SCHENKER ELEMENT 16 (E26): Extended Product Information (Deep Dive)

Introduction

With this Deep Dive, we want to take a detailed look behind the scenes of the SCHENKER ELEMENT 16.

How easy is the device to open and maintain? Which assemblies can be replaced separately? Which components can be upgraded later? And to what extent can a laptop be designed so that as many parts as possible can continue to be used across future generations?

We will also explain why certain technical decisions were made, which compromises they involve, and where the limits of the concept lie.

The (semi-)modular core concept

How far does the modularity really go?

For clarity, we may need to distinguish between three terms:

• Replaceable: The component can be accessed and removed without irreversible intervention in surrounding assemblies. Typical service materials such as adhesive strips may need to be replaced.
• Modular: A part is consolidated into a clearly defined, separately replaceable assembly.
• Upgradeable: A replaceable component can be exchanged for a compatible variant with higher performance, greater capacity, or additional functionality.

Example: The keyboard is a separately replaceable assembly and is therefore modular according to our definition. However, because additional adhesive strips are used for mechanical stabilisation, it is not intended for frequent replacement.

There are also limits to the modularity of the laptop's left- and right-side I/O ports and I/O boards. The individual ports cannot simply be pulled out separately. Instead, all ports on the left and right sides are grouped together on one circuit board per side. This reduces the number of additional interfaces and mechanical transitions, while still allowing a much smaller and less expensive assembly to be replaced instead of the entire mainboard if a port is damaged.

The display is also repairable, but it is not modular in the same sense as the I/O boards. The display bezel and panel partly use stretch-release adhesive strips. These can be removed during proper disassembly, but they are not designed for frequent opening.

How is the bottom case attached?

The bottom case is completely screwless. A mechanical slider unlocks a quick-release mechanism. The entire bottom case is then pushed forwards parallel to the chassis.

This simultaneously disengages numerous guide rails and retaining tabs from their counterparts. After this linear movement, the bottom case can be lifted off without any resistance. When closing the laptop, the process is reversed: the bottom case is first inserted into the guides, slid back into position, and then locked.

This design differs from that of most conventional laptop bottom cases. Those usually require several screws to be removed before numerous clips around the chassis can be released. Depending on the design, this requires a plastic opening tool, a suitable starting point, and the clips often have to be released one after another. In the process, clips, surfaces, or opening tools may wear out.

The ELEMENT 16 eliminates this step. There is no need to pry open the chassis or pull forcefully at any one corner. This not only makes the first opening easier, but is also intended to support repeated maintenance without gradually wearing out the mechanical connections.

Automatic battery disconnect when opening the chassis

When the bottom case is removed, the ELEMENT 16 automatically disconnects battery power from the mainboard. The battery therefore does not have to be unplugged manually before normal maintenance work.

Detection is handled by a so-called "Hall sensor" at the edge of the mainboard and a magnetic marker in the bottom case. A Hall sensor detects the presence of a magnetic field. When the bottom case is removed, this signal changes and the control electronics disconnect battery power from the mainboard.

The mechanism operates independently of Windows, BIOS settings, or the current operating-system state. It therefore reduces the risk of accidentally causing a short circuit during a RAM, SSD, or Wi-Fi upgrade.

For diagnostic work, it may be necessary to start the laptop with the bottom case removed. In this case, the closed-bottom-case state can be simulated by positioning a small magnet above the sensor marked "Hall Case" on the mainboard.

This override is intended exclusively for experienced users and service personnel. As soon as the sensor detects a closed state, battery voltage is once again present on the mainboard. The automatic disconnect also does not replace the usual precautions for protection against electrostatic discharge.

Screw-secured connections to the I/O boards

The most important connections between the mainboard and the side I/O boards use flexible printed circuits, or FPCs. FPC stands for "Flexible Printed Circuit". Unlike a simple FFC ribbon cable, traces and contact surfaces can be routed specifically on a flexible circuit board.

The FPC connections to the I/O boards are not merely plugged in; they are also mechanically secured with screws. This ensures a defined fit and avoids repeatedly stressing a fragile plastic locking mechanism whenever the component is removed.

Conventional FFC cables continue to be used where appropriate, for example for the keyboard and touchpad. These consist of parallel conductors embedded in a flat carrier film and connect via compact connectors.

Separate internal support frame

A large, screw-mounted internal frame stabilises the front half of the chassis. Underneath this frame are the touchpad, speakers, and parts of the cable routing, among other components.

Removing the frame adds an extra service step. In return, it protects the components underneath and keeps them in defined positions. Opening the bottom case therefore does not immediately expose loose components or parts secured only by lightweight connectors.

The speakers, for example, are mechanically isolated from the chassis by elastomer elements. This reduces the amount of vibration they transmit to the top case. At the same time, the support frame keeps them securely in place without rigidly screwing them to the chassis.

Screw-mounted touchpad

In many laptops, the touchpad is riveted, fused, or extensively bonded to the top case. A defect can therefore require replacement of the entire top case.

In the ELEMENT 16, the touchpad is secured separately with screws. Once the internal frame has been removed, the touchpad can be replaced as an individual assembly.

Few different screw types

For all internal assemblies, the ELEMENT 16 uses standardised Phillips-head screws and only a small number of different screw lengths. This reduces the risk of mixing up screws during reassembly or inserting a screw that is too long into an unsuitable mounting point.

Separate fans and heatpipes

The two fans are not designed as permanently attached parts of the thermal module. They can be replaced individually without also having to replace the heatpipes and CPU contact plate.

Thin sealing and cushioning strips between the fan and heatsink direct airflow through the cooling fins. During repair, these strips have to be carefully detached and reattached afterwards, but they do not form a permanent connection between the fan and heatpipe assembly.

Replaceable battery

The 72 Wh battery is not glued in place. Instead, it is secured by seven screws and connected to the mainboard via a separate connector. It can therefore be replaced without removing adhesive or replacing other chassis parts.

The battery fills practically the entire area allocated to it inside the internal support frame. An alternative battery variant with higher capacity is not currently planned.

Where possible, the mechanical and electrical battery interface is also intended to remain unchanged in future generations of the ELEMENT 16. The aim is to enable a later model to use the same battery, or for an older model to be equipped with the battery from a successor.

A look inside

Here is a view of the internal layout after removing the bottom case:

The rear half is occupied by the mainboard and cooling system. The processor sits centrally beneath the thermal module, with the two fans positioned to its left and right. The fan on the left in the image is slightly larger than the other one. The separate I/O boards are located along the two outer sides of the chassis and also have different shapes for technical reasons.

The connecting cables between the mainboard and the I/O boards can be seen here, including their screw retention. The broad dark cables are FPCs (Flexible Printed Circuits) carrying the main data connections. The white FFC cable on the right of the image handles the microSD card reader and audio.

Below the CPU is the SO-DIMM slot, covered by a grey EMI shield. The shield is permanently attached to the slot and can easily be lifted or bent upwards when replacing the RAM. The slot itself is underneath the cover. The integrated DDR5 memory for the second channel is located on the opposite side of the mainboard and is not visible from this view.

In the next image, we remove the internal support frame and battery to expose additional components:

The screw-mounted touchpad is positioned at the bottom centre, with one speaker on either side and a black-and-red audio cable connecting them. The touchpad forms a separate assembly and is attached to the top case with three screws. An FFC cable connects the touchpad to the mainboard, while EMI tape provides grounding through a metal frame in the top case. Once the screws and the cable or tape have been detached, the touchpad can be removed from its mounting position.

The large internal support frame therefore serves two purposes: it stiffens the front half of the device while also securing and protecting components such as the speakers and touchpad. For repairs, it can be removed completely, as shown here.

Modular I/O boards for the side ports

One distinctive feature of the SCHENKER ELEMENT 16 (E26) is the separation of the side I/O ports from the mainboard itself. The ports are distributed across two separate I/O boards - one on the left and one on the right - and are connected to the mainboard and outer chassis through a service-friendly mechanical design.

This has an immediate practical advantage: a mechanically damaged port does not automatically require replacement of the entire mainboard. Depending on the type of damage, replacing the much smaller side circuit board may be sufficient. At the same time, this design creates the technical foundation for offering alternative port configurations in the future.

We will explain below how far this modularity extends.

How are the side ports constructed?

Each side of the device has its own I/O board containing the respective ports. Each circuit board is secured in the chassis with three identical screws.

The connection to the mainboard uses flexible printed circuit connections. These connectors are not merely plugged in either, but are mechanically secured with two screws each, identical to the three screws mentioned above.

The more extensive port configuration on the left side requires two connection cables to the laptop, while the right side requires only one. In particular, the two Thunderbolt 4 ports, including USB Power Delivery and DisplayPort 2.1, impose high requirements on signal integrity and therefore have a correspondingly isolated data path. The audio jack and microSD card reader, also located on the left, share a second connection to the mainboard. Thunderbolt is connected via an FPC cable, while audio and the card reader use an FFC cable.

The actual chassis edge with the cut-outs for the ports is implemented as a separate plastic bezel that forms the outer surface and can be separated from both the I/O board and the rest of the chassis. The circuit board, bezel, and remaining chassis are therefore separate components.

There are also elastic spacers between individual components and the bottom case. These ensure that the components are held in a defined position once the device is closed and are not pressed directly against the bottom case.

Which alternative I/O modules are planned?

At launch, the SCHENKER ELEMENT 16 will be offered exclusively with the standard port configuration. There are plans for alternative I/O boards, but these have not yet entered series production as of August 2026.

However, the original platform concept explicitly provides for offering the side boards in different variants in the future. Together with Pegatron, we are evaluating various concepts. Which of these ultimately enter series production will depend on technical feasibility, demand, and the overall sales volume of the platform.

There are clear design-related limitations. The available space inside the chassis, which is less than 20 mm high in total, is limited. A conventional RJ45 Ethernet port, for example, cannot be reasonably integrated into the existing geometry. It is also not possible to add further Thunderbolt or DisplayPort connections on the right-hand side because the right-side FPC data connection was not designed for them. The lanes coming from the CPU are routed only towards the left side in the mainboard design, not in both directions. This was the only way to implement the dual Thunderbolt port on the left as compactly and cost-effectively as possible.

But some variants of the current port choice are possible. One conceivable option, for example, would be to prioritise existing functions differently, such as offering an additional USB-A port instead of the microSD card reader.

At launch, the situation for the SCHENKER ELEMENT 16 is therefore as follows: the I/O boards are technically replaceable and designed to accommodate different variants, but we cannot yet offer alternative port configurations. The standard configuration is already relatively broad, with two Thunderbolt 4 ports, two USB-A ports, HDMI, microSD, and audio.

Survey: which alternative I/O modules would you like?

We would like to point your attention to a quick survey on this topic. It presents specific variants of possible I/O port configurations for voting. This allows us to align both our own priorities and further development with Pegatron more closely with actual demand.

(Link tba)

The survey is anonymous and can be completed in less than 2 minutes. It helps to read the section above beforehand, as it explains why the range of possible variants is subject to technical limitations.

Could custom or third-party modules be developed?

In principle, yes. However, the system is not designed as a freely accessible DIY ecosystem modelled on individual plug-in port modules.

An I/O module in the ELEMENT 16 is a complete circuit board with several ports and a defined connection to the mainboard. The shapes and internal connections differ between the left and right sides. Depending on the function, signal routing, controllers, power delivery, and mechanical requirements all have to be taken into account.

Developing a custom board is therefore considerably more complex than, for example, Framework's system, where every I/O port uses the same dimensions and connects internally through standardised USB-C power and data interfaces.

For this reason, we currently do not plan to publish an open-source specification of the I/O interface for general hobby projects. In the longer term, our first priority is to build up a more useful selection of compatible I/O boards ourselves. This should already cover a large proportion of practical requirements without the need for individual third-party development.

For specific development projects by companies, system integrators, or other partners, however, we can make the relevant development specifications available following technical coordination with Pegatron and under an NDA. Anyone interested in developing a particular I/O board for a specialised enterprise solution, for example, is welcome to contact us.

Keyboard

How is the keyboard installed?

The keyboard of the SCHENKER ELEMENT 16 (E26) is designed as a standalone module. The keycaps, switch membrane, support plate, and white backlight form a single assembly. Two ribbon cables connect the module to the mainboard: one for the actual keyboard matrix and a smaller one for the backlight.

For installation, the keyboard module is inserted into the top case from above and then secured from below with two screws while the bottom case is open. In addition, three narrow strips of double-sided adhesive tape are used for stabilisation.

This is a deliberate compromise between replaceability and mechanical stability. Because of the adhesive strips, removal requires more care than simply undoing the two screws. This type of construction is not unusual among other replaceable laptop keyboards either. The important point for us is that the keyboard can be replaced separately in the event of a defect, without having to replace the complete top case.

Available keyboard languages

As with all XMG and SCHENKER laptops, we offer a wide selection of country-specific keyboard layouts for the SCHENKER ELEMENT 16. Our portfolio includes more than 30 language and mixed-language layouts in total, including not only the common European variants but also Dvorak and combined layouts for multiple languages.

One distinctive feature of the ELEMENT 16 is that both ISO and ANSI keyboards are available. This also makes the device suitable for users who deliberately prefer an ANSI layout regardless of their native language - for example software developers or users who have worked with a US keyboard for many years. ANSI layouts, which use the smaller Enter key, are also widespread among users in countries such as Poland and the Netherlands.

We maintain an overview of the available layouts and preview images in our separate FAQ article on keyboard layouts.

• Information about our keyboard layouts

Otherwise, our layouts follow the respective operating-system standards. The specific language and physical layout are selected during configuration.

Function-key implementation in our keyboard layouts

Compared with the ODM standard, we revised both the arrangement of secondary functions and the firmware mapping to align them with our other XMG and SCHENKER keyboards. The aim is an ergonomic distribution and consistent operation across different product series.

Navigation via Fn+arrow keys is particularly important to us. Home, End, Page Up, and Page Down are therefore always available in the same positions regardless of the physical size of the keyboard. We use this basic structure across all laptops in our broad portfolio.

FnLock follows the same principle. Fn+Esc determines whether F1 through F12 directly perform their traditional function or the respective notebook-specific function. The setting is retained after a shutdown or restart. During the boot process, the firmware deliberately ignores FnLock so that, for example, F2 can still reliably be used to enter BIOS Setup.

We deliberately left F4 and F5 without notebook-specific functions. This keeps frequently used combinations such as Alt+F4 for closing windows and the traditional F5 refresh function in browsers intuitive even when FnLock is enabled.

The same functional logic applies regardless of whether a German QWERTZ, UK ISO, or US ANSI layout is ordered. The keyboard matrix structure in the EC firmware is fundamentally language-agnostic and therefore independent of the input language selected in the operating system.

In addition to the functionality, we also simplified the labelling compared with the original ODM layout. Different font sizes and inconsistently distributed symbols have been reduced so that the keyboard retains a clean and consistent appearance despite the large number of available functions.

No Copilot key

The SCHENKER ELEMENT 16 does not have a dedicated Microsoft Copilot key.

Microsoft introduced the new key several years ago as part of the increasing integration of AI features into Windows PCs. Depending on the keyboard design, it often replaces an existing key such as the context-menu key or right Ctrl key, or moves that previous function to an Fn secondary assignment.

We therefore asked our community back in 2024 how we should handle the Copilot key. 57% of participants rejected both a dedicated key and a Copilot logo as a secondary legend. Based on this feedback, we decided to retain our traditional layout.

• After Community Survey: XMG Decides Against Copilot Key

On the ELEMENT 16, we therefore continue to use the corresponding position for the right Ctrl key, while Fn additionally provides the context-menu function.

This decision is not directed against AI features or LLM applications in general. The ELEMENT 16 has a powerful NPU and can of course use Microsoft Copilot as well as other AI services. However, we continue to see no functional reason to reserve a dedicated key permanently marked with a vendor-specific symbol for this purpose.

Memory

The SCHENKER ELEMENT 16 (E26) combines 8 GB of soldered DDR5-5600 memory with one freely accessible SO-DIMM slot. The slot accepts modules of up to 64 GB, providing a maximum total memory capacity of 72 GB.

This combination is unusual - and for a laptop whose overall concept is strongly focused on modularity, it requires some explanation.

Why is there soldered memory?

At an early stage of development, the ELEMENT 16 was not intended to use conventional DDR5 SO-DIMM memory at all. Instead, LPDDR5X was planned - not soldered to the mainboard, but in the form of LPCAMM2. LPCAMM2 combines the advantages of LPDDR5X - high memory bandwidth, low power consumption, and compact dimensions - with a replaceable module. A single LPCAMM2 module also connects both memory channels.

For this project, however, the LPCAMM2 ecosystem did not develop quickly enough to reach a price and availability level that the partners involved considered viable for broad series production.

By that point, major aspects of the device had already been defined: the size and shape of the mainboard, battery, cooling system, and the positions of numerous other components. Adding two conventional SO-DIMM slots afterwards would have required substantial changes to the mainboard and internal layout, making the project correspondingly more expensive and delaying it.

The resulting compromise is one memory channel with DDR5 soldered to the mainboard and a second memory channel with a freely accessible SO-DIMM slot.

The BGA memory chips are located on the back of the mainboard, between the mainboard and keyboard. Their very low profile means they require significantly less space there than an additional SO-DIMM socket.

We explicitly regard this solution as a compromise rather than the ideal form of a modular memory concept. It provides memory upgradeability in this generation. Which architectural decisions may be made for potential future mainboard generations remains to be seen.

Which onboard memory is installed?

There is no component lottery for the soldered memory. All production units use Micron DDR5 with the following specification:

• Model number: MT60B1G16HD-56B:D
• Organisation per IC: 16 Gbit, 1G x16
• Number of DRAM ICs: 4
• Data rate: DDR5-5600
• Primary timings: CL46-45-45
• Voltage: 1.1 V
• Standard: JEDEC JESD79-5

The specific Micron component is specified for 5600 MT/s at 46-45-45. It complies with the standard JEDEC DDR5 specification and is not a proprietary or modified memory type.

The upgradeable SO-DIMM module does not have to come from the same manufacturer. Intel's DDR5 memory controller explicitly allows DRAM technology, chip density, rank count, and chip width to differ between the two memory channels. This makes it possible, for example, to combine the Micron x16 chips on the mainboard with a SO-DIMM using DRAM ICs from SK hynix, Samsung, or Micron in a different rank or chip organisation. The specific operating parameters are trained at startup by Intel's Memory Reference Code (MRC).

How does Intel Flex Memory / Dual Channel work?

With two memory channels of different capacities, Intel uses what it calls Flex Memory Mode. The memory controller divides the available RAM into a symmetrical and an asymmetrical region.

In the ELEMENT 16, the onboard side has 8 GB. Adding another 8 GB SO-DIMM creates a 16 GB Dual Channel region. For larger modules, any additional SO-DIMM capacity remains fully usable, but operates in Single Channel mode.

But which application ends up in which region?

Intel Flex Memory operates at memory-controller level rather than on a per-application basis. According to Intel, the symmetrical region starts at the lowest physical memory addresses and extends for as long as the same capacity is available on both memory channels. Only after that does the asymmetrical Single Channel region begin. Within the symmetrical region, the memory controller alternates memory accesses across both channels.

Windows fundamentally treats the entire RAM capacity as a shared pool of physical memory. Windows applications work with virtual addresses. The Windows Memory Manager maps these virtual memory pages to physical RAM pages and can change this mapping during operation.

This means that it does not matter which application is launched first - Windows manages the physical address space automatically. Task Manager also cannot show which share of a particular application's memory currently resides in the symmetrical or asymmetrical region.

Note: DDR5 operates more efficiently than previous memory generations even with only one populated memory module, partly due to its two independently addressable 32-bit subchannels per module. These do not replace a fully symmetrical Dual Channel interface, but together with DDR5's high transfer rates they reduce its importance in many everyday applications. For office work, web browsing, communication, and conventional multitasking, the available RAM capacity is generally more important than maximum memory bandwidth.

Which SO-DIMM modules are supported?

In principle, the ELEMENT 16 supports standard commercially available DDR5 SO-DIMM memory compliant with JEDEC specifications. However, we additionally validate the modules offered in the bestware configurator on the specific platform. We do not merely check whether a module boots, but test areas including:

• Memory Training during cold starts
• MemTest
• Standby and Resume
• Long-term stability
• Memory bandwidth
• iGPU load
• Temperatures under extreme memory load

The following module variants have been validated so far:

Note: the DDR5-6400 modules listed here also operate at only 5600 MT/s in SCHENKER ELEMENT 16 (E26) because of the DDR5-5600 memory integrated into the mainboard. This type of speed adjustment is normal within JEDEC standards. We also use these higher-capacity modules in other XMG and SCHENKER models.

Up to and including 32 GB, our testing so far has shown very broad compatibility. Using your own modules is generally possible, but as usual, they should be tested for stability with a memory test after installation.

With 64 GB SO-DIMMs in particular, power consumption is relevant in addition to basic compatibility. Different DRAM dies can differ noticeably in thermal behaviour even at the same capacity and data rate. The following 64 GB module we tested reaches higher temperatures under synthetic maximum memory load than we are willing to accept for a production configuration.

• ADATA ADS5560064G-S with Micron F-Die (4.6)

Another module requires particularly long Memory Training during boot - 20 minutes from a cold start - and is therefore also unsuitable:

• ADATA ADS5560064G-S with Micron B-Die (4.2)

We therefore explicitly do not recommend these two modules for the SCHENKER ELEMENT 16. Due to differing conditions, this non-recommendation cannot be applied to other laptop models automatically.

This currently leaves only one 64 GB Crucial module with Micron "B-Die" that we have successfully validated. Unfortunately, because Crucial has exited the consumer business, this module variant is no longer available in sufficient quantities, which is why we cannot currently offer it in our shop. We are still looking for alternatives in the 64 GB range.

Can the onboard RAM be disabled?

Yes. This function was already provided at firmware level by our ODM partner and is deliberately exposed in our customised BIOS as a diagnostic and service feature. The option appears only when a functional SO-DIMM is detected.

The main reason is repairability. Soldered RAM cannot simply be removed from a slot like a SO-DIMM. If the onboard memory were to develop a functional defect at some point, we therefore do not want that to automatically render the mainboard unusable.

The system provides two mechanisms for this:

• Automatic fallback: If Memory Training of the onboard memory fails during a cold start, the firmware can exclude it from further memory operation and continue using a functional SO-DIMM. This was already implemented in the standard ODM BIOS.
• Manual disabling: In the case of intermittent faults, the onboard memory can be deliberately disabled in the BIOS, for example to narrow down the cause of bluescreens or memory errors. This is an addition in our BIOS for the SCHENKER ELEMENT 16.

In this state, the device operates exclusively from the SO-DIMM and therefore without the second full memory channel.

The RAM configuration can be reset through a CMOS reset - either by disconnecting the CMOS battery from the mainboard or through a hotkey function: with the laptop switched off, holding the power button for 15 seconds also triggers a CMOS reset. This resets all BIOS options except passwords, keys, certificates, and similar data.

The function is not a substitute for repairing every conceivable hardware fault. However, the manual and automatic options for disabling the integrated memory provide an additional way of keeping the device usable even before a repair - in Single Channel mode, but still with entirely usable performance, especially for normal office use outside iGPU gaming.

The manual disable option is also useful for troubleshooting in general: if the laptop is not actually defective but system or application instability has merely raised the suspicion that something might be defective, users are often advised to test the individual memory modules in a PC or laptop one at a time. With the manual BGA RAM disable function in the SCHENKER ELEMENT 16, this trial-and-error procedure remains possible despite the partially soldered memory configuration.

Further upgrade options

SSD with PCIe 5.0 support

For the first time in one of our particularly mobile and efficient laptop models, the M.2 slot in the SCHENKER ELEMENT 16 supports PCI Express 5.0 x4 for NVMe SSDs. Until now, PCIe 5.0 in our laptop portfolio had been limited to the significantly more powerful desktop-replacement platforms, such as the XMG PRO, XMG NEO, or SCHENKER KEY 18 Pro.

Panther Lake provides the relevant PCIe 5.0 lanes directly through the processor. We discuss potential performance advantages in this FAQ article:

• Is it worth it to pick a faster SSD with PCIe 4.0 instead of PCIe 3.0?

As a general rule, PCIe is backwards-compatible. The slot therefore works with PCIe 5.0 and PCIe 4.0 SSDs as well as older NVMe generations.

With fast PCIe 5.0 SSDs, however, another factor becomes more important: cooling.

SSD cooling and thermal pad

We routinely test SSDs using sustained read and write stress tests. These workloads are deliberately much more demanding than typical everyday use and push both the controller and NAND memory towards their thermal limits. Fast PCIe 5.0 models in particular may be unable to sustain their maximum transfer rates without sufficient heat dissipation and automatically reduce performance at high temperatures.

The original ODM design did not provide any direct thermal connection between the SSD and the chassis.

In the SCHENKER ELEMENT 16, however, a sufficiently dimensioned thermal pad is located underneath the SSD, between the SSD and the aluminium top case above it. Waste heat is therefore dissipated not only through the small surface area of the M.2 module itself, but transferred into a much larger metal surface of the chassis.

The advantages of this passive but large-area cooling solution are lower temperature peaks and greater thermal headroom during sustained transfers.

We do not use this solution only for PCIe 5.0 SSDs. All other SSDs receive the thermal pad as well. If the laptop is ordered without an SSD, the thermal pad is already pre-installed.

Wi-Fi module

The Wi-Fi module in the SCHENKER ELEMENT 16 uses a standard M.2 2230 slot and can be replaced independently of the mainboard. At launch, Intel Wi-Fi 7 BE200 is the standard configuration. The older Intel Wi-Fi 6E AX211 is available as a lower-cost option, while the newer Intel Wi-Fi 7 R2 BE211 is additionally offered as an upgrade.

The move from Wi-Fi 6E to Wi-Fi 7 brings three main technical enhancements: maximum channel width doubles from 160 to 320 MHz, the highest modulation level increases from 1024-QAM to 4096-QAM, and Multi-Link Operation (MLO) allows a Wi-Fi 7 client to coordinate multiple wireless connections. Under optimal conditions, Intel's stated maximum physical data rate, including overhead, increases from 2.4 to up to 5.8 Gbit/s.

Actual transfer rates naturally depend on the access point, channel width in use, wireless environment, and distance.

The difference between BE200 and BE211 is considerably smaller. The BE211's fundamental Wi-Fi specifications already match the BE200 with 2x2, 320 MHz, 4096-QAM, and up to 5.8 Gbit/s. The differences are mainly in the newer platform integration through CNVio3, with Bluetooth 6 added as well. However, this does not provide any advantage over the BE200 in terms of peak Wi-Fi performance alone.

All three modules use the same 2x2 antenna configuration and support the 2.4, 5, and 6 GHz frequency bands. The antennas installed in the SCHENKER ELEMENT 16 therefore do not have to be replaced when upgrading the Wi-Fi module later. Anyone ordering the device with AX211 or BE200 can subsequently replace the module with a BE211 without difficulty.

Mainboard upgrades and long-term platform strategy

Is the mainboard replaceable?

Yes. As with our other laptops, the mainboard is not permanently attached to the chassis. It can be removed completely and replaced.

Thanks to the well-planned internal layout of the SCHENKER ELEMENT 16, the complexity of a mainboard replacement is relatively manageable. Once surrounding components such as the keyboard, battery, fans, CMOS battery, and I/O-board cables have been exposed, only the display and touchpad cables and two screws need to be disconnected before the mainboard can be removed.

The fans and heatpipes are separate assemblies; the fans can be removed independently of the heatpipe system. The thermal module does not need to be removed to take out the mainboard - it can be removed together with the mainboard.

Nevertheless, unlike replacing an SSD or SO-DIMM module, replacing a mainboard is not a typical end-user procedure. Even with instructions, many small mistakes can occur if the work is carried out improperly. We will therefore generally offer mainboard replacement only as an in-house service. This also applies outside the warranty period.

For all our PCs and laptops, we generally offer paid service work covering areas such as maintenance, repairs, replacement of thermal interface materials, and subsequent RAM or SSD upgrades:

• RMA return for a voluntary device check-up

For the SCHENKER ELEMENT 16, we will also offer mainboard upgrades as part of these services once compatible successor mainboards become available.

Which future platforms are currently planned?

The SCHENKER ELEMENT 16 was developed as a joint platform project by Pegatron, select LOEM partners and Intel. Due to Intel's key involvement, the current chassis is therefore planned to remain exclusively on Intel platforms.

The direct Intel successor generation to Panther Lake is already firmly planned. Due to NDA agreements, we cannot provide any further information about processor names, technical details, or timing at this point.

We would answer the question of additional generations, meaning "N+2" and beyond, with "N" representing the current generation, as follows:

• The chassis was developed with the intention of accommodating multiple mainboard generations.
• Whether additional mainboards beyond the already planned next generation are actually implemented will also depend on the commercial success of the platform. Intel and Pegatron cannot currently guarantee a corresponding roadmap.

In other words: we first need to establish the ELEMENT 16 successfully in the market. If the platform reaches sufficient sales volumes, there is a clear economic incentive to continue using the existing chassis and ecosystem for further processor generations.

Which components are intended to remain compatible across generations?

The mechanical dimensions, mounting points, and interfaces of the ELEMENT 16 were designed so that as many components as possible can continue to be used unchanged across multiple mainboard generations.

For standardised components such as SSDs and Wi-Fi modules, expected compatibility is mostly derived from their respective industry standards. For proprietary components such as the battery, I/O boards, and keyboard, however, compatibility has to be actively taken into account during the development of future mainboards.

The same applies to the display. Laptop displays generally use the industry-standard eDP interface to connect with the mainboard. However, due to their high data rates, resulting from high resolutions and refresh rates, and the demanding energy-efficiency requirements, as the display is one of the larger continuous power consumers in a mobile system, laptop displays often have to be validated with and tuned for the full mainboard and firmware configuration stack.

Our aim is to take backwards compatibility into account during the development of future generations, to maintain a maximum amount of compatibility with these then-legacy components.

Comparison with other laptop models

How does the SCHENKER ELEMENT 16 differ from other XMG and SCHENKER laptops?

For us, modularity and repairability is not exclusive to the ELEMENT 16. In all XMG and SCHENKER laptops, RAM, SSDs, Wi-Fi module, battery, fans, CMOS battery, and mainboard can be replaced individually, of course with the caveat that some replacements are more difficult than others. We publish Service Manuals, permit independent upgrades within our warranty terms, and offer all models without a pre-installed operating system. See also:

• How service-friendly are XMG & Schenker laptops?

The SCHENKER ELEMENT 16 goes further in several areas:

• tool-free removable bottom case
• automatic electrical battery disconnect
• separate I/O boards on both sides
• screw-mounted and individually replaceable touchpad
• replaceable keyboard even in a slim aluminium chassis
• particularly consistently structured internal layout
• preparation for future mainboard generations

Especially in thin aluminium laptops, the keyboard and touchpad are often permanently integrated into the top case. Replacing a single input device may then require an entirely new top case. In the ELEMENT 16, these assemblies remain separate.

At the same time, the device retains many of our established principles: freely configurable RAM and SSD components, transparent information about key components, a clean Windows installation without additional advertising software depending on the selected configuration, and publicly available maintenance documentation.

How does the SCHENKER ELEMENT 16 differ from Framework notebooks?

Framework places an even stronger emphasis on modularity and goes further than the ELEMENT 16 in several areas. This includes individually replaceable Expansion Cards for I/O ports, particularly easy-to-replace display and input modules, LPCAMM2 memory, and a mainboard upgrade path that has already been realised across multiple generations. Framework also publishes design documentation for numerous components and operates its own marketplace for modules and spare parts.

The ELEMENT 16 aims for a somewhat different approach, a middle ground. We also wanted to enable greater repairability and upgradeability, but without compromising the overall appearance and haptics of the laptop. The top case therefore remains a single-piece aluminium component. The ports are grouped into two side I/O boards rather than providing a separate slot and an additional internal interface for every individual port.

Our approach is less flexible than some of Framework's design principles. However, it reduces the number of mechanical transitions, additional connectors, and visible module boundaries. The core idea was: the ELEMENT 16 should not make its modularity obvious in its immediate appearance, but rather only expose it during maintenance, repairs, and future upgrades.

Chassis

What materials is the chassis made from?

The rear of the display lid and the complete top case, including the palm rest, are made from an aluminium alloy containing 50% recycled material. The surface is anodised dark grey; we specified this colour ourselves for the SCHENKER version of the project, as the original ODM model was planned only in light blue.

The display bezel and bottom case are made from a PC+ABS plastic containing 30% recycled material plus an additional 15% mineral filler. The mineral content stabilises the mechanical properties of the plastic while still allowing it to be manufactured with relatively thin walls. The touchpad has a glass surface.

Where does the recycled material come from?

Different types of recycled material are used for the two primary chassis materials.

For the aluminium alloy "5052RC", the supplier specifies a minimum of 50% pre-consumer recycled aluminium. This is verified according to the "SCS Recycled Content Standard" on a mass-balance basis.

Pre-consumer refers to material generated as residual material during industrial manufacturing or further processing and subsequently returned to the material cycle. Typical examples include offcuts, stamping scrap, or other production waste that leaves the factory or is reprocessed before becoming part of a finished consumer product.

For the plastic, the recycled content comes from so-called "post-consumer" recycled material. The product name of this compound is "Bayblend FR3021 R30", and its manufacturer originates from Germany. Post-consumer means that the source material has already been part of a finished product that was used and was subsequently processed back into raw material. It therefore comes from a later stage of the product life cycle than conventional manufacturing scrap.

What does testing according to MIL-STD-810H mean?

MIL-STD-810H describes a series of standardised environmental and stress tests used to examine the resistance of electronic devices under controlled laboratory conditions.

It is not a single overall "certification". Instead, selected test methods and procedures are performed and evaluated separately.

The SCHENKER ELEMENT 16 was tested according to the following MIL-STD-810H procedures:

The tests simulate in particular typical stresses caused by:

• low air pressure during air transport and operation at high altitude
• high and low temperatures
• prolonged storage and transport under extreme temperature conditions
• vibrations during road transport
• shocks during normal handling
• low-frequency mechanical vibration

The shock test according to Method 516.8 was performed as a handling test with a drop height of 10 cm while the device was running. It therefore does not correspond to a free fall from typical desk height and does not mean that the notebook will withstand arbitrary falls onto hard surfaces without damage.

Still, passing these tests confirms increased resistance to the specific environmental, transport, and handling stresses examined. However, the SCHENKER ELEMENT 16 is not a specially sealed or reinforced rugged notebook intended for extreme operating conditions. The results also do not constitute a guarantee that the device will always survive future exposure to the same conditions without damage.

Performance and battery life

Intel Core Ultra 5 325 and Ultra 7 356H

With the SCHENKER ELEMENT 16, we use Intel Core Ultra Series 3, also known by the codename "Panther Lake". Panther Lake is Intel's first client processor family based on the Intel 18A manufacturing process and combines new CPU cores with Xe3 graphics and a current-generation NPU. Intel developed the platform particularly with high performance per watt in mind.

Two processors are available for the SCHENKER ELEMENT 16:

Both processors use the same "FCBGA2540" package, which means the fundamental mechanical mainboard design is identical for both variants. The main differences lie in CPU-core configuration and the amount of connected cache.

For short and lightly parallelised workloads, the two processors perform relatively closely, while the Core Ultra 7 can draw on twice the number of cores during sustained Multi-Core workloads. The graphics configuration, on the other hand, is identical in the two variants we offer.

Here are some benchmark results from the SCHENKER ELEMENT 16 for comparison:

Intel Core Ultra 5 325 and Core Ultra 7 356H use the same integrated graphics: four Xe3 Cores at up to 2.45 GHz. Intel specifies maximum compute performance of 40 GPU TOPS for both variants. The results in the table were obtained with 16 GB DDR5-5600, consisting of 8 GB onboard plus an 8 GB SO-DIMM module. As described in the memory section, we explicitly recommend installing a SO-DIMM for iGPU-heavy applications so that at least the symmetrical 16 GB region can operate in Dual Channel mode.

Performance profiles

The included Power Management software provides four performance profiles. The profile is selected using a slider, and the application also displays current energy consumption in a history graph.

The profiles primarily change the power limits available to the processor. High Performance accordingly permits higher short-term and sustained power consumption, while the two power-saving profiles limit the CPU earlier. With the Core Ultra 7 356H, the highest profile provides up to 65 W in the short term and up to 50 W under sustained CPU load.

Profiles are switched through the Power Management application. Switching via a keyboard shortcut is not provided.

Fan control

Regardless of the selected CPU, every SCHENKER ELEMENT 16 uses the complete cooling system with two fans and two rear exhaust vents. The original ODM concept provided only a single fan for the "smaller" Core Ultra 5 325. For our production version, however, we use the same dual-fan layout with both CPUs. By combining two airflow paths, both fans can operate at lower speeds for a given cooling load than a single fan would require to provide the same airflow.

As with our other current platforms, the fan control system combines temperature averaging with hysteresis, meaning that it uses separate temperature thresholds for increasing and decreasing fan speed. Temperature averaging prevents short CPU temperature spikes from immediately triggering the next fan level. Hysteresis prevents the fans from constantly switching between two speeds when the temperature sits close to a threshold: for example, the system only switches upwards at 50 °C, but does not switch back down until the relevant temperature falls below 45 °C.

This mechanism is explained further in this article:

• Information about our fan curves

All four performance profiles use the same fan-control logic in ELEMENT 16. Their acoustic behaviour nevertheless differs: a lower CPU power limit generates less waste heat and therefore keeps the platform in the lower fan stages more often. Panther Lake in particular can operate effectively at relatively low power consumption, which means Power Saving and Super Power Saving can be used not only as battery profiles but also as lower-noise profiles.

Why are there no 12-Xe variants?

Panther Lake exists in two fundamentally different platform configurations.

The larger Core Ultra X models, such as the Core Ultra X7 358H, use Intel Arc B390 graphics with twelve Xe3 Cores. This provides three times as many GPU units as the four-Xe configuration we use. At the same time, however, the memory architecture is also different: Intel specifies these 12-Xe variants exclusively for LPDDR5X at up to 9,600 MT/s. Conventional DDR5 memory, and therefore SO-DIMM, is not supported for these variants.

The 12-Xe configuration uses a different internal I/O and memory layout and requires a correspondingly different mainboard design. For the ELEMENT 16, this would effectively have required a second mainboard, including permanently soldered LPDDR5X. The freely accessible SO-DIMM slot would therefore have been lost.

We deliberately focused instead on the Panther Lake variants that continue to support "normal" DDR5 SO-DIMM memory and can be integrated into a single mainboard layout.

Battery life and energy efficiency

The ELEMENT 16 has a replaceable 72 Wh battery. At 150 nits display brightness using the Power Saving profile, the device achieves around 12 hours of video streaming and around 11 hours in office applications. More than 16 hours is possible in a largely idle state.

In practice, battery life naturally depends heavily on software and settings. Display brightness, background programs, browser tabs, synchronisation services, Windows updates, or additional security software can noticeably increase power consumption.

Configurable battery charging control

The Power Management software additionally provides manually configurable charging control. Two separate thresholds can be specified: the battery level below which charging should start again, and the level at which charging should stop. The corresponding function is integrated directly into the application's "Battery health" section.

Anyone who uses the notebook primarily while connected to AC power can, for example, limit the maximum charge level to a lower value. One possible configuration would be: begin charging only below 40%, then charge only up to 70%.

This type of configuration is deliberately optional. Anyone who does not want to deal with such parameters can leave the automatic default setting enabled. This also includes automatic mechanisms for avoiding micro-cycles.

The tool additionally provides so-called Peak Shifts. Up to six schedules can be created and activated based on time of day or day of the week, and a minimum battery charge level can also be specified.

This allows charging or AC-power behaviour to be deliberately shifted into particular time windows - for example in environments with time-dependent electricity tariffs or where the use of self-generated solar power is deliberately scheduled.

I/O ports

How do the two Thunderbolt ports work together?

The SCHENKER ELEMENT 16 has two fully featured Thunderbolt 4 ports on the left side. In addition to USB and Thunderbolt data connections, both support DisplayPort 2.1 and USB Power Delivery with up to 100 W.

Panther Lake integrates Thunderbolt 4 directly into the platform. Each of the two USB-C ports has its own Thunderbolt connection and can operate with a link speed of up to 40 Gbit/s. Connecting a Thunderbolt device to the first port therefore does not simply reduce the negotiated link speed of the second port.

How many external monitors can be connected?

The decisive limitation comes less from the available ports than from the display engine of the integrated Intel graphics: a maximum of four displays can be driven independently at the same time. This applies to both processors offered in the ELEMENT 16.

The internal laptop display counts towards this limit while it is active. Typical configurations could therefore include:

• internal display + HDMI + 1x Thunderbolt + 1x Thunderbolt
• internal display + HDMI + 2 monitors connected to a Thunderbolt docking station

A Thunderbolt docking station can provide two monitors through a single USB-C port. These two monitors count as two independently driven displays.

Firmware features

Changes compared with the ODM standard

The standard firmware of an ODM platform has to work for as many different customers and use cases as possible and is therefore deliberately generic in many areas. For the SCHENKER ELEMENT 16, we defined additional requirements for the BIOS and EC to bring the system up to the level of our other product series.

These include expanded hardware and CPU settings, selective disabling of individual devices, PXE boot through USB Ethernet, additional power-on options, our own keyboard mapping, and service functions for the soldered memory. There are also less visible changes that nevertheless affect everyday behaviour, such as the response of the power button and the programming of the status LEDs.

Additional screenshots:

• PDF file containing all BIOS screenshots from the SCHENKER ELEMENT 16 (E26)

We will cover some of these features in more detail below.

Disabling I/O ports and components

Several internal and external devices can be disabled directly in the BIOS, including:

• webcam
• microphone
• headphone/audio output
• Wi-Fi
• Bluetooth
• M.2 SSD slot
• left-side group of data ports
• right-side group of data ports

This disabling takes place at firmware level and therefore before the operating system starts. It is not equivalent to merely disabling a device in Windows Device Manager.

This can be useful in enterprise environments, for example, where certain wireless, camera, or data interfaces should not be available at all. At the same time, the feature also simplifies troubleshooting: when dealing with difficult-to-isolate problems, an individual component can be deliberately removed from the platform configuration without opening the device or physically removing it.

CPU core configuration

The BIOS also allows the number of active Performance and Efficiency Cores to be limited. For normal operation, there is little reason to deviate from the default configuration with all available cores enabled. The function is instead aimed at specialised use cases, for example:

• software testing with a defined CPU topology
• reproducing specific customer configurations
• older or licence-dependent software
• testing power consumption and temperature
• specialised low-latency or real-time applications

The setting is therefore more of a diagnostic and specialist tool than an additional performance profile.

Manual disabling of BGA RAM

The BGA RAM disable function already described in the memory section is part of our extended BIOS configuration. We exposed an existing low-level platform function as a manual service option.

The most important use case is diagnosing or working around a fault in the integrated memory. In the event of bluescreens or unclear stability problems, the BGA RAM can be removed completely from the system configuration for testing, allowing it to be narrowed down or ruled out as a potential cause.

The option can be reset via hotkey and CMOS reset. The exact procedure is described again in more detail below.

PXE boot over USB Ethernet

The SCHENKER ELEMENT 16 does not have an integrated RJ45 Ethernet port. However, traditional network booting or installation via PXE, which is sometimes used in larger enterprise environments, is still possible. The UEFI already includes network drivers for some of the common USB Ethernet chipset families:

• ASIX AX88179
• Realtek RTL8152
• Realtek RTL8153

This allows the notebook to access the network through suitably equipped USB LAN adapters or docking stations before an operating system has started, enabling PXE boot or installation over both IPv4 and IPv6.

Power-on when connecting a charger or opening the display

Two additional BIOS options determine the conditions under which the notebook should switch on automatically:

• "Power on AC Attach" starts the device automatically as soon as a power source is connected. This can be useful, for example, at fixed workstations, in docking setups, or in installation positions where the device is difficult to access.
• "Power on Lid Open" starts the powered-off notebook when the display lid is opened. Waking from Standby in this way is standard behaviour, but automatically starting from Shutdown (S5) and Hibernate (S4) is a specialised feature that first had to be prepared at hardware level.

Both functions are disabled by default and can be configured independently.

Function keys

We already described the keyboard layout in more detail in the keyboard section. Technically, however, it is also based on a custom EC firmware configuration. The function assignments are independent of the selected keyboard language. A German ISO, US ANSI, or other language layout uses the same fundamental EC logic.

Protection against accidental power-button presses

The power button of the SCHENKER ELEMENT 16 is integrated into the top-right corner of the keyboard. This makes it prone to be hit accidentally, particularly when using the numeric keypad.

While the system is running, the EC firmware explicitly does not accept a short key press on the power button. The button (or key) has to be held continuously for at least one second before the event is passed to the operating system. The operating system then decides, as usual, which action is associated with the power button - for example Standby, Hibernate, Shutdown, or no action, depending on the operating-system configuration.

We previously implemented the same logic in the SCHENKER VIA 14 Pro and SCHENKER VISION series, which also integrated the power button into the keyboard.

CMOS battery and reset via hotkey

When the laptop is switched off, holding the power button for 15 seconds triggers a CMOS reset. This resets the corresponding firmware settings to their default state.

This is particularly important in combination with the extended BIOS options. If, for example, the onboard RAM is manually disabled and a non-functional SO-DIMM is then installed, users should not be permanently locked out of the BIOS. A CMOS reset also restores the BGA RAM configuration to its default state.

Beyond that, this function is a useful first recovery step for unusual boot or firmware behaviour without requiring the bottom case to be opened. A CMOS reset or BIOS reset can otherwise also be performed through BIOS Setup using Restore Defaults -> Save Changes and Exit.

Multi-brand and DMI concept

Because the SCHENKER ELEMENT 16 is based on a shared ODM platform, we deliberately separated device identity from the actual firmware build.

Important DMI fields such as manufacturer, product name, serial number, SKU, and chassis and mainboard identity are programmed during final assembly in Germany and are not overwritten by subsequent BIOS capsule updates.

As a result, different brands or B2B customers do not necessarily require entirely separate BIOS files.

We use the same principle for the boot logo. A single BIOS image can contain several logo variants. During startup, the firmware reads the stored Chassis Manufacturer DMI string (/CM) and selects the appropriate logo based on that value. If the DMI string does not contain a recognised name, the standard Windows boot logo is displayed. Independently of the DMI strings, the boot logo can also be disabled entirely in BIOS setup.

For us and potential B2B partners, these mechanisms make it possible to manage different product identities on the same technical platform without splitting the firmware into an ever-increasing number of separate development branches.

Firmware maintenance

Our extensive customisations are not intended to leave the SCHENKER ELEMENT 16 permanently stuck on an outdated ODM firmware version.

We therefore treat the firmware in two separate layers: the underlying ODM base remains the technical mainline, while our customisations are applied as a defined extension on top. Our changes are structured so that they can be reapplied to new ODM baselines and validated together with them. A new ODM version can therefore be adopted without permanently separating our firmware from upstream development.

If, for example, a new ODM BIOS version includes updated Intel microcode, Memory Reference Code, security fixes, or platform bug fixes, this new base can be adopted and then combined again with our customisations. Such a build naturally has to go through integration and validation again, but the customisations do not form a separate dead end.

This separation is also directly visible in the version number. The format is:

• [ODM version]A[SCHENKER revision]

Example:

• BIOS 2.13A06

This makes it possible, for example, to distinguish whether the underlying ODM version has changed or only our own customisation layer has been revised. We use the same scheme with other ODM products as well.

Repair, spare parts, and documentation

Which spare parts will be offered?

As a general principle for our laptops, if a part can be produced separately as its own assembly in a technically and economically reasonable way, we try to keep it available as a separate spare part for as long as possible.

For the SCHENKER ELEMENT 16, this includes:

Which repairs can users perform themselves?

For comparatively low-risk work, we can provide spare parts directly following diagnosis. On the ELEMENT 16, this particularly includes:

• SO-DIMM, SSD, and Wi-Fi module
• battery
• keyboard
• I/O boards and I/O covers
• fans
• smaller chassis and service parts

For the touchpad and some components located deeper inside the device, whether self-replacement is appropriate depends more heavily on the user's experience and the specific fault.

The mainboard, heatpipe assembly, and display are generally not shipped individually. While these components are also designed to be replaceable, replacing them involves more extensive disassembly and therefore carries a higher risk of accidental damage. We therefore handle these repairs through our service center rather than passing that risk on to the customer, just as we do with our other XMG and SCHENKER laptops.

Service Manual

As with all our laptops, we provide a publicly accessible Service Manual for the SCHENKER ELEMENT 16. It documents the disassembly process step by step with photos and guidance on screws, connectors, and individual assemblies.

• Download portal for SCHENKER ELEMENT 16 (E26)

Normally, our Service Manuals focus more heavily on components that can be replaced with a manageable level of risk. For the SCHENKER ELEMENT 16, we deliberately also document more extensive work such as removal of:

• mainboard
• thermal module
• I/O boards
• touchpad and speakers
• complete display assembly including the panel

This allows the technical documentation to reflect the ambitions of the device. However, publishing instructions does not constitute a blanket recommendation for users to carry out repairs themselves. Our usual safety guidance and warranty terms continue to apply as described above.

Spare-part supply and long-term availability

In general, long-term spare-part availability always depends on the model, platform, suppliers, and demand. For the SCHENKER ELEMENT 16, the cross-generation platform strategy is intended to improve this situation.

The battery, keyboard, chassis parts, fans, I/O boards, display, and many other components are designed to remain in use across multiple mainboard generations for as long as possible. If later ELEMENT generations use the same parts, spare parts do not have to be produced exclusively as small residual batches for a discontinued product. They remain part of ongoing series production.

How long this advantage can actually be maintained will depend on the success and further technical development of the platform. We therefore do not want to promise a fixed period even for the ELEMENT 16. However, we always aim to continue accepting repairs long after the warranty has expired and to keep spare parts available for as long as possible.

Warranty procedures

The fundamental warranty process for our own brands does not change with the SCHENKER ELEMENT 16. However, its modular design increases the number of cases in which a repair can be completed without sending in the entire notebook.

For the comparatively easy-to-replace components listed above, we can offer advance replacement under warranty following prior diagnosis. The replacement part is sent first; the customer replaces it and then returns the defective component. This service is optional - the laptop can also be sent in for replacement of easily serviceable parts. We offer corresponding maintenance, repair, and upgrade work through our RMA service outside the warranty period as well.

For more complex faults, we generally collect the complete device and carry out the repair ourselves. This particularly applies to work involving the mainboard, cooling system, and display. The same applies after the warranty has expired.

Closing remarks and outlook

Thank you to everyone who has accompanied us on the journey towards the SCHENKER ELEMENT 16. We continue to welcome questions, suggestions for improvement, and ideas from the community. If anything is still missing after reading this Deep Dive or if there are particular aspects you would like us to explain in more detail, please let us know.

Configure & Order:

• SCHENKER ELEMENT 16 (E26) at bestware