F5F Stay Refreshed Hardware Desktop Curious and a bit awkward about motherboards? Let me know what you're wondering!

Curious and a bit awkward about motherboards? Let me know what you're wondering!

Curious and a bit awkward about motherboards? Let me know what you're wondering!

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beichner
Senior Member
447
11-25-2018, 09:09 PM
#11
The main variations stem from a budget-friendly (under $120) motherboard versus a mid-range one ($120–250). Beyond that, the gains start to fade. Moving from mid-range to high-end boards over $400 offers only minimal improvement.
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beichner
11-25-2018, 09:09 PM #11

The main variations stem from a budget-friendly (under $120) motherboard versus a mid-range one ($120–250). Beyond that, the gains start to fade. Moving from mid-range to high-end boards over $400 offers only minimal improvement.

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xherxes
Junior Member
5
11-27-2018, 09:30 PM
#12
Ah ok, well thanks I appreciate it Smile. Sometimes the wisest thing to say is to say you don’t know and be aware of what you know and what you don’t know instead of trying to pretend you know everything like some people do.
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xherxes
11-27-2018, 09:30 PM #12

Ah ok, well thanks I appreciate it Smile. Sometimes the wisest thing to say is to say you don’t know and be aware of what you know and what you don’t know instead of trying to pretend you know everything like some people do.

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Hols8888
Member
140
11-28-2018, 06:11 AM
#13
If mine was $119.99, it fits the midrange range. The decreasing benefits you mention are similar to other parts—like moving from an i7 8700K to 9700K or switching from 3200MHz to 3600MHz RAM.
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Hols8888
11-28-2018, 06:11 AM #13

If mine was $119.99, it fits the midrange range. The decreasing benefits you mention are similar to other parts—like moving from an i7 8700K to 9700K or switching from 3200MHz to 3600MHz RAM.

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flyer78
Senior Member
425
12-01-2018, 10:57 PM
#14
Yes, the outcome also relies on chance. If you're fortunate to purchase memory modules that support strong overclocking, you'll find some chips can only reach certain speeds regardless of your efforts. Others might hit frequencies high enough to noticeably improve performance. There are two primary methods for linking memory slots to a CPU socket: the standard approach and the less common T-Topology. The latter is believed to provide better overclocking capabilities and works more effectively when using four modules. Daisy-chain connections are more widely used because they simplify design and suit typical setups with two sticks. Premium boards often feature multiple layers—like a 99$ board with four layers versus a 250$ board with six or eight—making the latter more complex to produce, costing more and taking longer. Adding extra layers allows for better signal separation between traces and sockets, reducing interference and enabling higher stable frequencies. This improvement can help memory controllers maintain performance at greater speeds or with tighter timings. It's worth noting that we're not comparing 3200mhz to 3600mhz here; even a 80$ board can handle 3600mhz today, but quality becomes crucial above 4000mhz, especially if you aim for ultra-low latency—such as pushing a 3200mhz CL16 stick to 4000mhz with an unusually aggressive setting, which would likely fail.
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flyer78
12-01-2018, 10:57 PM #14

Yes, the outcome also relies on chance. If you're fortunate to purchase memory modules that support strong overclocking, you'll find some chips can only reach certain speeds regardless of your efforts. Others might hit frequencies high enough to noticeably improve performance. There are two primary methods for linking memory slots to a CPU socket: the standard approach and the less common T-Topology. The latter is believed to provide better overclocking capabilities and works more effectively when using four modules. Daisy-chain connections are more widely used because they simplify design and suit typical setups with two sticks. Premium boards often feature multiple layers—like a 99$ board with four layers versus a 250$ board with six or eight—making the latter more complex to produce, costing more and taking longer. Adding extra layers allows for better signal separation between traces and sockets, reducing interference and enabling higher stable frequencies. This improvement can help memory controllers maintain performance at greater speeds or with tighter timings. It's worth noting that we're not comparing 3200mhz to 3600mhz here; even a 80$ board can handle 3600mhz today, but quality becomes crucial above 4000mhz, especially if you aim for ultra-low latency—such as pushing a 3200mhz CL16 stick to 4000mhz with an unusually aggressive setting, which would likely fail.

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