This watchlist tracks Samsung's filings on foldable phone hinges, flexible circuit boards, display covers, camera shielding, and screen software for folded and rolling devices. Together they point to a company treating durability and everyday usability as separate engineering problems that need separate fixes.
96 filings · tracking since May 2026 · latest Nov 2026 · updates weekly
based on all tracked filings in this watchlist · refreshes every week
Samsung's 82 filings all circle the same core challenge: making a phone that folds, slides, or expands work as well as a phone that stays flat.
The filings cluster most heavily around keeping screens and moving parts reliable as the phone bends, and making sure antennas, speakers, and cameras still work in any position.
a dated entry each week this watchlist moves · older entries stay archived
This week's filings focus on protecting foldable screens, covering the edges, the screen surface, and the wiring at the fold point. Samsung is applying to patent several ways to make folding phones hold up better physically.
Both new filings focus on the physical shape of foldable phones. One covers a phone that folds in two places, the other looks at reducing the gap where the screen bends.
This week's filing focuses on stopping a sliding screen from puffing out or warping at the point where it bends. Samsung is working on ways to keep that screen flat and smooth when it moves.
This week's filings focus heavily on the fold itself. Samsung is exploring ways to hide the crease, protect the screen edges, and keep apps and components clear of the folding area.
This week's filings show Samsung working on two foldable phone problems: a hinge that adjusts to what you're doing, and a fix for when the folded body blocks the camera.
This week's filings focus on the physical side of folding phones. Samsung is working on how speakers, screens, wiring, and camera parts hold up and work correctly as the phone bends and moves.
Both new filings focus on the antenna, covering how it stays working when the phone is folded shut and how the metal frame itself could act as the antenna.
This week's filings focus on keeping foldable phones protected and functional. Samsung filed patents covering waterproofing, a hinge that holds the screen safely, smarter batteries, and motors that do double duty.
Most new filings this week focus on how the phone behaves differently depending on how far open it is, adjusting apps, vibration, and screen speed. One filing also explores showing two separate windows on the small outer screen.
Both new filings focus on protecting the folding part of the phone. One covers a two-part seal to guard the screen, and the other looks at keeping more of the phone's features working across the fold.
Most of this week's filings focus on stopping foldable screens from cracking, with two separate ideas for toughening the fold point and a third for supporting flexible screens. The other two cover a phone that folds twice with a camera system to match, and a three-panel phone that moves apps around when you open it up.
Most of this week's filings focus on the physical parts that hold a foldable phone together, like the hinge, the screen layers, and the glue. A few others tackle side effects of folding, such as unwanted screen touches, rainbow patterns on the glass, and where to fit the antenna when space is tight.
Samsung’s tracked filings by month · newest first
15 or more filings that month · 5 to 14 · under 5
the problems Samsung keeps filing on · each with its three newest filings · new filings join every week
Every foldable phone has a weak point where it bends, and that joint has to hold the screen flat, block dust, and survive thousands of opens and closes. These filings cover hinge locks, dust barriers, crease-reduction layers, and systems that sense how far the phone has been opened.
Flexible screens crack, crease, and wear out faster than rigid ones, so the materials and layers inside them matter enormously. These filings look at bendable glass, flexible circuit boards, crack-resistant coatings, and layered window stacks built to handle repeated folding.
Some phones fold at two points or slide open to reveal extra screen, which creates new problems around how the display moves and how apps use the extra space. These filings cover tri-fold layouts, sliding rail systems, and software that decides what to show on each panel.
The small screen on the outside of a folded phone has limited space, so how it responds to touch and what it shows matters. These filings cover lock screen layouts that work in two directions, widget systems that shrink to fit, physics-style animations, and a display that shows port icons next to the actual ports.
A foldable phone needs to know how it is being held before it can respond correctly. These filings cover reading the fold angle before waking the screen, two-step checks to avoid misreading position, and dimming one display half to save power.
Fitting all the parts of a phone into a body that folds in half means rethinking where circuits, boards, and wires go. These filings cover routing electrical wiring through the display backing, recessed circuit board layouts for thinner bodies, and stretchy materials that keep circuits working when bent.
The phone checks what gadget is connected, like a Bluetooth keyboard, and rearranges its panels to match.
How wide you open the hinge works as a shortcut that pulls up a notification and acts on it.
How far each phone is folded open decides what the pair shows on each screen.
Swiping along the crease between panels takes a screenshot, turning the fold line into a shortcut.
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
Previous attempts at flexible covers faced a choice between glass durability and plastic bendability. This patent layers both materials with a protective coating, trying to get scratch resistance and impact protection without sacrificing flexibility.
US 2026/0352751 A1
Rubber edge strips with embedded stiffening ribs seal the gaps where multi-fold hinges interrupt the frame perimeter, keeping dust out of the screen seams where a traditional continuous trim cannot fit.
US 2026/0349569 A1
Earlier filings showed Samsung wrestling with durability at the fold line; this one zeros in on the touch-sensor grid itself, proposing to route less wiring through the crease zone to reduce fatigue cracking that degrades responsiveness over time.
US 2026/0343760 A1
Screen edge protection during folding. Samsung proposes a hardened resin strip positioned 0.05-0.15mm from the display edge to shield against impact when the layers shift during the bend cycle.
US 2026/0342901 A1
Keeping the cover screen accessible on a tripled-panel phone requires rethinking hinge placement and panel stacking. Samsung's design routes the middle panel's front surface as the usable display, letting users respond to calls without unfolding.
US 2026/0333595 A1
Display buckling at the bend requires the support structure itself to manage outward pressure. Samsung's approach angles the track walls to redirect that force rather than fighting it head-on.
US 2026/0319553 A1
A cover screen's circuit ribbon sits directly atop the battery pack instead of occupying its own internal layer, freeing space for the main logic board and other components that typically compete for room in the cramped hinge area.
US 2026/0319551 A1
Dynamic window resizing on a triptych display keeps app content clear of both crease lines by adjusting pane widths when users open a second app, rather than forcing equal splits across all three panels.
US 2026/0319552 A1
Samsung's earlier patents locked down the hinge and flexible circuits; this one seals the perimeter where folded screens are most vulnerable to impact damage during daily carry.
US 2026/0322912 A1
A charging coil embedded in the phone's back panel lets the outer display function as a smart ring's control interface, solving the visibility problem that makes ring charging unpredictable today.
US 2026/0323852 A1
Within the hinge zone, pre-shaping the cover glass eliminates the sharp angle that creates visible creasing when the display flexes during folding and unfolding.
US 2026/0323850 A1
Samsung's earlier hinge patents relied on single spring systems to manage competing demands. This filing splits that load between disk springs for resistance and coil springs for the tactile snap, letting larger folds stay stable without fighting closure.
US 2026/0313245 A1
Samsung's camera-blocking problem has a software solution: the phone detects its fold angle and automatically routes camera requests to an unobstructed lens before the app realizes its preferred sensor is facing the wrong direction.
US 2026/0310344 A1
Samsung's software layer now proposes organizing apps by detected task patterns rather than user preference alone, automating what users currently do manually when they group related tools.
US 2026/0304041 A1
The hinge angle sensors that map device position now extend to audio tuning, adjusting speaker output in real time as the phone moves between flat, tent, and closed states rather than leaving sound quality to chance.
US 2026/0299651 A1
After hinges and display covers, the real constraint emerges: power distribution across expanding screen real estate requires splitting circuits across multiple boards instead of one consolidated layout.
US 2026/0299396 A1
Opposing protrusions on the camera cover cradle the LED flash without fasteners, preventing misalignment between lens and light source through repeated folding cycles.
US 2026/0304659 A1
After hinge and bezel work, Samsung is now shrinking the border by letting the display's protective layer extend onto the housing itself, while using edge sealing to block dust entry where the screen meets the frame.
US 2026/0291053 A1
Samsung has been engineering around the antenna problem created when two metal frames collide during a fold. This filing moves beyond shielding strategies by making the frame itself radiate, then controlling interference from the opposing panel's structure.
US 2026/0291048 A1
Samsung's previous foldable patents focused on hinge mechanics and display durability. This filing shifts to antenna performance when folded, proposing a slotted frame design that lets both metal housings work together instead of blocking each other's signals.
US 2026/0281231 A1
A tri-fold's screen panels automatically reconfigure based on detected nearby devices like keyboards or displays, eliminating manual layout adjustments after unfolding.
US 2026/0281222 A1
Folding phones need a burst of power every time the screen moves, and Samsung is patenting a clever way to rewire the batteries on the fly to deliver it without killing battery life the rest of the time.
US 2026/0281218 A1
A single motor driving both screen extension and haptic feedback eliminates redundant components in sliding phones, freeing up space and power budget in devices where physical expansion already demands careful engineering.
US 2026/0277273 A1
The dual-screen design creates a vulnerable seam where the outer and inner displays meet. This patent proposes a three-layer seal specifically for that junction, moving beyond the hinge-focused waterproofing Samsung has pursued before.
US 2026/0276033 A1
Samsung has been working to protect the display itself during the fold. This patent shifts focus to the hinge mechanism's role in physically accommodating the screen's curve, preventing creasing by creating space rather than forcing compression.
US 2026/0268821 A1
Screen software that reads fold angle to auto-route notifications and actions eliminates the interrupt-and-switch workflow on partially opened devices.
US 2026/0267505 A1
Splitting a foldable's outer screen into two independent zones lets users run separate apps without unfolding, solving the cramped real estate problem that currently limits what the cover display can do.
US 2026/0267418 A1
Vibration feedback during partial-fold states requires independent motor control per panel. This filing shows Samsung assigning separate haptic drivers to each wing, letting the device modulate intensity based on real-time hinge position data.
US 2026/0270335 A1
Syncing display refresh rates to physical pull speed prevents visual lag during expansion while cutting needless power draw on a screen mid-motion.
US 2026/0271201 A1
Digitizer durability in repeated fold cycles requires reinforced sensor layers to survive thousands of flex events without electrical failure or responsiveness loss.
US 2026/0270332 A1
Keeping three panels evenly aligned during closure requires magnets positioned across all housing sections, not just at the edges, a constraint that grows more complex as fold count increases.
US 2026/0261611 A1
Foldable phones could maintain more active circuits across the fold without adding bulk or stress points. Samsung's compression approach reduces the number of physical connections that must survive repeated hinge flexing.
US 2026/0262181 A1
Dual polymer layers at the display edge create a graduated seal that absorbs repeated folding stress while blocking dust and moisture ingress where the screen meets the frame.
US 2026/0252146 A1
Glass brittleness at the hinge crease demands a material that yields without fracturing. Samsung's pattern of parallel slits lets the glass bend incrementally rather than snap under repeated folding stress.
US 2026/0252144 A1
Watching video on an expanded screen means speakers fixed to the device frame end up off-axis from the display. Samsung's system detects screen size and adjusts audio balance to compensate for the new speaker-to-viewer geometry.
US 2026/0255506 A1
The crease has been the failure point all along. This backing plate in fiber-reinforced composite distributes stress away from the fold itself, moving toward solving durability at the physical weak spot.
US 2026/0254891 A1
Splitting camera duties across three panels keeps the front-facing camera on the outer section, ensuring it stays accessible regardless of fold position on a dual-hinge device.
US 2026/0252296 A1
Software behavior during unfolding: the patent proposes prompting users to switch apps at each fold stage rather than auto-scaling the current one to the larger screen.
US 2026/0247838 A1
Samsung has shifted from mechanical hinge design toward material composition, embedding a counterintuitive foam layer that expands under compression to distribute stress across the crease zone rather than concentrating it at a single point.
US 2026/0247549 A1
A corner magnet with a hole through it lets manufacturers confirm the seal seated properly during assembly without disassembling the phone, replacing destructive quality checks.
US 2026/0246861 A1
A three-panel layout forces the software to decide which touches count when hinges are moving. Samsung's solution freezes input on panels that are mid-fold, letting only fully open or fully closed sections register taps.
US 2026/0244248 A1
A dual-adhesive layer under the display lets Samsung keep structural support right up to the fold without creating hard edges where the screen bends. This directly addresses the soft-crease problem that plagues current foldables.
US 2026/0246864 A1
Samsung's sliding mechanism patents now include audio routing: embedding speakers in the rail itself rather than claiming separate internal volume solves the space crunch that plagues expanding phones.
US 2026/0244249 A1
Samsung's hinge work has centered on mechanical simplicity. This filing shows the company pursuing passive resistance through gear geometry and spring tension, eliminating the need for active control systems entirely.
US 2026/0244246 A1
A patterned cover glass layer offsets its grid alignment to break up moiré interference where the display bends, directly suppressing the rainbow shimmer that forms at the crease during unfolding.
US 2026/0246862 A1
Samsung's antenna dead zone in the hinge now has a proposed fix: patch antennas embedded in the hinge itself would keep the signal alive when the phone is folded or propped halfway open.
US 2026/0236065 A1
Keeping paired display panels aligned during folding requires distributing rotation across multiple axes rather than a single pivot point, which this filing confirms as Samsung's approach to eliminating creases.
US 2026/0238710 A1
Sliding screens require bezels and frame geometry that don't crack or bind as the display extends. This filing maps how the trim pieces stay sealed during the motion.
US 2026/0238047 A1
A foldable's charging coil sits in just one half, making placement critical. Samsung's solution uses real-time power feedback to guide users into the right position on the pad, solving what could become a major friction point in daily use.
US 2026/0222481 A1
Audio quality when folded has been a gap in Samsung's hinge designs. This filing proposes a dual-speaker system that routes sound outward regardless of phone position.
US 2026/0222477 A1
A sliding magnet that repositions itself based on the fold angle solves the multi-panel alignment problem, keeping all three sections locked in place without extra mechanical parts cluttering the design.
US 2026/0223300 A1
A rigid edge guard that seats onto the internal support plate isolates the display perimeter from frame contact during folds, directly addressing the stress concentration that causes lifting and cracking at the screen's most vulnerable junction.
US 2026/0222482 A1
Samsung's hinge designs and flexible components now extend to haptic feedback. The patent describes motors that adjust vibration intensity based on fold state, ensuring consistent notification feel across open and closed configurations.
US 2026/0212792 A1
Samsung's power-efficiency work on foldables now extends to display brightness management: the device can detect partial-fold positions and dim whichever screen panel faces away from the user, cutting wasted backlight on unused portions.
US 2026/0215146 A1
The hinge and flexible circuit board patents establish how foldable phones bend; this filing extends the concept to the semiconductor layer itself, replacing rigid chips with stretchable polymers that maintain electrical function through repeated flexing.
US 2026/0211457 A1
The reinforcement layer positioned within the display stack itself shifts strategy from protecting the screen from outside impact to engineering strength into the folding mechanism's core structure.
US 2026/0214156 A1
Signal loss when folded has been a persistent challenge in Samsung's hinge work. This filing proposes using the stacked antenna pair as a single coordinated system rather than fighting interference between them.
US 2026/0202880 A1
A sealed hinge means the fold itself stops being a dust trap, which extends the device's working life between repairs and keeps the mechanism responsive through years of opening and closing.
US 2026/0205530 A1
A three-panel phone needs to know which panels face outward at any moment. Samsung's solution embeds sensors to detect panel orientation, then routes apps to whichever screens are actually visible instead of scattering them across all three.
US 2026/0206156 A1
Keeping fully unfolded phones rigid requires mechanical engagement beyond hinge friction alone. Samsung's locking mechanism uses notched arms that catch and hold when the device reaches flat, eliminating wobble at full extension.
US 2026/0202874 A1
A folded phone could wake and adjust its interface based on opening angle, eliminating the need for a separate unlock gesture when users partially unfold the device.
US 2026/0197382 A1
A hinge-angle sensor tells the device whether to auto-shift an app to the inner screen or keep it on the cover display when unfolding, replacing today's inconsistent behavior with user-configurable rules per application.
US 2026/0197389 A1
Samsung's hinge-crossing wiring has required exposed cables that flex with each fold. This filing embeds those connections into the display backing itself, removing a repeated stress point from the mechanical cycle.
US 2026/0192558 A1
Samsung's filing automates how it makes the bendable glass sheets used in foldable hinges, removing a manual wrapping step that causes defects.
US 2026/0197381 A1
Magnetic position sensors alone can misfire near metal objects or magnetic cases. Samsung's dual-check approach pairs magnet detection with an angle sensor, requiring both to confirm the phone's folded state and prevent false state changes.
US 2026/0196854 A1
Foldable phones split their power systems across two battery packs. This filing describes how Samsung routes incoming charge to each pack independently, solving the coordination problem that arises when both need power simultaneously.
US 2026/0190748 A1
A buffer layer at the cable-screen junction absorbs stress from repeated folding, targeting the connection point where flexing historically causes signal failures in foldable displays.
US 2026/0188892 A1
A conductive layer within the flexible display itself becomes the antenna, eliminating the need for a separate metal strip and freeing up space in the already constrained hinge area.
US 2026/0188890 A1
A segmented metal strip running through the middle hinge section maintains antenna continuity across fold points, avoiding the dead zones that interrupt signal in multi-hinge designs.
US 2026/0186627 A1
A momentum-based swiping system lets users flip through multiple widgets on the cover screen with a single flick, scaling the page count to swipe velocity rather than requiring discrete taps.
US 2026/0189643 A1
A shaped guide head that locks into the frame rail prevents the sliding display from rattling sideways or binding up, solving the tolerance problem that plagues moving screens at phone scale.
US 2026/0190312 A1
A conductive edge guard routes static charges safely away from the display's curved transition point, preventing the voltage spikes that can damage pixels where the screen bends around the frame.
US 2026/0181067 A1
A rail-and-groove locking system keeps the phone's halves aligned during repeated folding, preventing the uneven stress on the flexible screen that causes creases and cracks over time.
US 2026/0178076 A1
A wider unfolded screen means more display real estate without making the device longer. This design spreads the bending stress across two hinges instead of concentrating it at one point, potentially improving durability.
US 2026/0179509 A1
Making the screen surface feel consistent across the fold requires varying the material thickness under the glass, thinner at the bend point, thicker elsewhere, to compensate for how the cover layer stretches unevenly.
US 2026/0178084 A1
Samsung's filing makes the glass covering a foldable screen flex without cracking during the fold.
US 2026/0173289 A1
A reinforced cushion layer could reduce stress concentration at the fold line, extending the screen's working life through repeated opens and closes.
US 2026/0169200 A1
The dual-fold design introduces a new durability challenge: protecting two separate crease zones without the trade-off between stiffness and scratch resistance that a uniform coating forces.
US 2026/0172493 A1
A patterned cut in the glass panel creates flex zones at the hinges while keeping the display rigid elsewhere, letting a single screen work across multiple folds without cracking.
US 2026/0161196 A1
Keeping the display from fatiguing under repeated folding requires distributing pressure evenly across the bend zone. Samsung's layered cushion system absorbs and redistributes stress so the crease doesn't deepen with regular use.
US 2026/0156208 A1
The rollable display filing shows Samsung's approach to a mechanical problem absent from hinged foldables: keeping pixels sharp during the physical extension itself, not just before or after.
US 2026/0156768 A1
Keeping glass on the fold surface without cracking requires removing stress points where the bend happens. Samsung's grooved edges redirect pressure away from weak zones, potentially letting glass replace plastic on folding screens.
US 2026/0155071 A1
A proximity sensor in the hinge detects each phone's fold angle and broadcasts it wirelessly, letting the paired devices automatically split content based on which is open flat versus partially creased.
US 2026/0153965 A1
A foldable phone's hinge creates a dead zone where stylus tracking typically fails. This patent's dual-layer sensor design extends detection across the flexible crease, letting users write continuously from top screen through the bend to bottom screen.
US 2026/0151984 A1
The dual-fold design pushes beyond single-crease phones by varying glass thickness where each fold occurs, matching the different stress loads at a tight clamshell bend versus a gentler arc.
US 2026/0140618 A1
A tri-fold layout would create two creases instead of one, making them harder to ignore visually. Turning those lines into touch-sensitive input zones could let users interact with the device without looking at a screen.
US 2026/0143050 A1
Interlocking spiral rotors that mesh and slide together offer a way to synchronize the two halves' motion during folding, potentially reducing the grinding and wear that degrades hinges over repeated use.
US 2026/0135939 A1
A smaller cover display needs every pixel to work harder. This patent lets widgets compress without dropping their live updates, solving how to fit multiple active tools on a phone's front screen without forcing users to choose between them.
US 2026/0136483 A1
The circuit routing challenge gets a concrete answer: Samsung recesses the PCB connectors into the phone body itself, letting the flexible cables run shorter paths without forcing the hinge zone thicker.
US 2026/0133670 A1
A foldable's split screen creates dead zones where users can't see status info. This patent routes charging alerts and port data to whichever display section actually faces the user, eliminating the need to unfold the phone just to check what's plugged in.
US 2026/0133674 A1
Lock screen navigation on folded vs. Unfolded states needs different gestures. This filing explores using swipe direction to switch between wallpaper browsing and widget management without mode-switching.
US 2026/0132813 A1
Keeping the hinge assembly compact while rotating smoothly requires routing moving parts through a fixed hollow shaft rather than alongside it.
US 2026/0135938 A1
Samsung's filing strengthens the circuit board wiring that has to bend millions of times, using layers meant to stop the tiny cracks that weaken signals over time.
US 2026/0135933 A1
Keeping a sliding screen mechanically stable as it extends requires hidden guide rails beneath the display. Samsung's filing shows how precise alignment hardware can prevent the flexible panel from warping or drifting during repeated deployment.
US 2026/0133606 A1
A two-layer film window distributes stress across the fold zone instead of concentrating it in a single material, reducing creasing and crack propagation over repeated cycles.
US 2026/0135935 A1
Magnetic shielding around the camera module prevents the closure magnets from disrupting autofocus and image stabilization, directly solving interference that degrades photo quality in folded devices.
The filings mostly target hinge durability, screen and circuit board stress from repeated folding or sliding, and small usability gaps like showing port locations on a folded screen or protecting cameras from hinge magnets. They show engineering attention split between making the mechanism last and making the folded phone easier to use day to day.
Not necessarily. Patent filings describe engineering ideas a company is protecting, not confirmed products. Samsung has filed on rollable display speed control and a tri-fold screenshot gesture, which shows active research into those formats, but a filing is not a launch announcement or a release date.
The hinge takes the most repeated mechanical stress in a foldable phone, so it shows up across several filings, including a hollow-shaft design, a spiral-driven mechanism, and a linear guide system for sliding displays. Each approaches the same goal from a different angle: keeping the fold smooth and the screen supported over repeated use.
This watchlist updates automatically as new Samsung foldable-related filings are published, so the set of patents shown here grows over time. We do not fix a count or a schedule since patent offices publish filings on their own timeline, not ours.
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