Product News                                                    

 launched, it quickly gained attention for its panoramic visibility and bold geometric design. Along the way, we also received valuable feedback from users who loved the look but wanted a version with a more streamlined layout and airflow-focused adjustments.

 — not an upgrade, not a downgrade, but 

 that offers the same design DNA with a different approach to space, cooling, and usability.

Both models feature a panoramic three-glass structure that opens the system from nearly every angle.

Each model carries the signature DY Series faceted panel design, creating clean reflections and sharp visual lines.

Both cases fully support back-connect motherboards for a cleaner interior and simplified cable routing.

The DY460 and DY470 share the same visual identity and panoramic presentation, but they serve different building styles. Two designs, one philosophy, giving builders the freedom to choose the version that fits their vision.

Ideal for players who want a cleaner airflow path, a more compact footprint, and a layout designed around everyday usability and straightforward cable management.

Ideal for users who prefer broader internal space, more flexibility for fans and radiators, and a full showcase-style build with wide panoramic visibility.





When the DY470 launched, it quickly gained attention for its panoramic visibility and bold geometric design. Along the way, we also received valuable feedback from users who loved the look but wanted a version with a more streamlined layout and airflow-focused adjustments.

This led to the creation of the DY460 — not an upgrade, not a downgrade, but a parallel option that offers the same design DNA with a different approach to space, cooling, and usability.



What They Share

Three-Sided Glass, 330° Visibility

Both models feature a panoramic three-glass structure that opens the system from nearly every angle.







Diamond-Cut Aesthetic

Each model carries the signature DY Series faceted panel design, creating clean reflections and sharp visual lines.







Back-Connector Motherboard Support

Both cases fully support back-connect motherboards for a cleaner interior and simplified cable routing.







Where They Differ

Size and Footprint





DY460: 452 × 238 × 505 mm, more compact for typical desk setups.



DY470: 473 × 298 × 497 mm, wider internal space for fans, radiators, and large GPUs.





Airflow and PSU Chamber





DY460: louvered PSU chamber panel to enhance bottom-area ventilation.



DY470: solid chamber design for a cleaner showcase look.



(DY460, Louvered side vents)



Internal Layout





DY460: top-and-bottom chamber layout for straightforward cable management.



DY470: left-and-right dual-chamber design, offering a wider main compartment for high-end builds.



(DY460, top-and-bottom chamber)



I/O Placement





DY460: Front-mounted I/O for easy access on a desktop.



DY470: Side-mounted I/O, ideal for larger showcase-style setups.



(DY460, Front-mounted I/O)



Conclusion

The DY460 and DY470 share the same visual identity and panoramic presentation, but they serve different building styles. Two designs, one philosophy, giving builders the freedom to choose the version that fits their vision.







DY460

Ideal for players who want a cleaner airflow path, a more compact footprint, and a layout designed around everyday usability and straightforward cable management.







DY470

Ideal for users who prefer broader internal space, more flexibility for fans and radiators, and a full showcase-style build with wide panoramic visibility.





The DY460 and DY470 share the same design DNA, but each offers a different approach to space, airflow, and building style.

DY460 vs. DY470: Two Choices, One Shared Vision

Build Guides                                                    

When building a PC, one of the most important yet confusing steps is connecting the Power Supply Unit (PSU). The PSU sends power to every component in your system — from your motherboard and CPU to your GPU and drives.

In this guide, we’ll use the darkFlash PMT Series PSU — known for its modular design, high efficiency, and clean cable layout — as a real example to show you where every cable goes and what each one does.

2. CPU 4+4-Pin Connector – Powering the Processor

Delivers power directly to your CPU for stable operation.

The 4+4-pin (EPS) cable from your PSU goes into labeled 

 socket at the top-left corner of your motherboard.

3. SATA Power Connector – For Storage & Accessories

Powers SATA-based storage drives and accessories, such as:

The flat, L-shaped SATA connector plugs into the side of drives or accessories.

4. Molex Connector – For Legacy Devices

Supplies 12V power to older devices or certain accessories (like some LED strips or fan hubs).

If your accessories use Molex, connect them to the Molex chain cable from your PMT PSU. Otherwise, you can leave this cable unused.

5. PCIe 6+2-Pin Connector – For Your Graphics Card

. Modern GPUs demand a lot of power, often requiring multiple connectors.

Connect the 6+2-pin PCIe cable(s) from the PSU to your GPU’s power input(s).

3× 8-pin or 12V-2×6 for high-end models

6. 12V-2×6 Connector – For Next-Gen GPUs

This next-generation connector (also called 12VHPWR) delivers up to 600 W through one compact 16-pin plug.

Connect it to your GPU’s 16-pin port until you hear a click. Ensure the plug is fully seated to prevent heat buildup.

Use modular PSUs to connect only what you need.

Route cables behind the motherboard tray for better airflow.

Double-check all connections before turning on your PC.

If you hear no fan spin or lights, recheck the 24-pin and CPU connectors first.

Connecting your PSU correctly is crucial for both performance and safety. Every plug has its purpose — once you understand what each does, building and upgrading your PC becomes easy and enjoyable.

Take your time, check your manuals, and make sure every click counts.





When building a PC, one of the most important yet confusing steps is connecting the Power Supply Unit (PSU). The PSU sends power to every component in your system — from your motherboard and CPU to your GPU and drives.



In this guide, we’ll use the darkFlash PMT Series PSU — known for its modular design, high efficiency, and clean cable layout — as a real example to show you where every cable goes and what each one does.



1. 24-Pin ATX Main Connector







Purpose: Supplies power to the motherboard.
Where it goes: Right edge of the motherboard.



Tip 1:Modern boards use a 24-pin connector, but older ones may use 20-pin. The extra 4 pins are backward-compatible.

Tip 2: The cable is keyed to fit one way. Make sure it clicks securel                                                                       y into place.

2. CPU 4+4-Pin Connector – Powering the Processor







Purpose:

Delivers power directly to your CPU for stable operation.

Where to Plug:

The 4+4-pin (EPS) cable from your PSU goes into labeled CPU_PWR or ATX12 socket at the top-left corner of your motherboard.



Tip: Some motherboards may require additional 4pin or 4+4 pin connector. 

Tip: Be careful not to confuse it with PCIe cables — the pin layout is different even though they look similar.

3. SATA Power Connector – For Storage & Accessories







Purpose: 

Powers SATA-based storage drives and accessories, such as:

SSDs / HDDs

Fan or ARGB controllers

AIO pumps

Where to Plug:

The flat, L-shaped SATA connector plugs into the side of drives or accessories.



Tip: Each SATA cable usually has 3–4 connectors, allowing you to chain multiple devices.

4. Molex Connector – For Legacy Devices







Purpose:

Supplies 12V power to older devices or certain accessories (like some LED strips or fan hubs).

Where to Plug:

If your accessories use Molex, connect them to the Molex chain cable from your PMT PSU. Otherwise, you can leave this cable unused.



Tip: Align the connector carefully — the pins are rigid and can bend if forced.

5. PCIe 6+2-Pin Connector – For Your Graphics Card







Purpose: Provides power to your GPU.

The PCI Express (PCIe) connector powers your GPU (graphics card). Modern GPUs demand a lot of power, often requiring multiple connectors.

Where to Plug:

Connect the 6+2-pin PCIe cable(s) from the PSU to your GPU’s power input(s).

You can use:

1× 8-pin for entry GPUs

2× 8-pin for mid-range

3× 8-pin or 12V-2×6 for high-end models



Tip: Always use PCIe/VGA-labeled cables, not CPU ones.

6. 12V-2×6 Connector – For Next-Gen GPUs







Purpose:

This next-generation connector (also called 12VHPWR) delivers up to 600 W through one compact 16-pin plug.

Where to Plug:

Connect it to your GPU’s 16-pin port until you hear a click. Ensure the plug is fully seated to prevent heat buildup.



Tip: If your GPU uses an adapter (e.g., 3× 8-pin to 12V-2×6), make sure all cables are plugged directly into the PSU — avoid daisy-chaining for high-power cards.

Pro Tips from darkFlash







Use modular PSUs to connect only what you need.
Route cables behind the motherboard tray for better airflow.
Double-check all connections before turning on your PC.
If you hear no fan spin or lights, recheck the 24-pin and CPU connectors first.



Final Thoughts







Connecting your PSU correctly is crucial for both performance and safety. Every plug has its purpose — once you understand what each does, building and upgrading your PC becomes easy and enjoyable.

Take your time, check your manuals, and make sure every click counts.

Learn how to connect your PC PSU correctly! This beginner-friendly guide explains every PSU cable — 24-pin ATX, CPU 4+4 EPS, SATA, Molex, PCIe, and 12V-2x6 — with clear diagrams and tips to power your build safely.

How to Properly Plug In Your PC Power Supply (PSU)

After the success of DY470, darkFlash presents a new interpretation of compact PC design.

 carries the same signature style while reimagining the structure for smarter airflow, space efficiency, and modern aesthetics. It is made for gamers who seek balance between performance and elegance.

 continues the design spirit of DY470, preserving the three-sided panoramic glass concept that has become a favorite among builders. 

, the case still offers full-size compatibility, supporting ATX motherboards, high-end GPUs, and advanced cooling setups.

 introduces a redesigned cooling structure airflow. Louvered side vents work with a raised base to draw in fresh air from multiple directions, cooling the PSU and storage area with greater efficiency.

This layout prevents heat buildup during long gaming sessions and maintains consistent thermal stability throughout the system.

 adopts the same three-sided tempered glass structure that provides a 330-degree panoramic showcase. 

It expands the seaview concept with an added top glass panel, allowing builders to appreciate their components and lighting from every angle.

Each diamond-cut edge reflects light from different angles, creating elegant visual depth and a sense of precision. 

This refined design gives the case a modern architectural feel that stands out from conventional flat panels.

 represents the next chapter of darkFlash design philosophy, proving that compact builds can still deliver style, function, and performance. From its diamond-cut form to its panoramic glass showcase, every detail reflects precision and intent.



darkFlash DY460 ATX PC Case



After the success of DY470, darkFlash presents a new interpretation of compact PC design.

The DY460 carries the same signature style while reimagining the structure for smarter airflow, space efficiency, and modern aesthetics. It is made for gamers who seek balance between performance and elegance.





Compact Form, Same Signature DNA





DY460 continues the design spirit of DY470, preserving the three-sided panoramic glass concept that has become a favorite among builders. 

While the overall footprint is reduced by 23%, the case still offers full-size compatibility, supporting ATX motherboards, high-end GPUs, and advanced cooling setups.



Not an upgrade. A rethink.



Optimized Airflow at the Base





DY460 introduces a redesigned cooling structure airflow. Louvered side vents work with a raised base to draw in fresh air from multiple directions, cooling the PSU and storage area with greater efficiency.

This layout prevents heat buildup during long gaming sessions and maintains consistent thermal stability throughout the system.



Functional ventilation meets clean design, where every element enhances both form and performance.



Three-Sided Glass View





DY460 adopts the same three-sided tempered glass structure that provides a 330-degree panoramic showcase. 

It expands the seaview concept with an added top glass panel, allowing builders to appreciate their components and lighting from every angle.




The result is a clear and immersive display that highlights every detail of the build.



Diamond-Cut Design





Sharp angular panels shape the DY460’s distinctive look. 

Each diamond-cut edge reflects light from different angles, creating elegant visual depth and a sense of precision. 

This refined design gives the case a modern architectural feel that stands out from conventional flat panels.



Minimalist geometry, maximum impact.



DY460 vs DY470: Find Your Fit





Final Thoughts





The DY460 represents the next chapter of darkFlash design philosophy, proving that compact builds can still deliver style, function, and performance. From its diamond-cut form to its panoramic glass showcase, every detail reflects precision and intent.

Meet the darkFlash DY460: smarter space, better cooling, and more affordable.

DY460 ATX PC Case - A New Choice in Design

Tech News                                                       

Following the recent price rebound of DDR4 and DDR5 memory, signs are emerging that GPU costs may soon climb as well. With flash and GDDR memory prices trending upward, the entire graphics card supply chain could feel the pressure. Here’s a breakdown of what’s happening and what it means for PC builders and gamers.

The semiconductor memory market is entering another upward cycle.

Recent data from TrendForce and DRAMeXchange shows that both DRAM and NAND flash prices have increased by 15–25% in late 2025, after nearly two years of decline.

Major manufacturers like Samsung, Micron, and SK Hynix have reduced older production lines and redirected capacity to meet surging AI and server demand. This has tightened supply for conventional memory chips used across PC components — from RAM modules to graphics cards.

A modern GPU relies on graphics memory (GDDR) to process and store data such as textures, frames, and shader information. In high-performance graphics cards, GDDR6 and GDDR6X memory modules can account for up to 20–25% of total production cost.

This means that even small changes in memory pricing can directly influence the final cost of a GPU — particularly for models with 

The recent surge in memory prices is not limited to DDR modules.

Both GDDR (Graphics Double Data Rate) and flash memory used in GPUs are also affected, due to several combined factors:

Fabrication capacity is increasingly prioritized for high-bandwidth memory (HBM) used in AI accelerators, which reduces supply for traditional GDDR chips used in gaming GPUs.

As manufacturers move from GDDR6 to GDDR7, production of older chips slows down, leading to higher costs for remaining stock.

Flash storage, used in GPU firmware and BIOS components, has seen double-digit percentage increases this quarter.

Longer delivery schedules and component shortages are prompting board makers to stockpile inventory, adding further cost pressure.

These factors collectively increase the bill of materials (BOM) for GPU production, even before assembly and logistics are considered.

While GPU manufacturers typically try to maintain stable pricing, cost pressure from memory components can eventually filter down to consumers.

Rather than direct MSRP hikes, consumers may see fewer discounts, slower price drops, or “refresh” models with adjusted specifications and memory sizes.

Despite upward cost trends, several factors may help contain large-scale price jumps:

As a result, the adjustment in GPU pricing is more likely to be gradual rather than sudden, depending on how memory supply evolves through 2026.

To understand where GPU pricing is heading, pay attention to:

These indicators can reveal whether memory costs are translating into real-world price movement.

Conclusion: The Memory Ripple Effect Continues

The memory market’s rebound is already visible in DDR4, DDR5, and NAND flash segments — and GPUs may be next in line. As GDDR and flash memory costs increase, graphics cards could gradually become more expensive over the coming months.

For PC builders and gamers, it may be wise to plan upgrades early or watch for clearance deals before the next product generation arrives.

While the increase may not be dramatic, the trend shows a clear reminder: in the tech world, memory prices influence everything — even the heart of your gaming PC.





Following the recent price rebound of DDR4 and DDR5 memory, signs are emerging that GPU costs may soon climb as well. With flash and GDDR memory prices trending upward, the entire graphics card supply chain could feel the pressure. Here’s a breakdown of what’s happening and what it means for PC builders and gamers.



Memory Prices Are Rising Again





(source credit: TrendForce)



The semiconductor memory market is entering another upward cycle.

Recent data from TrendForce and DRAMeXchange shows that both DRAM and NAND flash prices have increased by 15–25% in late 2025, after nearly two years of decline.

Major manufacturers like Samsung, Micron, and SK Hynix have reduced older production lines and redirected capacity to meet surging AI and server demand. This has tightened supply for conventional memory chips used across PC components — from RAM modules to graphics cards.



GPUs Depend Heavily on Memory





A modern GPU relies on graphics memory (GDDR) to process and store data such as textures, frames, and shader information. In high-performance graphics cards, GDDR6 and GDDR6X memory modules can account for up to 20–25% of total production cost.



This means that even small changes in memory pricing can directly influence the final cost of a GPU — particularly for models with large VRAM capacities like 16 GB or 24 GB.



Rising Flash and GDDR Costs



(image credit: Samsung Semiconductor)



The recent surge in memory prices is not limited to DDR modules.
Both GDDR (Graphics Double Data Rate) and flash memory used in GPUs are also affected, due to several combined factors:

AI-Driven Capacity Reallocation

Fabrication capacity is increasingly prioritized for high-bandwidth memory (HBM) used in AI accelerators, which reduces supply for traditional GDDR chips used in gaming GPUs.



Transition to Newer Nodes

As manufacturers move from GDDR6 to GDDR7, production of older chips slows down, leading to higher costs for remaining stock.



NAND/Flash Price Recovery

Flash storage, used in GPU firmware and BIOS components, has seen double-digit percentage increases this quarter.



Extended Lead Times

Longer delivery schedules and component shortages are prompting board makers to stockpile inventory, adding further cost pressure.



These factors collectively increase the bill of materials (BOM) for GPU production, even before assembly and logistics are considered.



Possible Impact on GPU Prices





While GPU manufacturers typically try to maintain stable pricing, cost pressure from memory components can eventually filter down to consumers.
Based on current trends:





Mid-range GPUs could see 5–10% higher production costs.



High-end GPUs with large VRAM or next-generation memory like GDDR7 could rise by 10–20% in total cost.

Rather than direct MSRP hikes, consumers may see fewer discounts, slower price drops, or “refresh” models with adjusted specifications and memory sizes.



Factors That Could Soften the Effect





Despite upward cost trends, several factors may help contain large-scale price jumps:





Softening GPU demand in the DIY and gaming market may encourage manufacturers to absorb part of the increase.



Improving yields of GDDR7 memory could lower per-chip costs over time.



Remaining inventory from earlier production runs may cushion the short-term impact.

As a result, the adjustment in GPU pricing is more likely to be gradual rather than sudden, depending on how memory supply evolves through 2026.



What to Keep an Eye On

To understand where GPU pricing is heading, pay attention to:





Spot and contract prices for GDDR6/GDDR7 on DRAMeXchange or TrendForce



Quarterly reports from Samsung, Micron, and SK Hynix on memory profitability



MSI, ASUS, and Gigabyte pricing adjustments or inventory clearances



Launch prices of upcoming GDDR7-based GPUs

These indicators can reveal whether memory costs are translating into real-world price movement.







Conclusion: The Memory Ripple Effect Continues

The memory market’s rebound is already visible in DDR4, DDR5, and NAND flash segments — and GPUs may be next in line. As GDDR and flash memory costs increase, graphics cards could gradually become more expensive over the coming months.

For PC builders and gamers, it may be wise to plan upgrades early or watch for clearance deals before the next product generation arrives.

While the increase may not be dramatic, the trend shows a clear reminder: in the tech world, memory prices influence everything — even the heart of your gaming PC.

DRAM/NAND prices are climbing and GDDR is tightening. Here’s how memory cost pressure could nudge GPU prices higher, what to watch, and when it might hit buyers.

Will GPU Prices Rise Next? The Ripple Effect of Flash and Memory Cost Surges

Just months after the noticeable surge in DDR4 prices, the PC industry is facing another wave — this time with DDR5. Once expected to stabilize as production matured, DDR5 memory is now climbing sharply in cost. From high-end desktop kits to mainstream 16 GB modules, prices have risen as much as 

 in certain regions. What’s driving this new round of increases — and how might it affect PC builders, system integrators, and component brands?

, DRAM spot prices surged nearly 10% in a single week this October as buyers rushed to secure inventory ahead of further hikes. DDR5 modules — which once benefited from falling prices as adoption spread — are now trending upward in both spot and contract markets.

 reports that community data shows retail DDR5 kits from brands like Corsair, G.Skill, and Kingston rising significantly in Europe and Asia. In some regions, the price per gigabyte has nearly doubled compared to mid-year 2024 levels.

For consumers, this means one clear thing: upgrading or building a DDR5-based system is getting more expensive again.

The reasons behind the DDR5 price rise are complex, but a few major factors stand out:

Global AI infrastructure build-outs are consuming vast amounts of memory. Data centers deploying GPUs like NVIDIA’s H100 and H200 rely on high-bandwidth DRAM (HBM) and advanced DDR5 chips, directly competing with consumer-grade production capacity.

 recently noted, “AI data centers are swallowing the world’s memory supply.” This diversion of wafer allocation from PC DRAM to HBM has reduced output for DDR5 modules used in consumer and enterprise PCs.

2. Manufacturers Prioritizing High-Margin Products

Major DRAM suppliers — Samsung, SK Hynix, and Micron — have strategically shifted focus toward more profitable segments like HBM3E and LPDDR5X. Commodity DDR5 modules yield lower profit per wafer, so manufacturers are scaling back consumer DRAM lines to optimize margins.

When rumors of supply shortages surface, memory module assemblers and distributors often buy ahead to lock in pricing. This behavior, while rational, amplifies short-term demand and constrains supply in the spot market, leading to sudden price spikes — the same pattern we saw during DDR4’s recent rebound.

4. Supply Chain Transition and Yield Issues

As fabs migrate to 1β and 1α nm nodes for next-gen DRAM production, yields can initially drop. That limits supply while costs remain high. Combined with continued geopolitical uncertainties and logistics challenges, memory output simply isn’t keeping up with demand.

For PC builders and DIY enthusiasts, higher DDR5 prices increase total build cost — especially in mid-range and performance segments.

A memory kit that cost $80–90 earlier this year may now exceed $120–130. While that might seem minor for premium builds, it directly affects the 

, driven by AI hardware demand and restrained production volumes. TrendForce predicts overall DRAM prices could rise 

The silver lining is that DDR5 remains in high demand thanks to platform adoption (Intel 700-series, AMD AM5). As more users transition, economies of scale could eventually bring stability — but not before this current shortage cycle plays out.

DDR5’s price surge highlights the new reality of a memory market dominated by AI and data-center demand. As production capacity shifts toward high-bandwidth applications, consumer DRAM will continue to feel the squeeze. For PC enthusiasts and brands alike, this isn’t just a supply-chain story — it’s a reminder that even as technology evolves, the economics of silicon remain as volatile as ever.





Just months after the noticeable surge in DDR4 prices, the PC industry is facing another wave — this time with DDR5. Once expected to stabilize as production matured, DDR5 memory is now climbing sharply in cost. From high-end desktop kits to mainstream 16 GB modules, prices have risen as much as 30–50% in certain regions. What’s driving this new round of increases — and how might it affect PC builders, system integrators, and component brands?



The Current Market Situation





(image credit :TrendForce)



According to TrendForce, DRAM spot prices surged nearly 10% in a single week this October as buyers rushed to secure inventory ahead of further hikes. DDR5 modules — which once benefited from falling prices as adoption spread — are now trending upward in both spot and contract markets.



Notebookcheck reports that community data shows retail DDR5 kits from brands like Corsair, G.Skill, and Kingston rising significantly in Europe and Asia. In some regions, the price per gigabyte has nearly doubled compared to mid-year 2024 levels.

For consumers, this means one clear thing: upgrading or building a DDR5-based system is getting more expensive again.



What’s Causing the Surge







The reasons behind the DDR5 price rise are complex, but a few major factors stand out:

1. AI and Data Center Demand

Global AI infrastructure build-outs are consuming vast amounts of memory. Data centers deploying GPUs like NVIDIA’s H100 and H200 rely on high-bandwidth DRAM (HBM) and advanced DDR5 chips, directly competing with consumer-grade production capacity.


As Tom’s Hardware recently noted, “AI data centers are swallowing the world’s memory supply.” This diversion of wafer allocation from PC DRAM to HBM has reduced output for DDR5 modules used in consumer and enterprise PCs.



2. Manufacturers Prioritizing High-Margin Products

Major DRAM suppliers — Samsung, SK Hynix, and Micron — have strategically shifted focus toward more profitable segments like HBM3E and LPDDR5X. Commodity DDR5 modules yield lower profit per wafer, so manufacturers are scaling back consumer DRAM lines to optimize margins.



3. Panic Buying and Inventory Hedging

When rumors of supply shortages surface, memory module assemblers and distributors often buy ahead to lock in pricing. This behavior, while rational, amplifies short-term demand and constrains supply in the spot market, leading to sudden price spikes — the same pattern we saw during DDR4’s recent rebound.



4. Supply Chain Transition and Yield Issues

As fabs migrate to 1β and 1α nm nodes for next-gen DRAM production, yields can initially drop. That limits supply while costs remain high. Combined with continued geopolitical uncertainties and logistics challenges, memory output simply isn’t keeping up with demand.



Impact on PC Builders





(Image Credit: idealo)



For PC builders and DIY enthusiasts, higher DDR5 prices increase total build cost — especially in mid-range and performance segments.

A memory kit that cost $80–90 earlier this year may now exceed $120–130. While that might seem minor for premium builds, it directly affects the bill of materials (BOM) for integrators and system assemblers.



Market Outlook







Analysts expect the DRAM price uptrend to continue into early 2026, driven by AI hardware demand and restrained production volumes. TrendForce predicts overall DRAM prices could rise 10–20% quarter-over-quarter, depending on market response.

The silver lining is that DDR5 remains in high demand thanks to platform adoption (Intel 700-series, AMD AM5). As more users transition, economies of scale could eventually bring stability — but not before this current shortage cycle plays out.



What Builders and Buyers Should Do





Secure modules early: If you’re planning new PC builds or system batches, lock in DDR5 inventory before the next quarter’s pricing revision.



Offer flexible configurations: For OEMs or boutique builders, consider offering both DDR4 and DDR5 SKUs where platform compatibility allows.



Monitor supplier communication: Stay updated with module vendors on lead times and allocation changes.



Communicate value: Even as costs rise, focus marketing on overall system performance, stability, and forward-compatibility, not just raw specs.



Conclusion

DDR5’s price surge highlights the new reality of a memory market dominated by AI and data-center demand. As production capacity shifts toward high-bandwidth applications, consumer DRAM will continue to feel the squeeze. For PC enthusiasts and brands alike, this isn’t just a supply-chain story — it’s a reminder that even as technology evolves, the economics of silicon remain as volatile as ever.

DDR5 memory prices are climbing sharply in 2025 as AI demand, supply reallocation, and panic buying tighten the DRAM market. Here’s why it’s happening and what it means for PC builders.

DDR5 Memory Prices Are Rising — Here's Why It's Happening Again

How-to Guides                                                   

The “aquarium-style” PC case trend remains strong, with dual-side panoramic tempered glass panels offering a crystal-clear, high-end aesthetic. However, no matter how stunning the case design is, fingerprints, dust, or even small scratches can instantly dull its premium look.

To keep your case spotless and shining like new, regular and proper cleaning is the key. In this guide, we’ll show you simple yet effective ways to clean and maintain your tempered glass panels — along with a few tricks to prevent scratches — so your build always looks flawless.

 side panels, though some models still use 

Since cleaning may involve removing panels or using cleaning solutions, always 

turn off your PC and disconnect the power cable

 to ensure safety and prevent component damage.

Use a clean microfiber cloth to gently wipe away surface dust.

Avoid using a damp cloth directly — trapped dust can scratch the glass surface.

Step 2｜Apply Cleaner to the Cloth (Not the Glass)

Spray the neutral cleaner onto the cloth instead of directly onto the glass to prevent streaks or residue from forming on the panel.

, following a single direction. Avoid back-and-forth rubbing, which can cause micro-scratches.

For tight corners or edges that collect dust, use a cotton swab or a small piece of cloth for spot cleaning.

Preventing Scratches and Routine Maintenance

 to prevent dust buildup that becomes harder to remove over time.

Avoid removing the glass panel unless necessary. Frequent handling increases the risk of scratches or smudges.

Keep it upright to reduce contact and the chance of scratches.

Proper glass maintenance not only keeps your PC case looking stunning but also enhances its overall professional appearance. By cleaning regularly and wiping correctly, you can prevent dust and scratches from stealing the spotlight from your carefully built masterpiece.





The “aquarium-style” PC case trend remains strong, with dual-side panoramic tempered glass panels offering a crystal-clear, high-end aesthetic. However, no matter how stunning the case design is, fingerprints, dust, or even small scratches can instantly dull its premium look.



To keep your case spotless and shining like new, regular and proper cleaning is the key. In this guide, we’ll show you simple yet effective ways to clean and maintain your tempered glass panels — along with a few tricks to prevent scratches — so your build always looks flawless.



Preparation Before Cleaning





Step 1｜Identify the Material

Most modern PC cases feature tempered glass side panels, though some models still use acrylic.





Tempered Glass: Scratch-resistant, heavier, and will not discolor over time.



Acrylic: Lightweight and low-cost, but more prone to scratching.



Step 2｜Power Down and Unplug

Since cleaning may involve removing panels or using cleaning solutions, always turn off your PC and disconnect the power cable to ensure safety and prevent component damage.



Step 3｜Gather Cleaning Tools

You’ll need:





A microfiber cloth, lens cloth, or screen-cleaning cloth



Neutral detergent (optional) and clean water



A dust blower or anti-static brush



How to Clean Your Glass Panel Properly





Step 1｜Remove Dust with a Dry Cloth

Use a clean microfiber cloth to gently wipe away surface dust.
Avoid using a damp cloth directly — trapped dust can scratch the glass surface.



Step 2｜Apply Cleaner to the Cloth (Not the Glass)

Spray the neutral cleaner onto the cloth instead of directly onto the glass to prevent streaks or residue from forming on the panel.



Step 3｜Wipe in One Direction

Gently wipe from top to bottom or left to right, following a single direction. Avoid back-and-forth rubbing, which can cause micro-scratches.



Step 4｜Detail the Corners

For tight corners or edges that collect dust, use a cotton swab or a small piece of cloth for spot cleaning.



Tip: Never use tissue or paper towels, they can scratch the surface or leave lint behind.



Preventing Scratches and Routine Maintenance





Clean Regularly

Wipe down your case every 3 to 6 months to prevent dust buildup that becomes harder to remove over time.



Minimize Panel Removal

Avoid removing the glass panel unless necessary. Frequent handling increases the risk of scratches or smudges.



Handle Panels Carefully

When removing the glass panel, avoid placing it face-down on any surface.
Keep it upright to reduce contact and the chance of scratches.







Conclusion

Proper glass maintenance not only keeps your PC case looking stunning but also enhances its overall professional appearance. By cleaning regularly and wiping correctly, you can prevent dust and scratches from stealing the spotlight from your carefully built masterpiece.

Tempered glass proper maintenance and scratch prevention tips.

How to Clean Tempered Glass Side Panels?

Hardware Tips                                                   

For first-time DIY PC builders, everything from picking parts to doing the actual install can hide traps and little mistakes. Small errors might just mean parts don’t fit; big ones can damage components. This article rounds up the most common beginner mistakes—check through this once, and you’ll avoid most problems.

Mistake 1｜Buying incompatible components

Many beginners overlook part-to-part compatibility. Common issues include:

Consequences: You can’t complete the build, the system won’t boot, or you may even have to repurchase parts.

: After selecting parts, ask a friend with building experience to review them, or post on a PC-hardware forum for advice.

Mistake 2｜Choosing a power supply at random

New builders often favor a cheap PSU—this is a mistake. The PSU is the heart of the system. A poor-quality or underpowered unit can cause random shutdowns or even damage hardware. Common errors:

: Use a PSU wattage calculator to estimate power needs, and choose an 80 Plus–certified power supply for stable output.

Plenty of builders  install the motherboard and only then realize they forgot the rear I/O shield, forcing them to remove the board and start over.

: Consider a mid-range or higher motherboard with a pre-installed I/O shield. It looks better and eliminates this problem.

Mistake 4｜Incorrect cooler installation

Because CPU cooler installation is more involved, it’s a common pain point. If you install it incorrectly, CPU temperatures can spike and performance can drop.

: Carefully double-check each installation step and confirm the thermal paste has been applied correctly.

Mistake 5｜Installing memory in the wrong slots

Putting RAM in the wrong slots won’t usually break anything, but it can prevent booting or cut performance in half. Many motherboards require specific slots to enable dual-channel mode.

: Read the motherboard manual before installation and make sure you’re using the recommended slots.

Case airflow affects cooling performance. Beginners often mount fans “wherever” without optimizing airflow.

Easy rule of thumb: “Front-in, rear-out; bottom-in, top-out.”

Mistake 7｜Wrong power connectors or loose plugs

CPU and GPU power connectors look similar, so many beginners mix them up.

With the newer 12VHPWR GPU connector, if it isn’t fully seated, the plug can overheat and burn, damaging both the cable and the graphics card.

: Verify the correct connectors for the motherboard and GPU, and press until you hear/feel a positive click.

Mistake 8｜Not updating BIOS and drivers after first boot

Many beginners finish installing the OS and then ignore BIOS and driver versions. That can leave XMP off, reduce performance, or even cause instability.

: On first boot, enter the BIOS and enable XMP (or DOCP/EXPO) for memory. Then visit the manufacturer’s website to update motherboard drivers and the BIOS.

Most mistakes aren’t about technical skill—they come from going too fast or being careless. Work step by step and double-check each stage, and you’ll successfully complete your very first PC.





For first-time DIY PC builders, everything from picking parts to doing the actual install can hide traps and little mistakes. Small errors might just mean parts don’t fit; big ones can damage components. This article rounds up the most common beginner mistakes—check through this once, and you’ll avoid most problems.



Mistake 1｜Buying incompatible components







Many beginners overlook part-to-part compatibility. Common issues include:





Buying an Intel CPU but choosing an AMD motherboard



The motherboard supports only DDR5, but you bought DDR4 memory



Ignoring case dimensions so the graphics card or cooler won’t fit



Forgetting to remove the protective film on the cooler’s copper base

Consequences: You can’t complete the build, the system won’t boot, or you may even have to repurchase parts.

Fix: After selecting parts, ask a friend with building experience to review them, or post on a PC-hardware forum for advice.



Mistake 2｜Choosing a power supply at random







New builders often favor a cheap PSU—this is a mistake. The PSU is the heart of the system. A poor-quality or underpowered unit can cause random shutdowns or even damage hardware. Common errors:





Buying unbranded PSUs or ones with no relevant certifications



Underestimating required wattage, leading to power cuts under load

Fix: Use a PSU wattage calculator to estimate power needs, and choose an 80 Plus–certified power supply for stable output.



Mistake 3｜Forgetting the I/O shield





(I/O shield example image: ASRock)



Plenty of builders  install the motherboard and only then realize they forgot the rear I/O shield, forcing them to remove the board and start over.



Fix: Consider a mid-range or higher motherboard with a pre-installed I/O shield. It looks better and eliminates this problem.



Mistake 4｜Incorrect cooler installation







Because CPU cooler installation is more involved, it’s a common pain point. If you install it incorrectly, CPU temperatures can spike and performance can drop.





Forgetting to remove the protective film from the cooler base



Forgetting to apply thermal paste



Applying way too much or too little thermal paste

Fix: Carefully double-check each installation step and confirm the thermal paste has been applied correctly.



Mistake 5｜Installing memory in the wrong slots







Putting RAM in the wrong slots won’t usually break anything, but it can prevent booting or cut performance in half. Many motherboards require specific slots to enable dual-channel mode.

Fix: Read the motherboard manual before installation and make sure you’re using the recommended slots.



Mistake 6｜Incorrect fan airflow







Case airflow affects cooling performance. Beginners often mount fans “wherever” without optimizing airflow.

Optimal airflow layout:





Front / side / bottom: intake



Top / rear: exhaust

Easy rule of thumb: “Front-in, rear-out; bottom-in, top-out.”



Mistake 7｜Wrong power connectors or loose plugs







CPU and GPU power connectors look similar, so many beginners mix them up.

With the newer 12VHPWR GPU connector, if it isn’t fully seated, the plug can overheat and burn, damaging both the cable and the graphics card.



Fix: Verify the correct connectors for the motherboard and GPU, and press until you hear/feel a positive click.



Mistake 8｜Not updating BIOS and drivers after first boot







Many beginners finish installing the OS and then ignore BIOS and driver versions. That can leave XMP off, reduce performance, or even cause instability.



Fix: On first boot, enter the BIOS and enable XMP (or DOCP/EXPO) for memory. Then visit the manufacturer’s website to update motherboard drivers and the BIOS.



Most mistakes aren’t about technical skill—they come from going too fast or being careless. Work step by step and double-check each stage, and you’ll successfully complete your very first PC.

Building your first PC can be exciting—but also full of hidden pitfalls. This article walks beginners through the most common PC-building mistakes, from part incompatibility and poor airflow setup to incorrect power connections and BIOS settings. Learn what to avoid, how to fix each issue, and simple tips to make your first DIY build smooth, safe, and successful.

The Most Common PC-Building Mistakes for Beginners

When building or upgrading a PC, most people focus on GPUs, CPUs, and SSDs — but few realize that PCI Express (PCIe) lanes are the invisible highways that connect these parts together. They determine how fast your GPU communicates with your CPU, how many NVMe SSDs you can use without bottlenecks, and whether your next upgrade will actually perform as expected.

This article breaks down what PCIe lanes are, how they work, what’s new in PCIe Gen4 and Gen5, and how to make smarter choices when planning your system.

A PCIe lane is the fundamental communication channel of the PCI Express interface.

Each lane is made up of two pairs of wires — one pair for transmitting data and another for receiving — which makes PCIe full-duplex (data can flow in both directions at once).

Multiple lanes can be grouped to create wider connections, which you often see labeled as ×1, ×4, ×8, or ×16.

For more info on what is a PCIe Lane, our 

 has a more detailed explanation on the topic.

 Modern systems have two sources of PCIe lanes:

Because chipset lanes share that single DMI link, they can become a bottleneck when multiple high-speed devices — like NVMe SSDs or capture cards — compete for bandwidth.

For example, a typical AMD Ryzen or Intel Core CPU may provide 16–20 direct lanes, usually allocated as:

Everything else — USB controllers, SATA ports, Wi-Fi modules — connects through the chipset’s slower lanes.

Each new PCIe generation doubles the data rate per lane compared to the previous one.

This is why the latest GPUs and SSDs can achieve incredible performance even with fewer allocated lanes.

PCIe Gen5 isn’t just “twice as fast.” It’s also much harder to design for.

At 32 GT/s, every bit of signal loss matters. Motherboard manufacturers must use:

That’s why Gen5 motherboards are more expensive — they need advanced engineering to handle those speeds without data errors.

You won’t “feel” Gen5 speed in everyday tasks unless you’re pushing ultra-high-bandwidth workloads (e.g., 3D rendering, AI training, multi-NVMe RAID). But you will benefit from future-proofing.

Real-World Example: Lane Allocation in Modern CPUs

Let’s visualize a typical setup using a modern Intel or AMD CPU:

├── PCIe x4  → NVMe SSD (M.2 slot)

└── PCIe x4  → Chipset link (DMI / Fabric)

                ├── USB ports

                ├── SATA drives

                ├── Secondary NVMe slots

                └── Network / Wi-Fi cards

When you install a second NVMe drive, your motherboard might share or split lanes — sometimes reducing your GPU from ×16 to ×8. While this doesn’t usually affect gaming performance much (Gen4 ×8 = Gen3 ×16), it’s important to check your motherboard manual to see which slots share bandwidth.

Even with ultra-fast components, bandwidth bottlenecks can occur if you overload the chipset or split CPU lanes inefficiently.

Here’s how lane management affects performance:

Efficient use of CPU lanes ensures each device has a clear, fast path to the processor.

That’s why high-end platforms like AMD Threadripper or Intel Xeon offer 48–128 lanes — perfect for multi-GPU or workstation setups.

The next step, PCIe Gen6, will double speeds again to 64 GT/s per lane using PAM4 (Pulse Amplitude Modulation) signaling — a huge shift in how signals are transmitted.

However, this brings even greater design challenges:

While it may take time before Gen6 reaches consumer PCs, enterprise servers and data centers will adopt it first — paving the way for the next generation of GPUs and SSDs.

PCIe lanes are the circulatory system of your PC — unseen, but vital. Understanding how many lanes your CPU offers, and how they’re allocated, can make the difference between a balanced build and one full of hidden bottlenecks.

As PCIe Gen5 becomes mainstream and Gen6 looms on the horizon, knowing how these lanes work will help you make smarter hardware decisions — whether you’re building a gaming powerhouse, a creative workstation, or a high-speed storage server.





When building or upgrading a PC, most people focus on GPUs, CPUs, and SSDs — but few realize that PCI Express (PCIe) lanes are the invisible highways that connect these parts together. They determine how fast your GPU communicates with your CPU, how many NVMe SSDs you can use without bottlenecks, and whether your next upgrade will actually perform as expected.



This article breaks down what PCIe lanes are, how they work, what’s new in PCIe Gen4 and Gen5, and how to make smarter choices when planning your system.



What Is a PCIe Lane?







A PCIe lane is the fundamental communication channel of the PCI Express interface.
Each lane is made up of two pairs of wires — one pair for transmitting data and another for receiving — which makes PCIe full-duplex (data can flow in both directions at once).



Multiple lanes can be grouped to create wider connections, which you often see labeled as ×1, ×4, ×8, or ×16.





×1: Suitable for small add-in cards like Wi-Fi or capture cards.



×4: Used by NVMe SSDs and M.2 slots.



×16: Dedicated to GPUs for maximum bandwidth.

In short, more lanes = more bandwidth.



For more info on what is a PCIe Lane, our previous article has a more detailed explanation on the topic.



CPU-Supported Lanes vs Chipset Lanes

Not all PCIe lanes are created equal.
 Modern systems have two sources of PCIe lanes:





CPU Lanes: Directly connected to the processor. These offer the lowest latency and highest bandwidth.



Chipset (PCH) Lanes: Routed through the motherboard’s chipset, which connects back to the CPU using a link (called DMI on Intel or Infinity Fabric on AMD).

Because chipset lanes share that single DMI link, they can become a bottleneck when multiple high-speed devices — like NVMe SSDs or capture cards — compete for bandwidth.

For example, a typical AMD Ryzen or Intel Core CPU may provide 16–20 direct lanes, usually allocated as:





16 lanes for the GPU (x16 slot)



4 lanes for the main NVMe SSD



The rest used for the chipset link

Everything else — USB controllers, SATA ports, Wi-Fi modules — connects through the chipset’s slower lanes.



PCIe Generations and Their Speeds

Each new PCIe generation doubles the data rate per lane compared to the previous one.
Let’s look at the numbers:







(GT/s = gigatransfers per second)

In simple terms:





A PCIe Gen4 ×8 slot is about as fast as a Gen3 ×16 slot.



A Gen5 ×8 slot already exceeds Gen4 ×16 speeds — meaning even fewer lanes can deliver massive throughput.


This is why the latest GPUs and SSDs can achieve incredible performance even with fewer allocated lanes.



PCIe Gen4 vs Gen5: The Engineering Leap

PCIe Gen5 isn’t just “twice as fast.” It’s also much harder to design for.

At 32 GT/s, every bit of signal loss matters. Motherboard manufacturers must use:





High-grade PCB materials (low-loss laminates)



Shorter trace lengths



Redrivers or Retimers to maintain signal integrity



Precise impedance control during routing

That’s why Gen5 motherboards are more expensive — they need advanced engineering to handle those speeds without data errors.



For PC builders, the takeaway is this:

You won’t “feel” Gen5 speed in everyday tasks unless you’re pushing ultra-high-bandwidth workloads (e.g., 3D rendering, AI training, multi-NVMe RAID). But you will benefit from future-proofing.



Real-World Example: Lane Allocation in Modern CPUs

Let’s visualize a typical setup using a modern Intel or AMD CPU:

[CPU]

│

├── PCIe x16 → GPU

├── PCIe x4  → NVMe SSD (M.2 slot)

└── PCIe x4  → Chipset link (DMI / Fabric)

                │

                ├── USB ports

                ├── SATA drives

                ├── Secondary NVMe slots

                └── Network / Wi-Fi cards



When you install a second NVMe drive, your motherboard might share or split lanes — sometimes reducing your GPU from ×16 to ×8. While this doesn’t usually affect gaming performance much (Gen4 ×8 = Gen3 ×16), it’s important to check your motherboard manual to see which slots share bandwidth.



Why PCIe Lanes Matter

Even with ultra-fast components, bandwidth bottlenecks can occur if you overload the chipset or split CPU lanes inefficiently.

Here’s how lane management affects performance:





GPU bandwidth: Critical for rendering and compute tasks.



Storage bandwidth: Impacts NVMe SSD transfer rates, especially in RAID.



Add-in cards: Capture cards, NICs, and accelerators can easily saturate chipset lanes.

Efficient use of CPU lanes ensures each device has a clear, fast path to the processor.
That’s why high-end platforms like AMD Threadripper or Intel Xeon offer 48–128 lanes — perfect for multi-GPU or workstation setups.



Future Outlook: PCIe Gen6 and Beyond

The next step, PCIe Gen6, will double speeds again to 64 GT/s per lane using PAM4 (Pulse Amplitude Modulation) signaling — a huge shift in how signals are transmitted.

However, this brings even greater design challenges:





Higher power consumption



More expensive PCB materials



Increased need for error correction (FLIT encoding)


While it may take time before Gen6 reaches consumer PCs, enterprise servers and data centers will adopt it first — paving the way for the next generation of GPUs and SSDs.



Practical Tips for PC Builders





Check lane sharing: Before buying your motherboard, verify which M.2 slots or PCIe slots share lanes with your GPU.



Use CPU lanes for critical devices: Your GPU and main NVMe drive should always occupy CPU-direct lanes.



Don’t obsess over Gen5 (yet): Unless your workload is heavily I/O-bound, Gen4 offers plenty of bandwidth.



Future-proof smartly: Choose a motherboard that supports both Gen4 and Gen5 — it ensures compatibility for years to come.



Balance cooling and bandwidth: High-speed PCIe devices generate extra heat; good airflow and heatsinks are essential.


Conclusion

PCIe lanes are the circulatory system of your PC — unseen, but vital. Understanding how many lanes your CPU offers, and how they’re allocated, can make the difference between a balanced build and one full of hidden bottlenecks.

As PCIe Gen5 becomes mainstream and Gen6 looms on the horizon, knowing how these lanes work will help you make smarter hardware decisions — whether you’re building a gaming powerhouse, a creative workstation, or a high-speed storage server.




PCIe lanes are the hidden highways connecting your CPU, GPU, and SSDs. Learn how CPU lanes differ from chipset lanes, why PCIe Gen5 doubles your bandwidth, and how to design a balanced, bottleneck-free PC build.

Understanding PCIe Lanes: The Hidden Highways of Your PC

Over the past year, the memory market has seen an unexpected twist: DDR4, once considered an “outdated” standard, has experienced a dramatic price surge and regained attention from both consumers and industry players. 

While DDR5 was expected to completely dominate by now, DDR4 is proving to be far from obsolete. In this article, we’ll explore the reasons behind DDR4’s surprising comeback and what it means for PC users and the industry.

Leading memory manufacturers like Samsung, Micron, and SK hynix have gradually reduced DDR4 production capacity, shifting resources toward DDR5 and advanced technologies like HBM. As supply tightens, DDR4 modules have become scarcer, driving prices upward.

ChangXin Memory Technologies (CXMT), which once pushed DDR4 prices down by adding extra supply, has also shifted focus to DDR5 in 2025. With fewer manufacturers supporting DDR4, the market balance has swung from oversupply to shortage.

When buyers fear future shortages, they tend to stock up early. PC builders, distributors, and even end-users have been buying DDR4 aggressively, adding further pressure on limited supply.

In a rare twist, DDR4 has in some cases become more expensive than DDR5. Reports have shown DDR4 chips trading at higher prices per gigabyte compared to DDR5, a clear sign of supply-demand imbalance rather than technical merit.

Millions of systems worldwide still rely on DDR4 platforms. For many users, replacing an entire CPU and motherboard just to switch to DDR5 isn’t cost-effective, making DDR4 upgrades the logical choice.

While DDR5 offers higher bandwidth and future scalability, DDR4 remains more than capable for everyday workloads, gaming, and office use. For many, the performance difference isn’t worth the cost of a full platform upgrade.





Over the past year, the memory market has seen an unexpected twist: DDR4, once considered an “outdated” standard, has experienced a dramatic price surge and regained attention from both consumers and industry players. 

While DDR5 was expected to completely dominate by now, DDR4 is proving to be far from obsolete. In this article, we’ll explore the reasons behind DDR4’s surprising comeback and what it means for PC users and the industry.



Why Are DDR4 Prices Rising?





(DRAM Avg. Spot Price – Chart credit: TrendForce on X)



Shrinking Supply

Leading memory manufacturers like Samsung, Micron, and SK hynix have gradually reduced DDR4 production capacity, shifting resources toward DDR5 and advanced technologies like HBM. As supply tightens, DDR4 modules have become scarcer, driving prices upward.



Chinese Manufacturer Transition

ChangXin Memory Technologies (CXMT), which once pushed DDR4 prices down by adding extra supply, has also shifted focus to DDR5 in 2025. With fewer manufacturers supporting DDR4, the market balance has swung from oversupply to shortage.



Stockpiling and Panic Buying

When buyers fear future shortages, they tend to stock up early. PC builders, distributors, and even end-users have been buying DDR4 aggressively, adding further pressure on limited supply.



Price Inversion

In a rare twist, DDR4 has in some cases become more expensive than DDR5. Reports have shown DDR4 chips trading at higher prices per gigabyte compared to DDR5, a clear sign of supply-demand imbalance rather than technical merit.



Why Is DDR4 Still Popular?







Massive Installed Base

Millions of systems worldwide still rely on DDR4 platforms. For many users, replacing an entire CPU and motherboard just to switch to DDR5 isn’t cost-effective, making DDR4 upgrades the logical choice.



Good Enough Performance

While DDR5 offers higher bandwidth and future scalability, DDR4 remains more than capable for everyday workloads, gaming, and office use. For many, the performance difference isn’t worth the cost of a full platform upgrade.



Compatibility and Cost Barriers

Upgrading to DDR5 means investing in a new motherboard and often a new CPU. Sticking with DDR4 is a simpler, cheaper upgrade path.



Market Perception and Aesthetics

Many DDR4 kits still come with advanced heat spreaders, RGB lighting, and sleek designs, offering strong appeal to gamers and PC builders focused on aesthetics as much as performance.



Risks and Future Outlook











Uncertain Longevity: If DDR5 production continues to ramp up and prices fall, DDR4 could quickly lose its renewed momentum.



Volatile Prices: With fewer manufacturers producing DDR4, supply fluctuations could lead to unstable pricing.



Short-Term Popularity: The current surge may be temporary, driven by stockpiling and panic buying rather than sustainable long-term demand.



Conclusion

The DDR4 revival is not simply nostalgia — it’s the result of shrinking supply, platform compatibility, and short-term market behavior. While DDR5 remains the future of memory, DDR4 continues to prove its relevance in 2025.



For PC users, this moment highlights the importance of timing upgrades carefully. DDR4 still offers strong value and compatibility today, but its long-term availability is uncertain. In the fast-moving world of PC hardware, sometimes yesterday’s standard still has a surprising role to play.

DDR4 memory, once considered outdated, has seen a surprising price surge in 2025. This article explores the supply cuts, market shifts, and user demand that fueled DDR4's comeback — and what it means for PC builders navigating between DDR4 and DDR5.