Sony is working on the development of a new portable device aimed at natively playing electronic games. Informações recent leaks from sources linked to the supply chain indicate that the equipment will use very high-performance components manufactured by AMD. The project marks the company’s return to the segment of independent pocket consoles, moving away from the recently adopted cloud or local network transmission model.
The hardware undergoing internal testing has technical specifications that rival mid-range desktop computers. The partnership with AMD guarantees access to processing architectures not yet commercially released, suggesting long-term planning for the product. The leak details the internal structure of the main chip, revealing design choices specific to the mobile market, including the following engineering focuses:
– Redução of electrical consumption in standby mode.
– Otimização of heat dissipation in compact chassis.
– Integração of high density memories on the motherboard.
– Adaptação of ergonomic physical controls around the screen.
Processing architecture and energy efficiency
The core of the new device is based on a customized Unidade Processamento Acelerado (APU), built using the 3-nanometer lithography process. The CPU uses AMD’s Zen 6 architecture, configured with a total of six physical cores designed to divide the tasks of the operating system and entertainment software. Essa division occurs through four high-performance cores, intended for complex physics and artificial intelligence calculations in games, and two low-energy consumption cores, focused on keeping the system running during light tasks and menu navigation.
The choice for this hybrid structure reflects the need to extend the time of use away from the socket, one of the main obstacles faced by high-capacity portable hardware. By delegating background processes to the smaller cores, the device is able to direct battery power to the most demanding components only when the user launches a heavy application. Advanced 3-nanometer lithography also directly contributes to reducing internal heating, allowing the cooling system to operate more quietly and take up less space in the product housing.
Graphics capability based on RDNA 5 technology
The equipment’s visual processing is handled by an integrated GPU based on AMD’s future RDNA 5 architecture. The component has 16 computing units dedicated to rendering polygons and textures in real time.
The operating speed of the graphics chip varies between 1.6 GHz and 2.0 GHz, dynamically adjusting according to the demand of the scene displayed on the screen. Essa Clock flexibility helps manage power consumption in moments of less visual demand.
The hardware includes native support for ray tracing technology, responsible for simulating the physical behavior of light, shadows and reflections. Implementing this feature in a pocket-sized form factor represents a significant advancement for mobile image quality.
Preliminary tests indicate that the GPU can maintain stable frame rates even in titles originally developed for desktop consoles, adapting graphical resources to the device’s smaller screen.
Unified memory and high-speed storage
To support the data flow required by the processor and video card, the project incorporates 24 GB of RAM memory in the LPDDR5X standard, operating on a 128-bit interface with a transfer speed of 7,500 MT/s. Essa Significant amount of unified memory ensures developers have enough space to load high-resolution textures and keep multiple processes active simultaneously without read bottlenecks. The storage system uses high-speed NVMe solid-state drives, eliminating lengthy loading screens and allowing instant transition between different areas of the virtual maps. The combination of fast RAM memory and state-of-the-art storage creates a hardware environment capable of running complex open worlds, maintaining fluid navigation and the integrity of data saved by the user. The shared memory architecture between CPU and GPU avoids duplication of information, an essential method for maximizing performance on small printed circuit boards.
Integration of artificial intelligence for image resolution
Sony plans to integrate proprietary PlayStation Spectral Super Resolution technology into the new portable console. The system uses machine learning algorithms to increase the resolution of internally rendered images.
In practice, the hardware renders the game at a lower native resolution, saving computational resources and battery. Artificial intelligence then reconstructs the image to fill the screen with high definition, eliminating jaggies and visual artifacts.
This hardware amplification technique is already applied to the company’s desktop equipment and is fundamental for enabling advanced graphics on devices with thermal and energy restrictions.
Positioning in the mobile gaming device sector
The gaming handheld market is experiencing accelerated growth, led by devices from PC hardware manufacturers. The entry of native PlayStation branded equipment changes the competitive dynamics, offering a closed and optimized ecosystem. Nintendo is also preparing the transition of its hybrid platform, which intensifies the competition for the attention of consumers looking for entertainment outside the home environment.
Unlike competitors based on computer operating systems, the Sony device promises an interface dedicated exclusively to entertainment, ensuring that software extracts maximum performance from hardware without the interference of parallel processes. Essa approach facilitates quality certification of titles, as studios work with fixed and predictable specifications, eliminating the need for complex graphical configuration menus on the part of the end player.
The manufacturer’s history in the pocket platform segment
The manufacturer has a consolidated history in the portable sector, starting with the PlayStation Portable and followed by the PS Vita. After Após years of hiatus in the production of independent hardware, the company tested public reception with the PlayStation Portal, an accessory dependent on a network connection. The temporary abandonment of the sector occurred due to the rise of smartphones, but the advancement of chip miniaturization has rekindled the technical viability of dedicated consoles.
The commercial success of Portal demonstrated the existence of a pent-up demand for mobile experiences with the brand’s approval, motivating investment in equipment capable of running the titles locally, without the need for constant internet. The new investment aims to restore the prestige achieved in the past, delivering an exclusive software library combined with direct conversions of major industry productions.
Development Forecasting and Generational Alignment
The company’s internal schedule suggests that the launch of the portable will occur in parallel with the next generation of desktop consoles. The strategy aims to unify the software library, allowing studios to develop their projects simultaneously for both platforms, using shared and scalable programming tools. The laboratory testing period should extend over the next few months, focusing on the stability of the operating system and the durability of mechanical components, such as analog buttons and pressure triggers.
