A deal would consolidate Elon Musk’s holdings in rockets, cars and artificial intelligence into a company worth well over $3 trillion.

General Motors is seeking help from artificial intelligence to keep up with Chinese companies that introduce vehicles very quickly.

Apple is recruiting a 6G cellular modem systems engineer, adding a next-generation research focus to its in-house modem development. The position, posted October 19 in Sunnyvale, California, describes responsibilities spanning cellular standards, hardware and software architecture, and power efficiency.

The Apple job listing establishes a concrete engineering focus. It does not identify a future iPhone, name a commercial modem, or provide a release date.

That makes the vacancy useful as a window into development priorities rather than a product announcement. The significant detail is how broadly Apple describes the work: connecting emerging standards with the decisions required to build a functioning cellular system.

The Role Connects Research With Product Engineering

The position covers feature definition, algorithm development, simulation, silicon testing, and preparation for production. Apple specifically identifies next-generation modem requirements with a focus on 6G evolution.

The listing also emphasizes translating engineering improvements into throughput, latency, battery life, and connection reliability. Candidates are expected to understand emerging 6G work alongside 5G and 4G standards.

Those responsibilities explain why modem development extends beyond designing a single chip. A cellular system must coordinate signal processing, software, and hardware while operating within a mobile device’s power constraints.

The practical challenge is balancing competing priorities. An approach that improves one performance measure may introduce costs elsewhere, such as greater processing demands. Evaluating those trade-offs is part of turning a technical possibility into something suitable for a portable product.

Apple’s 6G References Predate This Vacancy

The October posting is not the first public indication of this research. A separate Apple RF modeling position, dated June 24, includes modeling and simulation for 4G, 5G, and 6G modem systems.

The distinction matters when interpreting the latest recruitment. A newly published vacancy can reveal current responsibilities without establishing when a project began or how much its staffing has changed.

The two roles address different engineering tasks. The RF modeling position focuses on simulating radio-frequency behavior and investigating performance, while the newer systems role connects standards, algorithms, hardware, and software. Together, they illustrate why modem development requires work across several specialties.

The Standards Process Is Still Underway

The wider industry remains in the process of defining 6G. The International Telecommunication Union refers to the next generation as IMT-2030.

According to the ITU’s current development overview, its expert working party completed draft technical performance requirements in February 2026 and draft evaluation guidelines in June. Both documents have been submitted to ITU-R Study Group 5 for approval scheduled for December 2026.

The ITU has also invited proposals for candidate IMT-2030 radio technologies between February 2027 and February 2029. That window concerns submissions for evaluation, rather than consumer launches, and helps explain why companies are recruiting engineers while the technical framework is still taking shape.

These milestones concern how candidate technologies will be specified and assessed. They do not establish a date when a particular operator will offer service or when Apple will ship compatible hardware.

For readers, this is an important distinction between an industry framework and a usable connection. Standards work helps establish common expectations. Commercial availability requires additional decisions and implementation by device makers, network suppliers, operators, and regulators.

The Work Builds on Apple’s Existing Modem Effort

Apple already has experience bringing its own cellular modem to market. The company introduced C1 with iPhone 16e in February 2025, identifying it as its first internally designed cellular modem and a component supporting 5G connectivity.

That C1 announcement provides a commercial reference point for Apple’s modem work. The recruitment concerns a different stage: developing systems around emerging standards. Shipping a 5G modem and researching 6G are related activities, but progress in one does not establish a launch schedule for the other.

It does not establish that the new role belongs to a particular C-series successor. Assigning a name, manufacturing schedule, or specific iPhone generation would go beyond the information available.

What the Vacancy Means for iPhone Buyers

The immediate takeaway is about Apple’s development direction. The company is seeking engineers who can connect emerging wireless standards with practical requirements such as efficient operation and reliable connectivity.

For someone choosing a phone today, the vacancy provides no basis for predicting when 6G will become a useful purchasing consideration. Published device capabilities, local network coverage, and current service plans remain the information buyers can assess.

The more meaningful future milestones will be finalized specifications, announced compatible hardware, and documented operator deployments. Until those arrive, Apple’s recruitment offers evidence of preparation—and a clearer view of the engineering involved—without establishing the features or timing of a future iPhone.

The post Apple Seeks 6G Modem Engineer for Next-Generation Wireless Systems appeared first on AppleMagazine.

Experts are reaching consensus on what the condition is. Now they’re debating how best to treat it.

If you’ve delved into the worlds of Star Trek, The Terminator or William Gibson’s cyberpunk novel Neuromancer, you’ll know that enhanced, electronic vision is a staple of science fiction. Now, what was once futuristic fiction is becoming a reality.

Researchers have developed bionic eyes that can restore some lost vision. These devices’ capabilities are currently basic, but they have been steadily improving in recent years.

One day, they might even offer features that transcend the limits of natural human eyesight – for instance by manipulating images in a way the human eye cannot or by seeing beyond the spectrum of visible light.

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Technology that boosts people’s physical and mental abilities is no longer the preserve of science fiction. In this series, we explore cutting-edge ways that human capabilities could be augmented both now and in the near future – and the ethics of these innovations.

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To date, implants have focused on combatting problems with the retina, the light-sensing layer of cells inside the back of the eye. Akin to the film in the back of a camera, the retina allows us to see the outside world. When things go badly wrong with it, the result can be a total loss of vision.

Work to fix retinal blindness with implants began more than two decades ago. One of the first devices, developed by the German manufacturer Retina Implant AG, featured a light-sensing chip placed under a person’s damaged retina. This connected with their remaining healthy retinal cells, which then transmitted the chip’s vision signal from the eye to the occipital cortex, the brain region where vision is perceived.

Surgery to implant the chip took about eight hours. This included creating a recess in the skull behind the ear to implant a power receiver and then connecting this with a wire beneath the skin to the chip.

The device offered only rudimentary vision, with patients seeing flashes of light that corresponded roughly to the shape of the object they were looking at. Many implants also broke over time, possibly because of the frequent rapid movements of the eye or corrosion caused by its salty liquid interior. Retina Implant AG ceased operations in 2019, citing its lack of medical progress as one of the main reasons.

The other leading early device, Argus II, combined a glasses-mounted camera with a chip surgically inserted on top of the retina. The camera’s picture was converted into a signal and transmitted wirelessly to the chip (along with power), which then stimulated healthy cells in the damaged retina using an array of 60 electrodes.

Despite positive early results and FDA authorisation in 2013, ARGUS II also ultimately failed to deliver sufficiently convincing results. It was discontinued in 2019.

Newer approaches

Despite these setbacks, investigators have persisted in trying to create artificial vision.

A newer approach is to use an external camera that wirelessly transfers power and image data to a chip implanted in the occipital cortex. This built on research that placed electrical probes directly into the occipital cortex to stimulate visual perception.

This approach can help both patients with diseases of the retina and those with conditions affecting the optic nerve, which connects the retina to the brain. But exactly how much resolution can be achieved with this technique isn’t clear, as the retina’s high resolution and complex signal processing is lost.

One company trying this technique, Belgium-based ReVision Implant, is launching its first human clinical test in October 2026.

Another option is to use spectacles that transmit both images and power to a surgically inserted subretinal chip via an infrared signal. A device using this technique, Prima, has been tested in a specific disease of the retina called dry age-related macular degeneration (AMD), a leading cause of blindness.

In a small clinical trial, the device restored functional central vision to 81% of patients, allowing them to read letters, numbers and words. The device is now authorised in 30 European countries.

As AMD is far more common than the inherited retinal diseases treated by most earlier devices, this device is much more appealing to investors. However, there are ethical questions here. Unlike patients with inherited retinal diseases, most with AMD still have good peripheral vision, so they have much to lose if things go wrong. The complex surgery to implant a subretinal chip is far from zero risk.

Super-human vision?

Because these technologies relay visual information electronically, extra functionality could potentially be built into them. With Prima, patients can already use optical zoom, while algorithms that could allow for image sharpening have been proposed.

In the future, it is possible that devices may emerge that use cameras capable of seeing beyond the visible light spectrum. This could potentially offer thermal imaging and night vision. One device offering near-infrared vision has already been tested in primates.

But while exciting, these will probably not offer enhanced vision until the currently rudimentary artificial vision is advanced to the point that these “optional extras” become more relevant.

For now, there are still many biomaterial and electrical challenges preventing retinal implants from offering full, long-term vision restoration. However, a potentially greater challenge comes from competing biological solutions, such as stem cells, which are in the early stages of human trials.

These have also had a few false dawns and there are big obstacles to overcome in terms of cell survival and integration. But if new human retinal cells can replace those lost to disease, they could one day overtake bionic eyes entirely as the solution for vision restoration.

Tim Jackson was involved in one of the trials of Retina AG’s device, and his NHS employer received site fees for participants enrolled on the trial. As part of this trial, he received support to attend surgeon training in Germany.