This tracker collects Apple and Samsung filings that attack crease-prone screens, hinge wear, camera-magnet interference, flexible circuit boards, and cover-display software tricks. Together they show both companies chasing the same handful of mechanical and display problems from different technical angles.
106 filings · tracking since Apr 2026 · latest Nov 2026 · updates weekly
based on all tracked filings in this watchlist · refreshes every week
This race is about solving the core problems that come with folding a screen: the crease it leaves, the hinge that controls the fold, and keeping everything inside the phone working when the shape changes.
Samsung carries most of the weight here by a wide margin, covering everything from screen coatings to antennas to charging; Apple is the only other company with enough filings to show a clear direction of its own.
a dated entry each week this watchlist moves · older entries stay archived
All three new filings are from Samsung and focus on protecting foldable screens. Two cover the outer shell and edges, while one targets the wiring hidden beneath the screen at the fold point.
Samsung filed two patents this week, one to reduce the gap around a folding screen and one for a phone that folds twice. Apple filed one covering a frame that bends along with the screen.
This week's filing focuses on a slide-out screen that expands from the phone body. Samsung is working on a way to stop that screen from bending or bubbling where it folds out.
Samsung's new filings this week focus heavily on the fold itself: reducing the visible crease, protecting the edges, and moving content away from that area. A few filings also look at how the phone handles nearby parts like magnets and charging.
This week's filing tackles a practical problem: the folded screen getting in the way of the camera. Samsung is working on a fix so the phone can still take photos even when it's folded.
Samsung filed three new patents this week, all focused on the physical build of foldable phones. The ideas cover slimmer screen edges, internal wiring for expanding screens, and a camera cover that locks the flash in place.
Both new filings are about the metal parts of a foldable phone doing double duty as the antenna. Samsung is exploring ways to keep the signal working whether the phone is open or closed.
Samsung leads this week with five filings covering hinges, waterproofing, batteries, and screen layouts for folding phones. Apple added one filing focused on a hinge that keeps the screen flat.
This week's filings are heavy on Samsung refining how foldable screens behave at different open angles, covering brightness, app switching, and vibration. A few filings also focus on making the physical hardware, like magnets and the pen layer, hold up better.
Both new filings this week focus on protecting the folding part of the phone: one covers a two-part seal to shield the screen, and the other aims to keep more of the phone's features working across the hinge area. Samsung is putting clear attention into making the fold itself more durable and functional.
Samsung filed four of the five new patents this week, all focused on stopping foldable screens from cracking and rearranging content when the phone opens or folds. The main push is around making the folding part of the screen hold up better and handling layouts across two or three panels.
Samsung filed seven patents this week, most focused on making foldable screens hold up better over time, covering the glue, foam, and glass that protect the folding part. A few others tackle the hinge itself and how the phone handles accidental touches when opened.
counts from tracked filings · focus read from each company’s own filings
| Company | Filings | Last 8 wks | Focus | Latest move |
|---|---|---|---|---|
| Samsung | 90 | 24 | Screen, hinge, and internals | Samsung Patents a Glass-and-Plastic Cover for Foldable Phone Screens |
| Apple | 10 | 2 | Display layers and hinges | A New Apple Patent Gives Folding Screens a Frame That Bends With Them |
| Microsoft | 3 | 0 | Hinge angle control | Microsoft Patents a Two-Position Hinge That Locks at Specific Angles |
| 2 | 0 | Hinge and antenna placement | Google Patent Reveals Hidden Hinge That Snaps Foldable Devices Shut Automatically | |
| Qualcomm | 1 | 0 | Fold-aware button layout | Qualcomm Patents a Screen That Moves Buttons Out of the Way When You Fold It |
20 or more filings in the last 8 weeks · 6 to 19 · under 6
the fights inside the fight · each with its three newest filings · new filings join every week
Samsung 9, Microsoft 3, Apple 2
Several companies are filing patents on how a foldable phone's folding joint works, locks, and moves. The filings explore different ways to make the hinge hold its position, stay aligned, and open or close smoothly.
Samsung 25, Apple 3
A large share of filings focus on stopping the fold point from cracking, creasing, or wearing out over time. They cover layered materials, protective borders, and flexible glass covers that can bend without breaking.
Samsung 6, Google 1
Fitting antennas into a phone that folds in half is a real engineering problem. The approaches include treating both halves as one antenna, hiding the antenna in the frame, and routing it through the display itself.
Samsung 14, Qualcomm 1
These filings deal with how a foldable phone senses how far it has been opened and then decides what to show on screen. They cover everything from waking the screen at a certain angle to managing what appears on each panel.
Samsung 9
Making the electronics inside a folding phone survive thousands of bends is its own challenge. These filings cover how the wiring, circuit boards, and electrical paths the user never sees can flex without breaking.
Connect a keyboard and the panels arrange themselves one way; use it alone and they rearrange.
Opening the hinge wider works as a command, pulling up a notification and acting on it.
Each phone's hinge angle decides what it shows as the pair works together.
A finger swipe along the fold between panels captures a screenshot.
every tracked filing, month by month · counts are USPTO pre-grant publications, one per publication number (an application, not a granted patent)
US 2026/0349475 A1
Cover-display durability gets a hybrid material approach: glass layer for feel and scratch resistance, plastic substrate for flex, hard coating on top to guard against impact and pen damage.
US 2026/0352751 A1
Sealing the gaps at multiple fold points keeps debris out of the mechanism, a constraint that grows sharper as the number of creases increases from one to two or three.
US 2026/0349569 A1
Crease touch-sensor wear: Samsung routes less wiring through the bend zone to reduce fatigue cracks in the layers that degrade responsiveness over time.
US 2026/0343760 A1
A hardened resin barrier positioned millimeters from the screen edge protects against impact damage where the folding layers meet the frame, a vulnerability that exists because the layers need clearance to shift during bending.
US 2026/0339398 A1
A multi-material frame that flexes at the fold line while staying rigid at the corners addresses the structural strain on bezels during repeated opens and closes.
US 2026/0342901 A1
Stacking three panels with hinges at both ends preserves the cover screen and rear camera on the outer surfaces even when fully closed, solving the access problem that forces users to unfold single-hinge designs to check notifications or take photos.
US 2026/0333595 A1
Samsung's approach to rollable screens centers on the hinge geometry itself, angled track walls that reduce outward pressure as the display bends, stopping the bulge before it starts.
US 2026/0319553 A1
A slimmer foldable body means the cover screen can sit directly atop the battery without a gap, freeing up millimeters for other components. The move tests whether screens can survive the heat and vibration that close proximity to a battery creates.
US 2026/0319551 A1
A triple-fold phone needs split-screen apps positioned so neither window lands on a crease. Samsung's solution dynamically resizes and repositions windows to keep the fold lines clear of active content.
US 2026/0319552 A1
Edge damage on foldables exposes both the cover glass and the wrapped display at stress points. Samsung's resin bead coating protects these vulnerable perimeters from impact during daily use.
US 2026/0319331 A1
One magnet handling both autofocus and image stabilization lets designers pack cameras closer together without magnetic crosstalk degrading adjacent lenses.
US 2026/0322912 A1
Foldable phones could become the control hub for wearables, using their outer display to show charging status and pairing data for devices without their own screens.
US 2026/0323852 A1
Cover-glass geometry: Samsung pre-curves the protective layer above the display to match hinge curvature, reducing crease visibility without waiting for the screen to bend during folding.
US 2026/0323850 A1
Hinge wear under repeated folding demands springs that handle both resistance and release, Samsung layers disk springs for holding力 with coil springs for smooth closure, splitting the mechanical load.
US 2026/0313245 A1
Camera obstruction when folded: Samsung's solution auto-routes the app to an unobstructed lens based on fold angle, preventing the user from seeing a blocked view.
US 2026/0299651 A1
Sliding screens demand wiring that stretches without breaking; Samsung's approach splits circuitry across three separate boards to distribute stress and keep power flowing as the display expands.
US 2026/0299396 A1
Camera-flash misalignment during hinge flexing would wreck photo quality, so Samsung is locking the LED to the camera cover itself rather than relying on separate fasteners to hold them steady through repeated folding cycles.
US 2026/0304659 A1
Edge sealing with resin strips cuts two ways: borderless screens and dust protection at the fold line, reducing both cosmetic flaws and mechanical wear points.
US 2026/0291053 A1
Metal frame antenna interference when folded: Samsung embeds the antenna into one panel's frame so the opposing frame can be positioned to avoid signal disruption during closure.
US 2026/0291048 A1
Antenna signal loss when folded: Samsung proposes dual-housing cooperation, with one frame housing the antenna and the other featuring a slot to prevent the frames from blocking each other's radio paths.
US 2026/0281231 A1
Flexible layout software could eliminate manual resizing when unfolding near different devices, turning the crease into an invisible transition point.
US 2026/0281222 A1
Power delivery during screen transitions: Samsung's solution routes current through multiple batteries in different configurations to spike voltage for the motor without draining the pack during normal use.
US 2026/0277281 A1
Screen sag near the fold: Apple's hinge uses spring-loaded mechanical parts to tension the display flat when unfolded, working against the natural rippling that occurs after repeated bends.
US 2026/0277273 A1
Water intrusion at the dual-screen junction demands new sealing geometry. Samsung's three-layer seal targets the specific weak point where inner and outer displays meet, a vulnerability unique to its cover-display design.
US 2026/0276033 A1
Hinge geometry that creates slack space during the fold could prevent the screen from bunching under compression, shifting the mechanical burden away from the display material itself.
US 2026/0282252 A1
Hidden display edges crack first when phones flex or drop. Samsung's molding design shields that curved corner where the screen tucks into the frame, reducing stress on the most vulnerable point.
US 2026/0268821 A1
Hinge angle sensors could route notifications to specific app states without requiring manual switching, streamlining the multitasking friction that plagues foldable interactions.
US 2026/0267505 A1
Samsung's dual-window cover display sidesteps the camera cutout by treating it as a natural dividing line between two independent content zones, rather than forcing a single image across the obstruction.
US 2026/0267418 A1
Dual vibration motors on each wing let the phone adjust haptic feedback based on fold angle, so notifications feel natural whether the device is fully open, partially folded, or closed.
US 2026/0270335 A1
Adaptive refresh rates during the pull motion prevent visual lag and battery waste as the flexible display stretches to fill new screen area during opening.
US 2026/0271201 A1
A reinforced digitizer layer sandwiched with protective materials resists cracking under repeated stylus pressure at the fold, where existing sensor arrays have proven vulnerable to mechanical stress.
US 2026/0270332 A1
Four magnets positioned across the three panels work to keep multi-fold sections aligned during closure, addressing the compounding alignment problem that grows with each additional hinge.
US 2026/0268863 A1
Dual-panel brightness monitoring with real-time calibration keeps the crease from creating a visible luminance gap between screen halves.
US 2026/0261611 A1
Among the core durability challenges here, Samsung moves past simple wire routing by compressing signals through the hinge, reducing physical strain on connections that fail with repeated folding.
US 2026/0262181 A1
A two-layer seal at the screen's edge could stop dust and moisture from creeping into the fold during repeated opening and closing, a common failure mode that degrades display quality over time.
US 2026/0252146 A1
Parallel slits etched into the glass layer create flex points that prevent crack propagation at the hinge during repeated folding cycles, shifting the durability challenge from material brittleness to controlled stress distribution.
US 2026/0253522 A1
Unfolding mid-use won't force you to hunt for buttons buried under content. The system detects fold state changes and reshuffles the layout automatically, keeping controls visible without manual intervention.
US 2026/0255506 A1
A reinforced backing plate means the display itself bears less stress each time the phone folds, directly reducing the fatigue cracks that form along the crease over hundreds of use cycles.
US 2026/0254891 A1
Dual hinges force the camera away from both fold points, keeping it functional across all three screen states instead of getting trapped mid-fold.
US 2026/0252296 A1
Cover-display software tricks: Samsung proposes detecting the unfolding motion itself as a signal to offer related apps rather than auto-expanding the current one, letting users choose a better fit for the larger screen.
US 2026/0247838 A1
Crease visibility from repeated hinge cycles gets a material fix: foam that expands under compression to cushion the display stack where it bends most.
US 2026/0247549 A1
A quality-check hole in the corner magnet lets manufacturers verify the seal seated correctly without disassembly, reducing defects that let dust into the fold gap during the phone's life.
US 2026/0246861 A1
A tri-fold design forces the software to ignore touch inputs on panels still moving during an unfold, preventing accidental commands from competing inputs across multiple hinges.
US 2026/0244248 A1
A flatter fold requires the layers underneath to stay put without blocking flex. Samsung's dual adhesive approach keeps the support structure from shifting during the bend, which could let the screen itself sit more evenly across the crease zone.
US 2026/0244249 A1
Hinge wear demands mechanical solutions that don't rely on motors or electronics to stay reliable. Samsung's gear-and-spring design shifts the burden to purely mechanical resistance, keeping the two halves moving in sync without powered intervention.
US 2026/0244246 A1
A crease-zone shimmer that kills viewing comfort when grids collide gets blocked by breaking the pattern match in the cover glass itself, shifting the optical interference away from visible wavelengths.
US 2026/0246862 A1
Antenna dead zones created by the hinge mechanism get addressed by embedding patch antennas directly into the hinge structure itself, preserving signal strength during fold positions where traditional placement fails.
US 2026/0236065 A1
A four-axis hinge lets each screen section rotate independently, eliminating the gap-or-crease choice that single-pivot designs force. This confirms Samsung is betting mechanical precision, not just flexible materials, solves the creasing problem.
US 2026/0236068 A1
Crease-prone screens need materials that resist both scratching and repeated folding. Apple is experimenting with ceramic coatings to combine hardness with the flexibility required at the bend point.
US 2026/0222477 A1
A tri-fold design means managing three separate hinge points instead of one. Samsung's sliding magnet system lets each panel lock at its intended angle without extra mechanical stops that add bulk or wear.
US 2026/0223300 A1
A rigid edge guard that seats into the internal frame could stop the screen from peeling away where it meets the hinge, a failure point separate from crease damage itself.
US 2026/0222482 A1
Vibration feedback consistency across folded and unfolded states requires motor control that adapts to physical configuration. Samsung's approach detects position and adjusts haptic intensity accordingly.
US 2026/0211458 A1
A flexible perimeter strip could prevent edge cracks when the screen folds, solving a failure point that rigid bezels can't survive and soft materials can't reinforce.
US 2026/0212792 A1
Battery drain in partial-fold modes gets cut by dimming the screen half that faces away from the user, confirming Samsung's push toward software-level efficiency in foldable postures.
US 2026/0215146 A1
Flexible circuit boards need materials that won't fail when bent repeatedly. Samsung's organic semiconductor approach moves the problem from rigid chip architecture to the material itself, letting circuits stretch without breaking connections.
US 2026/0211465 A1
Microsoft's filing uses a locking pin and mismatched resistance so the hinge snaps to exactly two positions.
US 2026/0211457 A1
Crease-prone screens stand to gain mechanical reinforcement by embedding a stiffening layer within the display stack itself, shifting durability work from the hinge mechanism to the panel's internal architecture.
US 2026/0214156 A1
Antenna interference when folded degrades signal; Samsung's approach treats stacked halves as a single antenna system to preserve connectivity during use.
US 2026/0202880 A1
Samsung's filing keeps dust out of the hinge, since grit adds to the wear from hundreds of open and close cycles.
US 2026/0205530 A1
Samsung's filing uses sensors to send content to whichever of the three screens faces you, without you having to choose.
US 2026/0202882 A1
A foldable that stays closed in a pocket without external latches means the hinge itself becomes the guard against creases. Google's internal locking mechanism removes the need for visible catches that add bulk or fail over time.
US 2026/0206156 A1
A mechanical detent that engages when the hinge reaches full extension prevents the play that users feel when a foldable phone is opened all the way.
US 2026/0202874 A1
The crease-prone screen problem gets a software answer here: Samsung proposes sensing fold angle to serve scaled-down displays before full unfolding, potentially reducing stress on the creased area by delaying full-screen activation.
US 2026/0197954 A1
Microsoft's filing senses how far open the hinge is and changes what the software and screens do, with no input from you.
US 2026/0197379 A1
The hinge-wear problem branches beyond screen crease into mechanical symmetry: Microsoft's timing shuttle prevents the uneven rotation that degrades one side faster than the other.
US 2026/0197382 A1
A foldable's inner screen could stop guessing whether to auto-expand an app or hold it on the cover display, letting the device learn which apps you actually want enlarged and which you prefer to keep small.
US 2026/0197389 A1
Flexible circuit board fatigue at the hinge gets a redesign here, Samsung routes the wiring inside the display backing rather than across the mechanical joint, reducing the flex cycles that degrade connections over repeated folds.
US 2026/0192558 A1
Cover-display glass lamination requires precise resin application without air gaps or delamination. Samsung's continuous-feed machine automates this wrapping process, suggesting the company is moving toward factory-scale production rather than hand assembly.
US 2026/0197381 A1
The camera-magnet interference problem gets a practical fix: Samsung pairs the magnetic sensor with an angle detector so nearby metal can't fool the phone into false state changes.
US 2026/0190748 A1
Foldables need the ribbon cables connecting flexible screens to survive repeated bending without cracking. Samsung's buffer layer cushions the exact joint where those cables attach to the display, treating a known failure point in the flex cycle.
US 2026/0188903 A1
The antenna routing problem shifts from finding space to making one antenna work in two shapes. Google embeds the NFC coil in the frame itself, sidestepping the need for a dedicated interior layer that would break or lose signal during the fold.
US 2026/0188892 A1
Folding phones could shed the dedicated antenna strip by repurposing conductive layers already in the display. This frees up internal real estate the hinge and battery currently fight over.
US 2026/0188890 A1
A tri-fold design splits the antenna into fragments across multiple hinges. Samsung's solution runs a continuous metal strip through the middle section to maintain signal strength across the folds.
US 2026/0186627 A1
A smoother cover-screen experience could reduce friction between users and foldables' cramped outer displays, moving away from clunky navigation arrows toward gesture-based widget browsing that mirrors familiar phone habits.
US 2026/0189643 A1
A sliding screen needs tolerances tight enough to prevent wobbling but loose enough to move smoothly, Samsung's rail design solves that friction point for expanding-screen phones.
US 2026/0190312 A1
A conductive barrier along the fold's inner edge would protect the display from accidental static discharge during everyday use, a failure mode that flat screens never face.
US 2026/0181067 A1
Where the watchlist has focused on screen durability and stress distribution, Samsung's filing zeros in on the mechanical precision of the hinge itself, using interlocking components to prevent misalignment during the fold and unfold cycle.
US 2026/0178076 A1
Dual hinges on three progressively narrower panels could let Samsung fit a larger display into a more compact folded pocket size than single-hinge designs allow.
US 2026/0179509 A1
A smoother screen surface means better durability where the fold happens. Samsung's approach uses layered material of varying thickness to distribute stress more evenly across the bend zone.
US 2026/0178084 A1
Splitting the inner glass layer and filling the gap with a compliant material lets the cover fold at the crease without forcing the rigid outer pane to bend, shifting the stress problem from the glass itself to a softer interlayer.
US 2026/0173289 A1
Screen durability under repeated folding hinges on the cushion layer's ability to absorb stress without degrading. Samsung's patent embeds a reinforcing material in that middle layer to distribute flex more evenly and slow creasing.
US 2026/0169200 A1
A dual-coating strategy lets Samsung use different material properties at each fold zone versus the flat sections, reducing the competing demands that weaken single-layer defenses on tri-fold screens.
US 2026/0172493 A1
Within the dual-fold design, Samsung solves a materials problem by engineering glass that stays rigid across the flat panels but flexes only at the hinge zones, avoiding the stress concentration that plagues single-fold screens.
US 2026/0161196 A1
A cushioned layer behind the screen could distribute folding stress across a wider zone instead of concentrating it at a single crease line, potentially slowing the degradation that users see with repeated opens and closes.
US 2026/0156208 A1
Speeding up the display's refresh rate during the unroll motion keeps pixels synced to physical movement, avoiding the blur or lag that occurs when screen extension outpaces image updates.
US 2026/0156768 A1
A real glass screen on the fold itself, rather than plastic, would mean a harder, scratch-resistant surface where phones bend most.
US 2026/0155071 A1
The patent extends the multi-device coordination problem: instead of one foldable managing its own hinge geometry, two phones now need to sync content based on their relative fold positions, turning physical state into a shared control signal.
US 2026/0153965 A1
Stylus tracking breaks down at the fold crease where display layers can't stretch. Samsung's dual-layer sensor approach routes tracking wires both through the screen and beneath it to maintain pen position across the hinge zone.
US 2026/0151984 A1
A dual-fold screen needs different glass thicknesses at each crease to match the actual stress each bend creates, rather than using uniform protection across both fold points.
US 2026/0150207 A1
After years of hinge prototypes, Apple's focus shifts from structural durability to feel, designing friction that keeps the fold smooth at any angle while preventing drift when fully open or closed.
US 2026/0150211 A1
Pixel dimming at viewing angles on curved edges gets solved here with per-pixel mirrors that bounce light back toward the viewer, letting all four sides of the screen stay bright even when viewed from the side.
US 2026/0140618 A1
A tri-fold screen means two crease lines instead of one, doubling the problem of where to hide the seam. Samsung's solution repurposes those seams as touch-sensitive zones, converting dead space into functional UI real estate.
US 2026/0143050 A1
Interlocking spiral gears distribute stress across multiple contact points rather than concentrating wear on a single hinge line, potentially extending the fold mechanism's lifespan beyond current designs.
US 2026/0135939 A1
A foldable's cover screen gains actual utility when multiple live apps share cramped space. Samsung's solution lets widgets shrink on demand while staying current, turning the outer display from a notification strip into a functional control panel.
US 2026/0136483 A1
Samsung's filing arranges the electronics so they can bend again and again without breaking the connections between the two halves.
US 2026/0133670 A1
A foldable's screen real estate stays fragmented when folded, so Samsung's approach uses that constraint as an advantage: display charging status where the port actually sits rather than forcing users to navigate menus on whichever panel happens to be active.
US 2026/0133674 A1
Lock screen navigation gets a directional split: horizontal swipes manage wallpapers while vertical swipes control widget visibility, letting users access different functions without cluttering the fold's limited screen real estate.
US 2026/0132813 A1
Hinge durability under repeated folding hinges on keeping the rotating parts aligned without added bulk. Samsung's hollow-shaft design uses link members to stabilize the inner shaft, trading mechanical complexity for thinner overall profile.
US 2026/0135938 A1
Where hinges and screens dominate the race, Samsung zooms in on the circuit board that flexes thousands of times inside the fold. Better materials and layering here mean signals stay strong across the crease.
US 2026/0135933 A1
Keeping a sliding screen from warping or drifting requires precision mechanics below the surface. Samsung's guide system shows how the company plans to manage that constant expansion and retraction without display failure.
US 2026/0133606 A1
A two-layer film window lets Samsung tune stiffness independently for each layer, solving the material-balance problem that single-film covers can't fix during repeated folds.
US 2026/0135935 A1
Magnetic shielding between the fold mechanism and camera optics prevents the closure magnets from scrambling autofocus and image stabilization, solving a crosstalk problem unique to the folded form factor.
US 2026/0133663 A1
While earlier foldable patents focus on the main crease, this filing moves the interface problem to the device perimeter, turning wraparound edges into functional screen real estate instead of dead space.
US 2026/0122799 A1
Display creasing under repeated bending has plagued every foldable so far, and Apple proposes counteracting the stress mechanically, adjusting screen tension based on open or closed position rather than accepting the damage as inevitable.
US 2026/0120650 A1
A hybrid transistor gate driver lets Apple speed up pixel-refresh cycles without the power drain that plagues single-material designs, critical for foldable screens that demand both responsiveness and battery life under stress.
US 2026/0120616 A1
A foldable screen's creases and stress points make pixel crosstalk worse, so Apple's compensation method in the display driver itself could help keep image quality consistent across the fold without requiring thicker or more expensive hardware.
No. Patents like Apple's screen stress management system or Samsung's hollow-shaft hinge show the technical directions each company is exploring, not confirmed product features. Some ideas in this batch may never ship, while others could show up years later in a different form.
The biggest cluster deals with the physical stress a fold puts on the phone, covering hinges, flexible circuit boards, and the display's crease point. Apple's screen stress management system and Samsung's stress-resistant flexible circuit board both address that same underlying concern.
Apple's filings lean toward display technology itself, such as gate drivers, pixel crosstalk fixes, and a flexible display that wraps around the phone's edges. Samsung's patents lean more toward mechanical and software solutions, including hinge assemblies, camera shielding, and cover-display software.
No, it spans several sub-problems, including screen stress, pixel crosstalk, camera magnet interference, circuit board flexing, and cover-display software. Hinges are one visible piece, but the watchlist tracks the whole set of engineering and software patches around foldable design.
Want this weekly breakdown for a company we don't cover? Patentlyze Pro →