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Posts Tagged ‘ motherboard ’

By Rick Broida
January 14, 2011

SAN FRANCISCO – A reader by the awesome name of Rick told me the motherboard died in his eMachines T2893 desktop. His question: where to find a replacement, or, better yet, an upgrade?

A quick Google search (ahem) revealed a motherboard replacement, complete with CPU and fan, for $109.95. That’s not a bad price, but based on what I’ve learned about the T2893, I think it’s time to consider a different kind of upgrade. Namely, an entirely new system.
According to the specs I found on eMachines’ Web site, I’m guessing your T2893 is 7-10 years old. It has a Celeron processor, 512MB of RAM, and an 80GB hard drive. Your actual configuration may vary, or perhaps you’ve upgraded certain components over the years, but trust me when I say this: it’s time for a new (or at least newer) PC.

It’s not that replacing a motherboard is terribly difficult (though it can be if you’re not accustomed to monkeying around inside a PC case). But when you’re done, you’ll be left with the same slow, out-of-date machine you have now.

My advice: look for deals on refurbished desktops. I’ve seen some nicely equipped systems (that include Windows 7) for as low as $279. If you don’t mind used gear, you might find an even better deal on eBay or Craigslist.

There are other considerations, of course, but I’d think twice about putting time and money into a system as old as yours.

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By Loyd Case
July 15, 2010

SAN FRANCISCO – Even accomplished geeks shy away from motherboard upgrades on their main PCs. Years ago, I would often upgrade gaming and test systems in my own basement lab, but keep chugging along with a production machine using a two-year-old motherboard and CPU.

Then I learned how to swap in a new motherboard without having to deal with a clean install. It isn’t that difficult, provided you do a little up-front prep. The hard part is not the hardware installation–modern motherboards are easier to set up and install than in years past–it’s bringing up an existing Windows installation and all your applications.
In this article I’m going to focus on a single-generation upgrade. Examples might include moving from an Intel Core 2-generation board to a Core i5/i7 board, or from an AMD Athlon 64 X2 AM2 board to a Phenom X4-capable board. Even in this case, you may be looking at additional hardware–particularly memory, if you’re moving from DDR2 RAM to DDR3.

Specifically, I won’t look at trying to move from very old hardware (say, a motherboard with AGP) to brand-new hardware. If you’re planning on moving from ancient gear to current gear, a clean install really is the best way to go.

Here I’ll walk you through the process of upgrading the motherboard in an existing PC, including taking care of all the software issues. The goal is to keep and maintain your existing Windows installation even after a motherboard upgrade. I’ll focus on the process with Windows 7, but I’ll also offer tips and tricks for Windows XP and Windows Vista.

Performing a motherboard upgrade is fairly simple, and consists of three parts: pre-upgrade preparation, the physical swap, and post-upgrade polishing.

Prepping for the Swap

Step 1: Back Up!

One key point to remember: You are putting your data at risk. Even if you’re not into regular backups, now is the time to back up your system. I suggest backing up your valuable data onto an external drive first. Then, if possible, make an image backup of your entire hard drive, using a tool such as Acronis True Image ($50) or DriveImage XML (free). You don’t have to clone to another hard drive; just put an image file on another drive, even on the external drive that contains the data backup.

Step 2: Collect Software Registration Keys

Take a close look at all the software you’re running. Most modern applications require entering a registration key. You may have to reenter those keys, so make sure that you have them on hand, preferably on hard copy. If you have a lot of programs, grab Magical Jelly Bean Keyfinder–it will pull all of your registration keys so that you can easily record them.

Step 3: Deactivate or Uninstall Activated Applications

If an application requires activation, it may see a new motherboard as an attempt to copy the software illegally, and it may refuse to run as a result. For example, most Adobe professional apps (Photoshop, After Effects, Premiere Pro, and the suites, CS3 or later) require activation. However, they also have a handy “Deactivate” button in the help menu. If you’re running an Adobe suite, you need to deactivate only one app to take care of the whole affair; but if you’ve installed individual programs, you’ll have to deactivate those as well.

Similarly, some games will require deactivation or uninstallation if they’ve been activated. Whatever the application, if it has gone through an activation process, you need to be prepared to reactivate it when you’re installing a new motherboard. This rule of thumb may include Windows itself–I’ll talk about how to take care of that in the post-upgrade section.

It’s possible to skip the uninstall step for some apps, but doing so may mean that you’ll find yourself calling the company for a new activation. I’ve done this for both Adobe and Microsoft apps without any issues, but it can be time consuming.

Step 4: Update Your Drivers

This step is particularly useful if you’re moving from an older Intel chipset to a newer one (or from an older AMD chipset to a more recent generation). The latest Intel chipset drivers, which you can download from Intel’s Website, are generally supersets, so the driver for your motherboard will also install drivers and .INF files for newer chipsets. Note that these files aren’t actually active in your system, but are enumerated and installed when you bring up Windows for the first time on the new board.

It’s also a good time to update your graphics board’s drivers and, if you have a discrete sound card, your audio drivers. If you’re using the motherboard’s integrated audio, you’ll obviously be installing those drivers after the upgrade.

Step 5: Check Your Storage Settings

First, check your disk-interface settings. Migrating between chipsets from different companies can be problematic. For example, if you’re moving from an nVidia chipset to an Intel one, you’ll want to make sure that your PC isn’t running proprietary nVidia drivers for IDE. Otherwise, you might experience a blue-screen error on first boot–namely, the dreaded ‘STOP 0×0000007′ error, indicating that the disk interface is unrecognized.

For this article, I’ll be upgrading a relatively standard desktop system with a single boot drive. Similar considerations hold true for RAID setups, however. If you’re running RAID 1, you might want to revert to a single-volume setup until you get the system up and running. If you’re running RAID 0, it’s more complicated if the chipset manufacturers differ; you may have to reimage the volume to a single drive until after the installation. Note that moving from one Intel RAID generation to the next usually works without a hitch.

This is one reason backups are critical: You are changing your primary storage driver.

Note that I’m talking about boot drives here. If you have a RAID 1 or RAID 0 secondary drive, you’ll probably be okay–but back up before upgrading anyway. There’s always the chance that the new system won’t recognize your old RAID volume if you’re using the motherboard chipset to handle RAID.

If your machine is booting off an add-in disk-controller board (for instance, a PCI Express SAS or SCSI controller), you might not have a problem with the first boot, but there’s no guarantee. You may have to perform a Windows repair (possible with Windows XP or Windows 7, but something you can’t really do with Vista).

If you are migrating between similar chipsets (old Intel to new Intel, for example) and are running Intel RAID or AHCI (Advanced Host Controller Interface) mode, update the Intel RAID drivers to the latest version.

Check your BIOS setting to be certain, and make sure your new motherboard’s settings are the same before fully booting for the first time. For example, if you’re running AHCI in the current arrangement, set your new motherboard to AHCI in the BIOS prior to your first system start.

There are other possibilities as well–and if you have an unusually complex setup, a clean install may be the only way to go.

The Upgrade

For this article, I picked a pretty straightforward project. The system to be upgraded had an Intel Core 2 Duo E8400 CPU running on an Intel DX48BT2 motherboard, which uses an Intel X48 chipset. Though it was already a fairly fast system, it served my purposes, as it consisted of a last-generation CPU running on top of an older chipset.

I replaced the DX48BT2 with an Intel DX58SO motherboard, plus a Core i7 930 processor (2.8GHz) and 6GB of DDR3 memory from OCZ.

The original system had a few games, Microsoft Office, and Windows 7 Professional 64-bit edition. Office, of course, required activation, as did Windows itself.

To swap in the new gear, find a good work space that’s flat, dry, and free of static electricity. If you live in a cold, dry area, running a humidifier in the background may be worthwhile. If possible, ground yourself with an antistatic strap; if you don’t have one, be sure to touch bare metal to ensure that you’ve discharged static electricity before proceeding.

First, remove the old motherboard. You need to be careful when removing the CPU cooler and, in particular, the tiny connectors that run to the status LEDs, as well as the power and reset buttons. In fact, make sure to disconnect all wiring and cables before you start pulling out mounting screws. You’ll probably want to remove the old memory and CPU, as well, storing them in appropriate, static-free containers. (Note: Tupperware and similar containers are not a good idea.)

You’ll need a number 2 Phillips screwdriver, and possibly some fine needlenose pliers. Once you’ve disconnected all the wiring, take out the mounting screws and set them aside, and then wiggle the motherboard out carefully. Store the board in an antistatic envelope. Be sure to remove the ATX I/O plate, too.

Motherboard Installation

Before you drop in the new motherboard, check the standoffs that accept the mounting screws. Make sure they’re installed–some may have come out when you removed the original board. Also confirm that they’re properly aligned vertically.

Unpack the new motherboard, making sure to remove the CPU socket protector before proceeding with CPU installation.

Don’t forget to install the ATX I/O back plate, or you’ll find yourself removing the motherboard to install it.

Now it’s time to prep the new motherboard. Just to make life interesting, on my system I decided to use a high-end CPU cooler, the Thermalright Ultra120. That requires the installation of a mounting plate on the backside of the motherboard.

If you’re using a stock Intel cooler, you can skip this step; the Intel cooler uses expansion pushpins to lock down the cooler, so no mounting plate is necessary. Just be certain that the pushpins line up properly before you press down.

The Thermalright mounting plate fits snugly; but don’t push too hard, as the motherboard itself has a mounting plate for the LGA1366 socket.

Flip the board over, making sure the cooler mounting plate doesn’t fall off. Now gently insert the CPU into the socket, confirming that the notches on the side of the CPU circuit board align with the tabs on the socket.

Attach the heat-sink mounting brackets, screwing down gently–don’t screw the brackets too tightly. Then spread a thin layer of thermal paste on the surface of the CPU heat spreader to ensure robust thermal contact with the heat sink.
Prior to installing the cooler, install the DDR3 memory modules into the appropriate sockets. I chose my specific set of DDR3 modules partly because they’re relatively low profile, and don’t have extra-tall heat sinks of their own; otherwise, the Thermalright heat sink wouldn’t have fit.

The Ultra120 heat sink attaches with two spring-loaded screws. Make sure the center pin on the screw mound nests into the dimple on the upper side of the heat sink.

This image doesn’t show the 120mm cooling fan that attaches to the heat sink; that part just slides on with a simple plastic clip.
Making the Connections

After you’ve installed the motherboard, CPU, memory, and cooler, it’s time to attach all of the connectors. Your motherboard documentation will show you the layout for these, so consult that before proceeding. Here are the basics you’ll need to connect.

Finally, install the PCI Express graphics card and make sure to attach the PCIe power connectors to the card.
Okay, now it’s time to boot the system, right? Well, not quite.

Review: Things to Check

Always go back and review what you’ve done before booting up the PC–I always forget something.

    • Is the memory seated properly?
    • Is the CPU cooling fan connected to power?
    • Are the mounting screws screwed in properly?
    • Is the ATX I/O back plate installed?
    • Are the power and reset switch connectors attached?
    • Are the IDE and power LED connectors attached?
    • Is the case-fan power connected?
    • Are the storage data and power cables connected?
    • Are both the main and ATX12V power cables connected?
    • Is the PCI Express power connected to the graphics board?

Now that you’ve double-checked all the connections, you need to attach the external cabling, namely the power, keyboard, mouse, network, and video cables. Next, you’ll power up the system.

Post-Upgrade Follow-Up

Before you attempt to boot into Windows, get into the BIOS setup program by pressing F2 (Intel motherboards) or Del (most other motherboards). You want to check the boot order, particularly if you have more than one hard drive–you need to make sure that the Windows boot drive is the first drive the system sees. Most modern motherboards allow you to specify which SATA drive is the boot drive.

Also check that you have the right storage type specified for your configuration: IDE, AHCI, or RAID. (Note: If you’re using a solid-state drive, don’t enable AHCI.)
Once you’re confident that the correct boot drive is specified, boot up the system.

Assuming you’ve connected everything properly, you should see the Windows 7 boot screen. You’ll then need to wait as Windows enumerates all the new hardware. Since I installed the latest Intel motherboard drivers prior to taking out the old motherboard, this process went smoothly for me.

After all the devices have been enumerated and the drivers updated, you’ll need to reboot the PC.

Once you’ve rebooted a second time, check to see if Windows thinks it needs to be activated. You may get a warning to this effect. You can just bring up the system property sheet (in the System control panel) and look at the bottom. There you’ll see an ‘activate windows now’ query, along with an expiration period. I’ve encountered grace periods as short as three days in a motherboard upgrade; in other instances, Windows doesn’t need reactivation. It seems to be something of a crap shoot, but the majority of the time, you’ll need to reactivate the OS.

In my particular case, activating over the Internet worked fine. Bear in mind, however, that you may have to resort to contacting the Microsoft activation hotline via telephone if activation over the Internet is denied. The process takes only a few minutes, and requires entering codes into fields. If the automated system asks you how many computers this copy of Windows is running on, make sure you answer “1″.

Cross-Chipset and Cross-CPU Upgrades

If you’re moving from AMD to Intel or vice versa, or if the new motherboard uses a chipset from a different manufacturer than the old one, you need to do a little more work.

First, grab your Windows setup disc and your Windows CD key. If you’re upgrading a Windows XP installation, boot from the Windows XP CD. Follow the normal instructions for installing Windows XP, but do not reformat or perform a clean install. Instead, follow the prompts for a repair install. What that will do is update the storage driver to one that Windows will recognize when it boots.

This also works with Windows 7, using the ‘Repair My System’ option. In both cases you’ll need to reenter the Windows key.

Windows Vista makes the process more painful: Vista has no repair option, a serious oversight on Microsoft’s part. What has sometimes worked is to boot into safe mode, install the new storage drivers (from the motherboard maker’s CD or floppy disk), and then proceed with the boot. But if that doesn’t work, you may find yourself performing a clean install after all–which is why backing up your system prior to an upgrade is critical.

Final Thoughts

The upgrade path I present in this article is simple and straightforward, but lays down the groundwork you’ll need if you have a more-complex setup. I’ve performed this type of upgrade several times now with Windows 7, and the machines all continue to run trouble-free.

Even if you think you might need to perform a reformat and a clean install, try running your existing Windows installation first. You might be pleasantly surprised at the result.

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June 17, 2010

foxconnFoxconn Technology, a motherboard manufacturer, has launched its first motherboard built with the AMD 890GX platform. The A9DA-S supports the latest AM3 socket, Phenom II and Athlon series processors. It also features dual channel DDR3 up to 16 GB memory, integrated ATI Radeon HD4290 Graphics, Hybrid Crossfire and other user-friendly designs.

Besides providing users with an exceptional high-definition multimedia experience, the A9DA-S series is also equipped with a wide range of connectivity options including DVI, HDMI as well as S\PDIF OUT. With an additional PCI-E 2.0 X16 graphics interface to support the ground breaking ATI Hybrid Graphics technology, users are able to combine the power of their integrated ATI Radeon HD 4200 graphics core for enhanced gaming performance, productivity and power efficiency.

By supporting DDR3 memory up to 1600, the FoxconnA9DA-S gives users the flexibility to build their system based on their individual memory needs. Equipped with 128MB of 1600MHz DDR3 Side Port memory, it is capable of reaching a 3DMark06 score of 2200+, which is commendable for an integrated graphics solution. It also has user-friendly features that include Power On and Reset buttons, Debug LED, and voltage test points for CPU Vcore, DRAM, and HT Voltage.

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Gigabyte-MA790FXT

Gigabyte, a manufacturer of motherboards and graphics cards has announced the release of the GA-MA790FXT-UD5P, the brand’s first AMD “Dragon Platform” qualified motherboard fitted with next generation AMD AM3 Phenom II processor support.

Sportting the new AMD AM3 socket, the Gigabyte GA-MA790FXT-UD5P allows users to elevate their rig beyond the standard limits with support for the highest performing ever 45nm AMD Phenom II processors. Featuring HyperTransport 3.0 and integrated DDR3 memory controller, the GA-MA&90FXT-UD5P is the first motherboard to reach memory speeds of up to 1666+MHz (OC) for blazing fast memory access for today’s latest applications and games with greater energy efficiency. Built with top-notch high-performance engineering, it also features the highest quality 8+2 CPU VRM power phase design, able to handle the power demands from 140W CPUs with ease.

No performance platform would be complete without the very latest in graphics technologies and the Gigabyte GA-MA790FXT-UD5P doesn’t disappoint. Equipped with the AMD 790FX North Bridge, it offers Dual x16 PCI-E 2.0 graphics interfaces to deliver the latest ATI CrossFireX support for the ultimate gaming platform. Plugging in dual graphics cards also enables support for up to four monitors, ideal for users wanting to boost their productivity by maximizing their multi-tasking capabilities.

Getting the most performance out of your system has never been easier as the Gigabyte GA-MA790FXT-UD5P delivers AMD OverDrive support, allowing high-end users the ability to fully customize and monitor the performance and settings of their system. In addition, high-end performance junkies will love the latest EC AOD-ACC Embedded Controller, which allows AMD Phenom II Black Edition CPUs to be overclocked using the AMD OverDrive utility further than what was previously possible.

Advanced connectivity options are keys to any high end system, and the Gigabyte GA-MA790FXT-UD5P delivers with a combined total of up to 10 SATA 2.0 device support. In addition to the six SATA 2.0 (3Gb/s) ports from the SB750 (with RAID 0, 1, 5, 10, and JBOD support), the Gigabyte GA-MA790FXT-UD5P provides an additional four SATA 2.0 ports through the onboard JMicron controller (JM363 & JM322 with RAID 0, 1, and JBOD support), enabling GIGABYTE’s Smart Backup technology which allows users to connect up to four SATA 2.0 devices for effortless hardware-based RAID data protection on-the-fly. The GIGABYTE GA-MA790FXT-UD5P also features Dual Gigabit LAN connections with Teaming, which allows two single connections to act as a single connection for twice the bandwidth to improve overall throughput.

Other Unique Gigabyte Features
The Gigabyte GA-MA790FXT-UD5P is yet another example of GIGABYTE engineering at its finest with its revolutionary Gigabyte Ultra Durable 3 design, featuring 2 ounces of copper for both the Power and Ground layers which dramatically lowers system temperature by delivering a more efficient spreading of heat from critical areas of the motherboard such as the CPU power zone throughout the entire PCB. Gigabyte’s Ultra Durable 3 also lowers the PCB impedance by 50%, which helps to reduce electrical waste and further lowers component temperatures. A 2oz Copper layer design also provides improved signal quality and lower EMI (Electromagnetic Interference), providing better system stability and allowing for greater margins for overclocking.

Low RDS(on) MOSFETs are specially designed to produce lower switching resistance for faster electric current charging and discharging.

Ferrite Core Choke Design – Low Power Loss
Ferrite core chokes comprised of a compound of iron oxide and other metal elements whose properties hold energy much longer than common iron core at high frequency.

All-Solid Capacitor Design – Longer Life
Solid capacitors contain a solid organic polymer, while electrolytic capacitors use a common liquid electrolyte, hence, the terms solid capacitor versus electrolytic capacitors.

Easy Energy Saver
Gigabyte now makes it even easier for users to take advantage of power savings with the new Gigabyte Easy Energy Saver. Featuring an advanced proprietary software design, Gigabyte Easy Energy Saver is able to dynamically adjust CPU power depending on workload, delivering just the right amount of power needed for the task.

Dolby Home Theater – Enjoy a Rich Home Theater Surround Sound Experience
Dolby Home Theater places listeners in the middle of the action, giving their PCs a powerful set of tools to deliver a cinema-style experience in vivid surround sound. It delivers vivid surround sound for music, movies, and games, using two to eight speakers or any set of headphones. It’s designed to automatically deliver the best possible listening experience.

Smart Backup – Plug & Play Hardware RAID
Gigabyte’s Smart Backup allows users to connect up to four Serial ATA devices for effortless RAID data protection. Dual onboard RAID controller chips automatically configure RAID setup without user intervention, making it easier than ever for users to enjoy enhanced data transfer performance, low CPU utilization, real-time backup on-the-fly and protection against HDD failure.

DualBIOS – Patented Dual Hardware BIOS Protection
DualBIOS is a Gigabyte patented technology that automatically recovers BIOS data when main BIOS has crashed or failed. Featuring 2 physical BIOS ROMs integrated onboard, Gigabyte DualBIOS allows quick and seamless recovery from BIOS damage or failure due to viruses or improper BIOS updating.

Two Gigabit LAN through Teaming
Teaming functionality enabled allows two single connections to act as a single connection for twice the bandwidth, improving overall throughput with lower CPU utilization. It prevents network downtime by transferring the workload from a failed port to a working port. Receive Side Scaling balances the network traffic load evenly between 2 CPU cores in order to improve performance. Power consumption is also automatically adjusted according to your LAN cable lengths, up to 10% power savings.

EasyTune6
Gigabyte has completely redesigned EasyTune6 from the ground up to make it easier than ever to manage and monitor your hardware resources as well as tweak your system settings in order to achieve maximum system performance. Whether you are an overclocking enthusiast, or a computer novice, EasyTune6 provides the tools you need to quickly and effortlessly fine tune your system.

Onboard Quick Switches
Onboard Power, Clear CMOS and Reset buttons allow for quick and easy tweaking for power users working in an in chassis environment.

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Asus P5Q3 Deluxe WiFi-AP @n

By Jon on March 15, 2009

March 15, 2009

Motherboard-On-the-Go
By Billy Joe I. Allardo
Published in the November 2008 print edition of PC World Philippines

Asus P5Q3 Deluxe wi-Fi-AP @n
www.lenovo.com/ph

Nope, the image is not a misprint. The Asus P5Q3 Deluxe initially looks like the Asus P5Q Premium we had last September due to its same copper heatsink design and the layout of the expansion slots. Based on Intel’s P45 Northbridge chipset, the Asus P5Q3 Deluxe is actually beefier than the other aforementioned Asus motherboard. It offers the same support for dual- and quad-core Intel LGA775 processors with bus speeds of 1600MHz, but this board can support up to 16GB of 1600/1333/1066/800MHz DDR3 memory.

1600/1333/1066/800MHz DDR3 memory. The Southbridge Intel ICH10R chip can oversee up to six Serial ATA 3.0Gb/s devices with RAID 0, 1, 5, and 10 configurations. On the other hand, a Marvell 88SE6121 manages the Parallel ATA header and the lone external Serial ATA 3.0Gb/s port. A Silicon Image SIL5723 supports two more Serial ATA 3.0Gb/s, but enhances it with a unique technology that allows immediate backups and boosted file transfers.

What makes Asus P5Q3 Deluxe a little bit more special is its wireless capability, as it comes with an embedded WiFi card. All you need to do is to screw in the pair of the bundled antennas, and upload the needed driver from the utility CD. The built-in WiFi card is compatible with the draft 802.11n standard, making it capable of connecting up to 300Mbps, yet it is backwards compatible with earlier 802.11g/b standards. The setup is straightforward, and it also allows for switching between client and access point modes.

It has a dual Gigabit Ethernet port for network purposes. As for connectivity, the rear I/O ports features six USB hubs with Firewire and external Serial ATA ports.

Like most Asus motherboards lately, the board comes equipped with Express Gate, a Linux-based operating system (OS) that allows immediate use without having to wait for the main OS to boot up. After filling up the necessary network parameters, you can browse the Internet using a Mozilla Firefox-based browser, view stored images, and create or answer e-mails or instant messages. I find Express Gate useful for doing quick tasks.

Perhaps the most overlooked feature of the Asus P5Q3 Deluxe is its layout, designed to maximize power distribution by lessening heat emission at the same time, thus stabilizing the system while prolonging the integrity of each attached component. The heatsink zigzags in between the parts that radiate the most heat, coupled by choice capacitors and transistors that aim to provide a stable performance under intense heat generated from long PC uptimes.

I find the Asus P5Q3 Deluxe as a full-featured motherboard that can figure in a number of specific themes. The performance chipset can serve as the backbone of a high-end PC, armed with a top-end processor, a set of brawny graphics cards, with a lot of memory. It can also serve as the central computer of a network hub. Its embedded Wi-Fi card enables it to be the main access point to which other wireless devices will hook up to.

In addition, the Express Gate utility provides on-the-go ability, giving you the opportunity to pour over e-mails, instant messages, and the latest news before heading out.

The board has a lot of potential, with its means to support top PC components, coupled by the built-in Wi-Fi card. The ExpressGate utility and passive power management features are prettyu big bonuses.
Form Factor
ATX
SocketIntel LGA775
Chipset(s)Intel P45, Intel ICH10R, Marvell 88sE6121, Silicon Image SIL5723
Memory1600/1333/1066/800MHz. 16GB max
Videos Processing
none
ExpansionPCI-E x16 2.0 (2), PCI-E x16, PCI-W x1 (2), PCI (2)
SysMark 2007
85
3dMark 2006
8689 (1280×800)
8561 (1440×900)
FEAR (Direct 9.0c)
154 (1280×800)
150 (1440×900)
Company of Heroes (DirectX 10)
52.8 (1280×800)
50.4 (1440×900)


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MSI P45-8D Memory Lover

By Jon on March 3, 2009

March 3, 2009

memorylover

MSI P45-8D Memory Lover
By Billy Joe I. Allardo
Published in the December 2008-January 2009 print edition of PC World Philippines

P8,950
www.msi.com.tw

It is normal to see eight memory modules on a server motherboard, as its likely environment requires a high memory count to meet the demands of number-crunching processes. With this in mind, eight DIMM slots on a desktop board can be quite rare.

The MSI P45-8D Memory Lover does. It literally stays true to its name by having eight pastel colored memory slots on it, giving it the ability to handle up to four DDR2 or four DDR3 memory types. Of course, you could not plop the said types altogether as both run at different speeds, but you can run four at a time though, with the slots evenly divided between the two aforementioned types. The board can support up to 16GB 1066/800/667MHz DDR2 or 8GB 1600/1333/1066/800 DDR3.

The Memory Lover can prop dual- and quad-core Intel LGA775 processors with a front side bus of up to 1600MHz as well as single-core LGA775-based Celeron units. Managing its Northbridge devices is an Intel P45 chip while the Southbridge is controlled by an Intel ICH10R that can run up to eight Serial ATA 3Gb/s devices with RAID 0, 1, 5, and 10 configurations.

In spite of the excessive memory options, the Memory Lover sorely lacks the facility to expand. It only has one PCI-Express 2.0 x16 slot, that goes along with a solitary PCI-E x1 and three PCI slots. The single PCI-E x16 slot automatically takes away the possibility of employing a multi-GPU setup for a more powerful approach to graphics-intensive applications.

It would have been nice if the board also has an embedded graphics chip, to further exploit its memory capacity and save some money in the process. The mentioned items could have benefited from the proprietary technologies that MSI added that includes the solid-state capacitors and shielded chokes for better power handling and a built-in overclocking switch that enables direct system tweaking with preset settings.

The MSI P45-8D Memory Lover could have been great, if it had maximized the potential of its memory capacity and the Intel P45 chip. Yet it finds a specific niche among people who currently prefer using the prevalent DDR2 memory, but would likely switch to the faster DDR3 type once the price drops.

In spite of the bevy of memory slots, you can use up to four slots and only one type at a time for superior memory flexibility. Yet the drawbacks are apparent, centering most on the failure to utilize fully the memory capacity and the Northbridge chip.
Form Factor
ATX
SocketIntel LGA775
Chipset(s)Intel P45, Intel ICH10R
Memory1066/800/667MHz DDR2 (40), 16GB max
1600/1333/1066/600 DDR3 (3), 8GB
ExpansionPCI-E 2.0 x 16, PCI-E x1, Pci (3)
SysMark 2007
88
3dMark 20068702 (1280×800)
3dMark Vantage (CPU)
3357 (1280×800)
3349 (1440×800)
3dMark Vantage (GPU)
6652 (1280×800)
5389 (1440×900)
FEAR (Direct 9.0c)
155 (1280×960)
Company of Heroes (DirectX 10)
52.8 (1280×800)
50.4 (1440×900)
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