Macworld 2006 Discussion


Recommended Posts

I wouldn't be amazed if the 15-in Powerbook is the first to go Intel. After all, the 15-in. is the flasgship Powerbook. This rumors seem pretty real and feasible.

The one argument against is that no Pro software is made for universal code yet. Adobe is not planing on that for CS2 and haven't heard others. But I hope that Apple will release a 15" intel PB.

I'm pretty sure Adobe has had their hands on dev. transitions kits for a while now. Regardless, if it's indeed true it won't ship until Feb. thus giving Adobe extra time.

On the other hand, Rosetta is pretty damnm good from what I have heard. The latest version even emulates altivec calls.

wrong. the 17" is the flagship. the 15" is the best selling one. ;) quite a difference.

anyways, that cartoon posted by radish is great, btw. ;)

You know I would've thought the 15" as the flagship model..but hey I could be wrong ;)

Interesting how the 15" is the best selling one, and not the 12 in. I woulnt be surprise if the ditch the 12-in Powerbook and replace it with a 13 in. Widescreen iBook.

12, 13 -in iBook.

15, 17 -in Powerbook

It would make sense since the 15, 17 in. screens lend themselves for HD editing and all that. Can't do much on a 12-in screen state.

You know I would've thought the 15" as the flagship model..but hey I could be wrong ;)

Interesting how the 15" is the best selling one, and not the 12 in. I woulnt be surprise if the ditch the 12-in Powerbook and replace it with a 13 in. Widescreen iBook.

ive read they will. well rumors said that. just because the 12" powerbook cant support any of the hd-resolutions, as you mentioned. i dont have any source anymore, was written in some blog. but it makes sense and would be nice, a 13" widescreen ibook, intel powered, two versions, single- and dualcore... why not?

ive read they will. well rumors said that. just because the 12" powerbook cant support any of the hd-resolutions, as you mentioned. i dont have any source anymore, was written in some blog. but it makes sense and would be nice, a 13" widescreen ibook, intel powered, two versions, single- and dualcore... why not?

mmmm if that 13" iBook is announced in a couple of hours, I'll be there instantly with my credit card. I think this model would appeal to many many people, and would be a wise move for Apple, as long as they can keep the price down.

Just out of interest, what do people think will happen to the pricing, should it stay relatively similar to the PPC eqivalents? cheaper would be nice :)

yeah, a 13" ibook would be my notebook of choice aswell.

i think since intel is HUGE, the pricing will stay the same or even cheaper.

they can infact deliver the same cores for apple as they do for other manufacturers, since

yonah will be the same for every computer, exept some slight differences, so they can

produce them cheaper.

would be nice.

my expectation is: 13" ibook approx. 1000$/950?.

i am really anxious to know what resolution a 13" screen would have.

One thing I am hoping about this is that Intel chips will bring about slightly cheaper pricing.

Apple must know that people are desperate to break into their market but pricing is prohibitive. The Mac Mini was a BIG step in the right direction but they need to keep working at it.

Mac Mini is about all I could afford right now..

yeah, a 13" ibook would be my notebook of choice aswell.

i think since intel is HUGE, the pricing will stay the same or even cheaper.

they can infact deliver the same cores for apple as they do for other manufacturers, since

yonah will be the same for every computer, exept some slight differences, so they can

produce them cheaper.

would be nice.

my expectation is: 13" ibook approx. 1000$/950€.

i am really anxious to know what resolution a 13" screen would have.

You don't know how much I wish your price expectation is right... that would be very VERY nice!

As for resolutions, I'd imagine they'd bump everything up a bit, so maybe something like the current 15" PB res?

Thats another thing, I hope the quality of the screens is a fair bit better than the infamous latest PB upgrades... :wacko:

The new iBook is expected to be a widescreen model with a 13.3" screen 1280x720 screen. This correlates with an earlier report from Appleinsider noting a similar 13" widescreen look to the upcoming iBooks.

1280x720 is nice.

This topic is now closed to further replies.
  • Recently Browsing   0 members

    • No registered users viewing this page.
  • Posts

    • Python programmers in a nutshell. Now, guess what lang most AI programmers use... :-)
    • There was nothing whatsoever wrong with Vista as an OS after the SP1 update. People who claim it wasn't were using ancient machines for some silly reason. Not kidding, no hyperbole/exaggeration. Vista was good.
    • Windows ME was worse.
    • Dude, im talking about simply disable it from settings app. Because of the eu regulation, you could disable it here for years.
    • One big question about Mars was answered thanks to Einstein's 100 year old theory by Sayan Sen Image via DepositPhotos Scientists at the U.S. National Institute of Standards and Technology (NIST) have calculated how time passes on Mars compared with Earth, adding detail to how timekeeping would need to work beyond Earth’s orbit. The study, published in The Astronomical Journal, found that clocks on Mars run an average of 477 microseconds, or millionths of a second, faster per day than clocks on Earth. A microsecond is one millionth of a second, a very small unit used in precise scientific timing systems such as atomic clocks, which measure time using consistent atomic behavior. This difference is not constant. Because Mars moves around the Sun in a non-circular path (an eccentric orbit, meaning its distance from the Sun changes over time instead of staying fixed) and is affected by gravity from other bodies, the daily difference can vary by as much as 226 microseconds over a Martian year. The study also identifies smaller repeating changes of about 40 microseconds per day linked to synodic cycles (repeating periods that describe how planets line up with each other as they orbit the Sun from different positions). These longer patterns affect how time differences slowly rise and fall. To make these estimates, researchers compared Mars with Earth and the Moon. The work looks at relativistic proper time (the time actually measured by a clock depending on its speed and the strength of gravity where it is located, as described in Einstein’s relativity). This shows that each world has its own slightly different “rate” of time. This becomes more important as space missions expand into cislunar space (the region between Earth and the Moon) and toward Mars. On Earth, time systems rely on atomic clocks and satellites, which stay closely synchronized for navigation and communication. The study is based on Albert Einstein’s theory of relativity, which shows that time is affected by gravity and motion. Stronger gravity makes clocks run slower, while weaker gravity makes them run faster. “The time is just right for the Moon and Mars,” said NIST physicist Bijunath Patla. “This is the closest we have been to realizing the science fiction vision of expanding across the solar system.” A day on Mars is about 40 minutes longer than on Earth, and a Martian year lasts 687 Earth days. But the main question is not just about days and years, but how fast time itself passes. An atomic clock placed on Mars would function normally, but compared with one on Earth, the two would slowly drift apart due to differences in gravity and motion. This requires careful calculation of what is similar to a time-zone difference across planets. Researchers modeled Mars using a reference surface and included gravitational effects from the Sun, Earth, the Moon, and other planets. This includes a multi-body gravitational system (often described as a three-body or four-body problem, where predicting motion becomes difficult because multiple large objects all pull on each other at the same time through gravity). Mars also follows a Keplerian orbit (an idealized elliptical orbit based on simple gravitational laws that assume smooth motion, before adding real-world disturbances from other bodies). In addition, the researchers accounted for solar tides (small changes in gravitational force caused by the Sun that slightly distort planetary motion and timing, especially in systems involving Earth and the Moon). These combined effects are described as relativistic proper-time offsets (small but measurable differences in elapsed time between locations caused by gravity and motion), which must be included when comparing clocks across planets. “But for Mars, that’s not the case. Its distance from the Sun and its eccentric orbit make the variations in time larger. A three-body problem is extremely complicated. Now we’re dealing with four: the Sun, Earth, the Moon and Mars,” Patla explained. “The heavy lifting was more challenging than I initially thought.” Although the differences are extremely small, they matter for navigation and communication systems that depend on precise timing. Even modern networks on Earth, such as mobile systems, rely on timing accuracy at very small fractions of a second. Communication between Earth and Mars currently takes about four to 24 minutes or more depending on planetary positions, meaning signals are not real-time. A shared and accurate time system could help future missions reduce confusion in navigation and data exchange. “If you get synchronization, it will be almost like real-time communication without any loss of information. You don’t have to wait to see what happens,” Patla said. Researchers note that fully developed interplanetary communication networks are still far in the future. However, understanding how time behaves across planets helps prepare for those systems. “It may be decades before the surface of Mars is covered by the tracks of wandering rovers, but it is useful now to study the issues involved in establishing navigation systems on other planets and moons,” said Neil Ashby. “Like current global navigation systems like GPS, these systems will depend on accurate clocks, and the effects on clock rates can be analyzed with the help of Einstein’s general theory of relativity.” Patla added that the results also help improve understanding of time itself under relativity. “It's good to know for the first time what is happening on Mars timewise. Nobody knew that before. It improves our knowledge of the theory itself, the theory of how clocks tick and relativity,” he said. Source: NIST, IOPscience This article was generated with some help from AI and reviewed by an editor. Under Section 107 of the Copyright Act 1976, this material is used for the purpose of news reporting. Fair use is a use permitted by copyright statute that might otherwise be infringing.
  • Recent Achievements

    • Grand Master
      Jaybonaut went up a rank
      Grand Master
    • One Year In
      Philsl earned a badge
      One Year In
    • Dedicated
      Scoobystu earned a badge
      Dedicated
    • First Post
      Tom Schmidt earned a badge
      First Post
    • One Month Later
      D0nn13 earned a badge
      One Month Later
  • Popular Contributors

    1. 1
      +primortal
      443
    2. 2
      +Edouard
      177
    3. 3
      PsYcHoKiLLa
      124
    4. 4
      Michael Scrip
      78
    5. 5
      Xenon
      76
  • Tell a friend

    Love Neowin? Tell a friend!