Apple prepares iPhone 18 Pro with cutout-free screen and translucent back inspired by classics

The North American technology manufacturer plans profound redesigns of the visual architecture and internal components of its main line of premium mobile devices. The development of the new generation of smartphones points to the adoption of new materials in the casing and the complete restructuring of the front panel, changing the way users interact with the device’s sensors.

The focus of the engineering modifications is on replacing the current dynamic notch system with image capture technology embedded under the display. The change aims to maximize the usable viewing area, delivering an uninterrupted glass surface, while the company implements substantial upgrades to data processing and energy autonomy.

Despite the significant structural changes, the physical dimensions of the panels will remain identical to previous generations, offering 6.3 inches for the smaller version and 6.9 inches for the larger variant. The rear photographic module will preserve the geometric identity already established by the brand, concentrating innovations on the internal part of the lenses and light-gathering sensors.

Historical context and new visual identity

The industrial design team sought references from computers from the late 1990s to create the smartphone’s new identity. The main aesthetic change consists of the application of a partially transparent glass section to the rear of the chassis, specifically located in the region surrounding the magnetic charging system. The choice of materials allows the visualization of internal components in a subtle way, creating an appearance that combines precision engineering with nostalgic appeal.

The implementation of this translucent panel reveals elements such as the power induction coil and adjacent circuits, establishing an immediate visual difference in relation to direct competitors in the high-end market.

Technology sector analysts evaluate the decision as a calculated move to reinforce the product’s exclusive positioning in global retail. By bringing back visual characteristics that marked periods of great commercial expansion for the brand, the manufacturer strengthens the bond with its regular consumer base. The design strategy evokes a phase of consolidation of the company in the consumer electronics market, using aesthetics as a differentiation tool in a segment where visual innovations have become scarce in recent launch cycles.

– The rear glass has controlled transparency only in the central area of ​​the device.

– Viewing components does not expose sensitive areas of the motherboard.

– The finish maintains the matte texture at the ends to avoid signs of use.

End of cutouts on the front panel

The most anticipated technological transition for the new series of devices is the definitive removal of the dynamic island, the upper cutout that houses the front camera and biometric sensors. The company’s engineering team developed a method to position the self-portrait lens under the display’s pixel layer, making the component imperceptible when playing videos or browsing applications.

Biometrics technology and advanced dashboards

The infrared emitters and readers responsible for facial mapping will also migrate to the bottom layer of the screen. The technology requires precise alignment of subpixels to allow light to pass through without compromising the security of biometric recognition.

The production of these highly complex panels involves supply agreements with Asian manufacturers specialized in light-emitting organic matrices. Joint development ensures that the area over the sensors maintains color fidelity and uniform brightness.

The adaptive refresh rate of 120 Hz will continue to be present across the entire screen. The feature ensures fluidity in interface transitions and text scrolling, adjusting the frequency dynamically to save energy when static images are displayed.

Variable aperture photographic system

The camera array will receive a mechanical upgrade with the introduction of a main sensor equipped with a variable lens aperture. The physical mechanism allows exact control over the amount of light reaching the image sensor.

Leia Tambem

Colby Minifie confirms Ashley Barrett’s powers in The Boys season five

Napoli x Milan in Serie A with confirmed lineups and where to watch live

New battery test puts Galaxy S26 Ultra ahead of iPhone 17 Pro Max in global ranking

The technology offers an adjustment range that varies from f/1.4 to f/2.0. The change in aperture occurs through small motorized blades inside the camera module, operating automatically or manually.

The f/1.4 setting maximizes light input in dark environments, reducing digital noise and providing natural optical background blur, without the need for software processing for portraits.

Setting to f/2.0 increases depth of field, ensuring that objects at different distances remain sharp simultaneously. The configuration is ideal for photographs of architecture, wide landscapes and recording groups of people.

Video recording and auxiliary lenses

The optical approximation module will maintain the periscope format with five times zoom capability, but the internal sensor will be updated to capture images with 48 megapixels of resolution. The ultra-wide-angle lens will receive a new mechanical stabilization system, designed to cancel out shakes when capturing moving videos and improve sharpness in panoramic night photography.

The image signal processor integrated into the new hardware will enable video recording in 8K resolution at 60 frames per second. The processing capacity required for this function demands extremely high memory transfer rates, in addition to advanced compression algorithms to prevent the device’s internal storage from quickly depleting.

Advanced processing and energy efficiency

The operational basis of the device will be the new processor manufactured using 2-nanometer lithography. The extreme miniaturization of transistors allows a significantly greater number of processing cores to be allocated in the same physical space.

The chip’s architecture was designed to accelerate machine learning and artificial intelligence tasks performed locally. The speed gain directly benefits computational photography, real-time language translation and file indexing in the system.

Thermal structure and energy autonomy

The durability of the internal components and the autonomy of daily use will undergo a structural reformulation with the adoption of a stainless steel casing for the battery, replacing traditional flexible aluminum packaging. The modification in energy containment engineering increases resistance against mechanical impacts by around 20% and improves thermal dissipation by 15%. Efficient heat exchange prevents forced reduction of processor speed during prolonged sessions of intense use, such as recording high-resolution videos or running complex graphics software. The nominal energy storage capacity will reach 4,800 mAh in the largest model, operating in conjunction with a new mobile connectivity modem developed in-house to reduce data consumption. The production chain will also incorporate 95% of recovered materials in the manufacture of energy modules, aligning the hardware with the goals of reducing the extraction of primary ores.

Change in distribution schedule

The strategy for arriving products on the shelves will undergo a change in the commercial calendar. The high-performance models will maintain their traditional launch in September, focusing the market’s attention on technological innovations.

The entry-level versions of the same generation will have their sales start postponed until the first half of the following year. The separation of dates aims to dilute the pressure on Asian assembly lines and avoid internal competition between the brand’s own devices.

Materials engineering and connectivity

The application of the translucent rear glass required rigorous testing to ensure that the variation in material density did not cause refraction of radio waves. The use of specific polymeric filters ensures the stability of cellular network connections, wireless internet and accessory pairing.

The main chassis structure will continue to be forged from aerospace-grade titanium, maintaining certification for resistance against submersion in water and the ingress of microdust particles. The metal anodizing process will bring back dark color options with high-gloss polishing, adapted to new scratch resistance standards.