FAQ
You can easily access our extensive FAQ section
Check that the SSD is properly connected, especially for M.2 and SATA drives, which might need a secure fit. For external SSDs, ensure that the USB cable is intact and the port is functional. Updating BIOS or drivers might also resolve detection issues.
SSD speed can be affected by several factors, such as being nearly full or outdated drivers. Make sure the SSD has enough free space (at least 10-20%), update drivers, and check if TRIM is enabled. Additionally, if it’s a SATA SSD, it may not perform as fast as NVMe SSDs.
Some space is reserved for over-provisioning, which improves performance and lifespan. Additionally, large files, applications, and OS updates can consume SSD space quickly. Regularly clean temporary files, uninstall unused applications, and consider a higher capacity SSD if storage needs increase.
Data recovery from an SSD is challenging but possible through specialized services. Regular backups are highly recommended since SSD failures can happen suddenly due to hardware issues.
Yes. Heavy usage, especially with write-intensive tasks, can cause wear on SSD cells, gradually decreasing speed. Using the SSD’s built-in maintenance features, like TRIM, helps manage this over time.
Storage manufacturers use decimal (base-10) measurements (1GB = 1,000MB), but computers use binary (base-2), where 1GB = 1,024MB. This results in usable space being slightly less than advertised.
Use compatible RGB control software provided by the motherboard or RAM manufacturer. Ensure your motherboard supports RGB synchronization with the RAM brand you are using.
SSDs are faster, more durable, and consume less power than HDDs. They also operate quietly and have no moving parts, which reduces the risk of mechanical failure.
SATA SSDs connect via the SATA interface and are slower than NVMe SSDs, which use the PCIe interface for faster data transfer. NVMe is often preferred for high-performance needs.
TBW stands for Terabytes Written. It measures the total amount of data that can be written to an SSD before it may start to fail. It’s an indicator of SSD durability.
Yes, most computers can support SATA SSDs. However, to benefit from NVMe speeds, your system must have an M.2 or PCIe slot that supports NVMe.
Yes, SSDs have limited write cycles due to NAND cell degradation, but modern SSDs are built to last many years under normal usage.
TRIM is a command that helps optimize SSD performance by cleaning up unused data. This maintains speed and prolongs the drive’s life.
M.2 is the physical form factor, while PCIe is the interface standard. M.2 NVMe SSDs use the PCIe interface for faster data transfer, whereas M.2 SATA SSDs use the SATA interface.
M.2 NVMe SSDs can get hot under heavy use due to high-speed data transfer. Many models include heatsinks or thermal pads to help manage temperature.
PCIe 4.0 offers double the bandwidth of PCIe 3.0, resulting in faster read/write speeds. PCIe 4.0 SSDs need a compatible motherboard to perform at their highest speeds.
Most Portable SSDs are compatible with computers, smartphones, tablets, and game consoles via USB or USB-C connections. Check your device for compatibility.
OSCOO SSDs serve various industries, including consumer electronics, gaming, enterprise data centers, and industrial applications. They are compatible with desktops, laptops, servers, and embedded systems.
Each DDR generation offers improvements in speed, efficiency, and power consumption. Major differences include
- Speed and Bandwidth: Newer DDR versions offer faster data transfer rates.
- Power Efficiency: Newer versions use lower voltages.
- Compatibility: Each generation has a unique pin layout and is incompatible with previous generations.
To check compatibility, look at your motherboard’s specifications. Motherboards generally support only one DDR generation (e.g., DDR4 or DDR5) and are not backward-compatible.
Each DDR generation (DDR3, DDR4, DDR5) has a unique pin configuration, making them physically incompatible with each other. Check your motherboard to confirm the supported DDR type.
Crashes may occur if the new RAM is incompatible with the existing modules or the motherboard. Make sure the modules have matching specifications (speed, voltage, etc.), and run a memory diagnostic test to check for issues.
(DDR3, DDR4, DDR5) has a unique pin configuration, making them physically incompatible with each other. Check your motherboard to confirm the supported DDR type.
Mixing different RAM brands or capacities is possible, but it’s generally better to use matching modules for stability and optimal performance. Mixed modules may work but can sometimes lead to compatibility or stability issues.
By default, memory may run at a standardized speed. To achieve the advertised speed, enable XMP (Extreme Memory Profile) in the BIOS, which configures the RAM to run at its rated speed.
Use compatible RGB control software provided by the motherboard or RAM manufacturer. Ensure your motherboard supports RGB synchronization with the RAM brand you are using.
CAS Latency (CL) is the delay between sending a command and accessing the data. Lower CAS latency can improve performance slightly, but RAM speed and capacity have a more noticeable effect.
No, DDR5 and DDR4 have different physical configurations and are not compatible. A motherboard designed for DDR4 will not support DDR5, and vice versa.
Overheating can happen with high-speed or overclocked RAM. Using modules with heatsinks or adding case fans can improve cooling. Ensure there’s good airflow inside the case.
Micro SD cards come in three main formats
MicroSD: Up to 2GB capacity.
MicroSDHC (High Capacity): 2GB to 32GB.
MicroSDXC (eXtended Capacity): 32GB to 2TB.
MicroSDUC (Ultra Capacity): Up to 128TB (newer but less commonly available).
Speed classes indicate the minimum write speed
Class 10: Minimum 10 MB/s.
UHS (Ultra High Speed): U1 = 10 MB/s, U3 = 30 MB/s.
Video Speed Class: V10, V30, V60, and V90, where V30 (30 MB/s) is suitable for 4K video.
Check the device’s specifications for supported Micro SD card types (e.g., MicroSDHC, MicroSDXC) and maximum capacity. Using a card with a higher capacity than supported may result in errors.
The card may be incompatible, corrupted, or improperly inserted. Try it in another device to confirm if the issue is with the card. If not recognized, you may need to format it.
Most devices offer an option to format the card within their settings. Alternatively, connect it to a computer and use the disk management or format tool, choosing a file system compatible with your device (e.g., FAT32, exFAT).
Yes, but formatting the card on each device is recommended before use, as devices may use different file systems. Be aware that formatting erases all data on the card.
Speed may vary based on the card reader, device, and file type. For optimal performance, use devices that support the card’s speed class and ensure it’s not filled to capacity, which can slow performance.
Keep the card in a protective case when not in use, avoid exposure to extreme temperatures, and remove it carefully from devices. Back up data regularly to prevent loss.
“A1” and “A2” are Application Performance Classes indicating suitability for app usage
A1: Minimum random read/write speeds suitable for apps.
A2: Higher random read/write speeds for faster app performance on devices supporting A2.
A typical USB flash drive can handle thousands of write/erase cycles, but lifespan varies depending on usage. Most drives last for several years with regular use.
Each version offers a different transfer speed
USB 2.0: Up to 480 Mbps
USB 3.0: Up to 5 Gbps (10x faster than USB 2.0)
USB 3.1 Gen 1: Also up to 5 Gbps (same as USB 3.0, but rebranded)
USB 3.1 Gen 2: Up to 10 Gbps
USB 3.2 Gen 1: Same as USB 3.1 Gen 1 (5 Gbps)
USB 3.2 Gen 2: Same as USB 3.1 Gen 2 (10 Gbps)
USB 3.2 Gen 2×2: Up to 20 Gbps, the fastest in the USB 3.x series.
Yes, data recovery software may be able to retrieve deleted files, especially if no new data has been written to the drive since the deletion.
Avoid using the drive on unfamiliar computers, and scan it regularly with antivirus software. Some drives also support write protection, which can prevent unauthorized data modifications.
Some of the drive’s capacity is used for system files and formatting, so the usable space is slightly less than the advertised amount. Additionally, the way storage is calculated by manufacturers differs from how operating systems calculate it.
Use the “Safely Remove Hardware” option to prevent data corruption. This ensures any active transfers are completed before disconnecting the drive.
Some flash drives are designed to be waterproof, shock-resistant, and durable, but not all. Check the product specifications if you need one with extra durability for specific environments.
Try connecting the USB drive to a different port or restarting your computer. If it still doesn’t appear, test the drive on another computer to determine if the issue is with the drive itself or the USB port.
Slow speeds may be due to using a USB 2.0 port instead of USB 3.0. For faster transfers, use a USB 3.0 port (often marked in blue) and confirm that both the drive and port support USB 3.0 or higher.
Corruption can result from unsafe removal or malware. Use the “Safely Remove” option before unplugging, and run an antivirus scan regularly to protect against infections.
Some file systems, like NTFS, aren’t compatible with all operating systems. To ensure compatibility, format the drive in exFAT, which works on both Windows and macOS.
This often indicates a file system error. Try using a repair tool on your computer. If repair fails, reformatting the drive may be necessary, but be aware that it will erase all data on the drive.