Not just capacity! This is the secret to the evolution of cellphone memory that makes smartphones speeding
Lidahtekno.com — Have you ever wondered why high-end smartphones today can open 3D games in seconds, record 8K resolution videos without a hitch, to run artificial intelligence features (on-device ai) instantly? The answer is not only in the toughness of the processor (CPU) or the amount of RAM capacity, but in the hidden components that are often overlooked: HP memory or internal storage mediainternal storage).
In the last three decades, the storage technology on handheld devices has undergone dramatic transformations. From what was previously only able to store dozens of phone numbers in kilobita size (KB), now it has been able to accommodate data up to terabita size (TB) with transfer speeds that match the server computer’s SSD. Let’s Surgery Track Record and Evolution of HP Memory Types from Time to Time with the editor of Lidahtekno.com.
1. The Pioneer Era (1990 – 2006): The Glory of EEPROM and Nor Flash
Based on the historical record of the development of semiconductors from the IEEE technical agency, in the 1990s to the early 2000s, mobile devices such as the iconic Nokia 3310 phone did not require massive storage space. During this period, the HP memory used was dominated by technology. EEPROM (Electrically Erasable Programmable Read-only Memory) and Nor Flash.
Adapted from the technical publication of Kingston Technology regarding micro-memory media, NOR Flash has the advantage of random access to data.Random Access) which is very fast to read the basic instruction program code lines (Firmware). However, this technology has a very limited storage density and a relatively high production cost per bit at that time.
Main characteristics and functions of the Nor Flash era:
- Capacity Range: It is in the Kilobita range (KB) to a maximum of 64 megabytes (MB).
- Main functions: Used only to store name contacts, text messages (SMS), simple operating systems, and ringtones (Ringtones) monophonic or polyphonic.
- Limitations: The process of writing data is very slow and not designed to store large multimedia files.
2. The era of the first generation of smartphones (2007 – 2014): EMMC dominance
Along with the birth of Android and Symbian-based touchscreen smartphones in the late 2000s, storage needs jumped dramatically. The industry needs a solid, inexpensive, and integrated HP memory solution. This is where technology EMMC (Embedded MultimediaCard) take over the main stage.
As described in the standard document released by the JEDEC semiconductor organization, eMMC combines NAND Flash memory and controllercontroller) into a single chip planted directly on the motherboard (motherboard) Smartphone. The EMMC generation (version 4.5 to 5.1) offers a jump in capacity ranging from 4 GB to 64 GB.
Despite being a hero for the massive adoption of cheap smartphones, EMMC has one architectural weakness that is quite vital, namely the nature of its performance that is still Half-Duplex.
“In eMMC’s half-duplex architecture, the memory chip cannot read and write data simultaneously. Data lines must be used interchangeably, similar to a one-way traffic system,” Write a technical analysis quoted from the GSMArena publication.
The impact of EMMC on user experience:
- Application and media installation: Allows users to install dozens of applications and store thousands of standard resolution photos and videos.
- Speed constraint: EMMC 5.1 read and write speeds are generally stuck in the range of 125 MB/s to 250 MB/s. This often causes effects lag or loading time (Loading time) which is quite pronounced when the HP performs heavy multitasking.
3. The Era of Acceleration and Multitasking (2015 – 2020): The Early Generation of UFS Revolution
Recognizing the limitations of EMC in handling 4K video recording and high-quality 3D games, Jedec introduces a new standard called UFS (Universal Flash Storage). Samsung and a number of global chipset manufacturers have started to adopt UFS 2.0 chips, UFS 2.1, to UFS 3.0 on the flagship smartphone line.
Adapted from the Samsung Semiconductor research report, the most fundamental difference between eMMC and UFS lies in the architecture. UFS adopts serial interface with capability Full-duplex, which allows the process of reading and writing data to run simultaneously without interlocking pathways.
The main advantages of UFS 2.0 to UFS 3.0:
- Capacity Range: Soared rapidly from 64 GB to 256 GB.
- The transfer speed is up: The sequential reading speed of UFS 3.0 is able to touch the number 2,100 MB/s (2.1 Gb/s)—almost 10 times faster than eMMC 5.1.
- User Experience: The launch of the application became very instant, 4K video recording went smoothly without a hitch, and the performance of heavyweight games increased drastically.
4. Extreme Performance Era & Local AI (2021 – 2026): UFS 4.0 and NVMe PCIe
Entering the span of 2021 to 2026, the HP memory landscape is again accelerating thanks to the high demand for local data processing, 8K resolution cinematic video recording, as well as direct execution of artificial intelligence models on the device (on-device ai). In this segment, two tech giants lead storage standards: UFS 4.0 in the Android ecosystem and NVMe (Non-Volatile Memory Express) PCIe based on the Apple iPhone ecosystem.
Based on the official specifications of JEDEC and Samsung Semiconductor, the UFS 4.0 standard that utilizes the latest generation V-NAND technology is able to penetrate sequential reading speeds up to 4,200 MB/s and write speed up to 2,800 MB/s. This figure is twice as fast as the UFS 3.1, but with a power efficiency level of 46 percent more efficient.
Meanwhile, Apple implements a custom NVMe protocol that connects directly via a high-speed PCIe bus. As noted by the hardware teardown review from iFixit, the NVMe architecture on the iPhone provides super low latency which is very crucial for heavy video format processing such as Apple Prores and real-time execution of local AI algorithms.
Featured Features of Modern HP Memory UFS 4.0 & NV:
- Monster Capacity: The choice of large storage space starts from 128 GB to 1 terabita (1,024 GB).
- Computer SSD equivalent speed: Gigabytes of a giant file size can be completed in seconds.
- AI on-device support: High-speed memory enables HP’s built-in AI model to instantly retrieve parameter data and the weight of the algorithm from storage media to RAM instantly without any deadlines.Latency Delay).
Summary of Evolution of Capacity & HP memory type
To make it easier to see the big picture of the technology journey, here is a summary table of HP memory evolution from time to time:
| Period Period | HP memory type | Evolution of capacity | Transfer Technology & Mode | main use |
|---|---|---|---|---|
| 1990 – 2006 | EEPROM / NOR Flash | Kilobyte → 64 MB | Random Access, Byte-Level | Phone Book, SMS, Monophonic Ringtones |
| 2007 – 2014 | EMMC (4.5 – 5.1) | 4 GB → 64 GB | Parallel, half-duplex | Initial application, photo/video, web browsing |
| 2015 – 2020 | UFS (2.0 / 2.1 / 3.0) | 64 GB → 256 GB | Serial, full-duplex | 3D games, 4K video recording, multitasking |
| 2021 – 2026 | UFS 4.0 & NVMe PCIe | 128 GB → 1 TB | Multi-lane serial, Ultra low latency | 8K Video, On-Device AI, Transfer 4,200 MB/s |
Why is this type of HP memory important for consumers today?
Many consumers are often trapped just by looking at the gigabyte number (GB) when buying a new smartphone. In fact, two smartphones that both have a capacity of 256 GB can have very different performance if the type of cellphone memory they carry is different.
For example, a lower-middle-class smartphone that still uses eMMC 5.1 or UFS 2.2 storage will feel slow and broken when processing large files, even though the storage space is still spacious. On the other hand, smartphones equipped with UFS 3.1 or UFS 4.0 will provide a much more responsive usage experience, open applications immediately when tapped, and a more durable device durability for long-term use.
In conclusion, the evolution of HP memory is not just a place to compete for the prestige of the capacity number from kilobita to terabita, but the main foundation that determines how fast and responsive your smartphone is working in the modern digital era.
