — | [46] | Logic Pro |
40 | July 27, 2012 | AuthenTec | Security hardware and software for PCs and mobile devices | United States | US$356,000,000 | [47] | iPhones and iPads |
41 | September 27, 2012 | Particle | HTML5 web app firm | United States | -- | [48] | Web |
42 | March 23, 2013 | WiFiSlam | Indoor location | United States | US$20,000,000 | [49] | Maps |
43 | July 19, 2013 | Locationary | Maps | Canada | — | [50] | Maps |
44 | July 19, 2013 | HopStop.com | Maps | United States | — | [51] | Maps |
45 | August 1, 2013 | Passif Semiconductor | Semiconductor | United States | — | [52] | — |
46 | August 13, 2013 | Matcha | Media discovery app[53] | United States | — | [54] | — |