Linaro-mm-sig

linaro-mm-sig@lists.linaro.org

39 participants
7101 discussions

Why I Keep Coming Back to Agario Even After Getting Eaten a Hundred Times

by xenacious.hoverfly.pnxc＠hidingmail.net

I’ve played a lot of casual browser games over the years. Some lasted a few days before I forgot about them, while others became little habits that I’d revisit whenever I had a few spare minutes. One game that somehow keeps finding its way back into my bookmarks is agario. Play now: https://agario-free.com At first glance, it looks ridiculously simple. You control a tiny circle, move around a giant map, eat pellets, grow bigger, and avoid getting eaten by larger players. That's basically it. But if you've ever spent more than ten minutes playing, you know there's something strangely addictive hiding beneath that simple concept. I've had moments where I felt unstoppable, moments where I laughed out loud at my own mistakes, and moments where I seriously questioned why I kept clicking "Play Again" after losing everything in three seconds. And somehow, that's exactly why I love it. The First Time I Played Agario The first time I opened agario, I honestly didn't expect much. The graphics were basic. There was no tutorial. No complicated progression system. No cinematic introduction. I spawned as a tiny cell and started wandering around collecting colorful dots. For about thirty seconds, everything felt peaceful. Then a giant player appeared from nowhere and swallowed me instantly. Game over. I remember staring at my screen thinking, "Wait... that's it?" A few seconds later, I clicked Play Again. Then again. Then again. Before I knew it, an hour had disappeared. That's when I realized the magic of the game isn't in complexity. It's in the constant cycle of risk, growth, and loss. Every match feels like a fresh start. Why Growing Bigger Feels So Satisfying There's something deeply satisfying about watching your tiny cell slowly become a giant blob. At the beginning of each game, you're vulnerable. Everybody looks dangerous. You spend your time avoiding threats and carefully collecting mass wherever you can find it. Then something changes. You start getting bigger. Suddenly, the players that terrified you a few minutes ago become your targets. That shift in power creates an incredible feeling of progression, even though nothing carries over between matches. One of my favorite memories was surviving for nearly twenty minutes and climbing into the top ten players on the server. I wasn't even trying to be aggressive. I was just playing carefully, avoiding traps, and picking smart opportunities. Watching my name slowly rise on the leaderboard felt surprisingly rewarding. Of course, that success didn't last. Because this is agario. Success never lasts forever. The Funniest Mistakes I've Made The "Easy Target" Disaster One thing I've learned is that confidence can be dangerous. I once spotted a smaller player moving awkwardly near the edge of the map. They looked trapped. I thought I had an easy meal. I rushed toward them without thinking. The next thing I knew, they split into multiple pieces, baited me into a bad position, and led me directly into a player that was twice my size. Within two seconds, I went from hunter to lunch. I couldn't even be mad. The trap was honestly impressive. Accidentally Helping My Enemy Another embarrassing moment happened when I tried to escape from a larger player. In my panic, I ejected mass in the wrong direction. Instead of creating distance, I essentially fed the person chasing me. I made them bigger. They caught me almost immediately. It felt like handing a thief the keys to my own house. The Wall Corner Panic Every experienced player knows this feeling. You're trying to escape. A massive player is gaining on you. You glance at the map. And suddenly realize you've backed yourself into a corner. There is no escape route. No clever strategy. No miracle play. Just acceptance. Those moments always make me laugh because they feel so avoidable in hindsight. The Most Frustrating Experience Getting Huge and Losing Everything If you've played agario, you've probably experienced this. You spend fifteen or twenty minutes building your mass. You're focused. You're careful. You're making smart decisions. You finally reach a size that feels powerful. Then one tiny mistake destroys everything. Maybe you split at the wrong moment. Maybe you get trapped between multiple players. Maybe a virus launches you into a terrible position. Whatever the reason, your giant empire disappears in seconds. I still remember one match where I had my best run of the week. I was sitting comfortably on the leaderboard and feeling invincible. Then I got greedy. I chased a player that wasn't worth the risk. A larger opponent appeared from off-screen. Game over. Twenty minutes of progress vanished instantly. For about five seconds, I considered quitting. Then I clicked Play Again. Surprising Things I Learned From Playing Patience Beats Aggression When I first started, I thought the goal was to chase every smaller player I saw. That strategy rarely worked. The more I played, the more I realized that patience wins far more games. Some of my best runs happened when I focused on survival instead of domination. Avoiding unnecessary risks often leads to bigger rewards later. Bigger Isn't Always Better One thing that surprised me was how difficult movement becomes when you're enormous. A huge cell has power, but it also becomes slower and less flexible. Sometimes medium-sized players can outmaneuver giants and create opportunities that larger players can't respond to quickly enough. The game has a surprisingly balanced risk-reward system. Reading Other Players Matters Many players develop recognizable habits. Some are aggressive. Some are cautious. Some rely heavily on split attacks. After enough matches, I started paying attention to player behavior rather than just player size. That small adjustment improved my survival rate dramatically. My Personal Tips for New Players Stay Near Open Space Getting trapped is one of the most common ways to lose. Whenever possible, I try to keep multiple escape routes available. Don't Chase Everything Not every smaller player is worth pursuing. Sometimes the safest choice is to continue farming pellets and wait for better opportunities. Watch the Entire Screen Tunnel vision is dangerous. It's easy to focus on a target and forget to monitor surrounding threats. Many of my worst defeats happened because I ignored what was happening just outside my field of view. Learn From Every Defeat This sounds obvious, but it helps. Whenever I lose a large amount of mass, I try to identify exactly what went wrong. Most deaths aren't random. They're usually the result of a decision I made thirty seconds earlier. Why Agario Still Feels Fresh What impresses me most about agario is how simple mechanics continue creating unique stories. Every match feels different. Some games are calm and strategic. Others become chaotic battles involving dozens of players. Sometimes I spend ten minutes surviving against impossible odds. Other times I get eaten within fifteen seconds. That unpredictability keeps the experience interesting. No unlocks are required. No battle passes. No complicated systems. Just pure player interaction creating unexpected moments. And honestly, that's refreshing. Final Thoughts Even after all these years, agario remains one of those games I can launch when I want something quick, competitive, and entertaining. It's simple enough for anyone to understand within minutes, yet deep enough to produce memorable stories every time you play. I've laughed at ridiculous mistakes, celebrated unlikely victories, and experienced the heartbreak of losing massive cells after long runs. Somehow, all those emotions are packed into a game built around colorful circles eating each other. That's probably why I keep coming back. No matter how many times I get eaten, there's always that feeling that the next run might be the one where everything goes perfectly. Or at least lasts a little longer. Have you tried it yet? Share your funniest agario moment, or let me know if you've discovered any other fun games worth checking out!

4 weeks, 1 day

[PATCH v6 1/2] accel/rocket: Fix error path handling in rocket_job_run()

by ZhaoJinming

In rocket_job_run(), after taking an extra fence reference for job->done_fence via dma_fence_get(), the error paths have three bugs: - The dma_fence reference held by job->done_fence is never released, causing a reference leak. - pm_runtime_get_sync() increments the usage counter even on failure, but the error path does not decrement it, leaking the runtime PM reference and preventing the NPU from suspending. - A valid but unsignaled fence is returned to the DRM scheduler, which triggers WARN("Fence ... released with pending signals!") when the scheduler drops its reference. Fix by replacing pm_runtime_get_sync() with pm_runtime_resume_and_get() which auto-balances the usage counter on failure, releasing both fence references on error, and returning ERR_PTR(ret) instead of the unsignaled fence. Cc: stable(a)vger.kernel.org Fixes: 0810d5ad88a1 ("accel/rocket: Add job submission IOCTL") Signed-off-by: ZhaoJinming <zhaojinming(a)uniontech.com> --- drivers/accel/rocket/rocket_job.c | 19 ++++++++++++++----- 1 file changed, 14 insertions(+), 5 deletions(-) diff --git a/drivers/accel/rocket/rocket_job.c b/drivers/accel/rocket/rocket_job.c index ac51bff39833..e8a073e22ac2 100644 --- a/drivers/accel/rocket/rocket_job.c +++ b/drivers/accel/rocket/rocket_job.c @@ -310,13 +310,22 @@ static struct dma_fence *rocket_job_run(struct drm_sched_job *sched_job) dma_fence_put(job->done_fence); job->done_fence = dma_fence_get(fence); - ret = pm_runtime_get_sync(core->dev); - if (ret < 0) - return fence; + ret = pm_runtime_resume_and_get(core->dev); + if (ret < 0) { + dma_fence_put(job->done_fence); + job->done_fence = NULL; + dma_fence_put(fence); + return ERR_PTR(ret); + } ret = iommu_attach_group(job->domain->domain, core->iommu_group); - if (ret < 0) - return fence; + if (ret < 0) { + pm_runtime_put(core->dev); + dma_fence_put(job->done_fence); + job->done_fence = NULL; + dma_fence_put(fence); + return ERR_PTR(ret); + } scoped_guard(mutex, &core->job_lock) { core->in_flight_job = job; -- 2.20.1

1 month

What Is Cryptera Chain Signals

by morganhawkman68＠gmail.com

Cryptera Chain Signals is a leading specialist firm in cryptocurrency recovery, blockchain forensics, and digital asset tracing. Established to address the growing challenges of crypto fraud in 2026, the company combines cutting-edge technology with deep investigative expertise to help individuals and businesses recover stolen or lost cryptocurrency. Our Mission To provide victims of cryptocurrency scams, hacks, and wallet compromises with professional, ethical, and effective recovery solutions. We believe that while blockchain transactions are irreversible by design, advanced forensics and strategic coordination can often turn the tide in favour of rightful owners. Core Services 1. Blockchain Forensics & Asset Tracing Using proprietary AI-powered tools, Cryptera Chain Signals performs deep multi-chain analysis to track stolen funds across Bitcoin, Ethereum, Solana, and other major networks. We identify laundering patterns, mixer usage, cross-chain bridges, and peeling chains that many basic tools miss. 2. Scam Recovery & Fraud Investigation Specialised support for victims of: Phishing and wallet drain attacks DeFi rug pulls and exit scams Pig butchering and romance scams Fake investment platforms Business email compromise (BEC) 3. Wallet Access Recovery Assistance with compromised accounts, lost credentials, and certain hardware/software wallet issues (where technically and legally feasible). 4. Exchange Coordination & Asset Freezing Strong global relationships with major cryptocurrency exchanges enable rapid coordination for asset freezes and information requests when stolen funds are traceable to compliant platforms. 5. Forensic Reporting & Legal Support Detailed, court-admissible reports that victims can use for: Law enforcement complaints Insurance claims Civil litigation Regulatory submissions 6. Post-Recovery Security Hardening Comprehensive security audits and personalised recommendations to help clients prevent future losses. Why Choose Cryptera Chain Signals Advanced Technology: AI-driven analytics and proprietary tracing systems optimised for 2026 threats. Transparency: Honest initial assessments with realistic expectations — no false guarantees. Ethical Approach: Success-oriented fee structures and strict adherence to data protection laws (including GDPR). Rapid Response: Critical speed advantage in time-sensitive cases. Global Reach: Ability to coordinate across jurisdictions and major exchanges. Client-Focused: Clear communication, secure client portals, and dedicated support throughout the process. Our Approach Every case begins with a confidential consultation. We review transaction details, wallet addresses, and available evidence before providing a professional opinion on recovery feasibility. Only cases with reasonable prospects move forward, ensuring we maintain high success rates in traceable scenarios. Contact Cryptera Chain Signals Website: https://www.crypterachainsignals.com/ Email: info(a)crypterachainsignals.com Cryptera Chain Signals is committed to professionalism, integrity, and delivering meaningful results for victims of cryptocurrency crime. If you have lost digital assets, early action with experienced specialists offers the best opportunity for recovery.

1 month

[PATCH 00/15] accel/qda: Qualcomm DSP Accelerator driver

by Ekansh Gupta via B4 Relay

This patch series introduces the Qualcomm DSP Accelerator (QDA) driver, a DRM-based accelerator driver for Qualcomm DSPs. The driver provides a standardized interface for offloading computational tasks to DSPs found on Qualcomm SoCs, supporting all DSP domains. The QDA driver implements the FastRPC protocol over the DRM accel subsystem. It uses the same device-tree node structure as the existing fastrpc driver in drivers/misc/. The approach for binding the QDA driver to device-tree nodes while coexisting with the fastrpc driver is an open item described below. RFC thread: https://lore.kernel.org/dri-devel/20260224-qda-firstpost-v1-0-fe46a9c1a046@… User-space staging branch ========================= https://github.com/qualcomm/fastrpc/tree/accel/staging Key Features ============ * Standard DRM accelerator interface via /dev/accel/accelN * GEM-based buffer management with DMA-BUF import/export (PRIME) * IOMMU-based memory isolation using per-process context banks * FastRPC protocol implementation for DSP communication * RPMsg transport layer for reliable message passing * Support for all DSP domains (ADSP, CDSP, SDSP, GDSP) * DRM IOCTL interface for DSP session management, buffer allocation, and remote procedure invocation Architecture ============ 1. DRM Accelerator Framework Integration The driver registers as a DRM accel device, exposing a standard /dev/accel/accelN character device node. This provides established DRM infrastructure for device management, file operations, and IOCTL dispatch. 2. Memory Management Buffers are managed as GEM objects with full PRIME support for DMA-BUF import/export. This enables seamless buffer sharing with other DRM drivers (GPU, camera, video) using standard kernel mechanisms. 3. IOMMU Context Bank Management IOMMU context banks (CBs) are represented as proper struct device instances on a custom virtual bus (qda-compute-cb). Each CB device is registered with the IOMMU subsystem and receives its own IOMMU domain, enabling per-session address space isolation. The custom bus was introduced because IOMMU context banks are synthetic constructs — not real platform devices — and to ensure CB device lifetime is strictly subordinate to the parent QDA device. See also: https://lore.kernel.org/all/245d602f-3037-4ae3-9af9-d98f37258aae@oss.qualco… 4. Memory Manager Architecture A pluggable memory manager coordinates IOMMU device assignment and buffer allocation. The current implementation uses a DMA-coherent backend with SID-prefixed DMA addresses for DSP firmware compatibility. 5. Transport Layer RPMsg communication is handled in a dedicated transport layer (qda_rpmsg.c), separate from the core DRM driver logic. 6. Code Organization The driver is organized across multiple files (~4600 lines total): * qda_drv.c: Core driver and DRM integration * qda_rpmsg.c: RPMsg transport layer * qda_cb.c: Context bank device management * qda_compute_bus.c: Custom virtual bus for CB devices * qda_gem.c: GEM object management * qda_prime.c: DMA-BUF import (PRIME) * qda_memory_manager.c: IOMMU device registry and allocation * qda_memory_dma.c: DMA-coherent allocation backend * qda_fastrpc.c: FastRPC protocol implementation * qda_ioctl.c: IOCTL dispatch 7. UAPI Design The driver exposes DRM-style IOCTLs defined in include/uapi/drm/qda_accel.h, following DRM UAPI conventions (__u32/__u64 types, C++ guard, GPL-2.0-only WITH Linux-syscall-note). Patch Series Organization ========================== Patch 01: MAINTAINERS entry Patch 02: Driver documentation (Documentation/accel/qda/) Patches 03-04: Core driver skeleton and compute bus Patch 05: iommu: Register qda-compute-cb bus with IOMMU subsystem Patches 06-07: CB device enumeration and memory manager Patch 08: QUERY IOCTL and UAPI header Patches 09-11: GEM buffer management and PRIME import Patches 12-15: FastRPC protocol (invoke, session create/release, map/unmap) Open Items =========== 1. Device-Tree Compatible String The QDA driver uses the same device-tree node structure and properties as the existing fastrpc driver in drivers/misc/. A mechanism is needed to allow the QDA driver to bind to its device node independently of the fastrpc driver. The intended coexistence model is: platforms that require the complete fastrpc feature set continue to use "qcom,fastrpc"; new platforms where a feature available only in QDA takes priority, or where QDA's current feature set is sufficient, use a QDA-specific compatible string. New feature development is directed toward QDA rather than the existing fastrpc driver. As QDA matures toward feature parity with fastrpc, platforms can adopt the QDA-specific compatible string exclusively. The options under consideration are: a) Add a new "qcom,qda" compatible string to the existing qcom,fastrpc.yaml binding, since the DT node structure and properties are identical. This avoids a separate binding file but adds a QDA-specific string to a fastrpc binding. b) Introduce a separate qcom,qda.yaml binding that references or inherits the fastrpc binding properties. Seeking guidance from DT binding maintainers on the preferred approach. 2. Privilege Level Management Currently, daemon processes and user processes have the same access level as both use the same accel device node. This needs to be addressed as daemons attach to privileged DSP protection domains and require higher privilege levels for system-level operations. Seeking guidance on the best approach: separate device nodes, capability-based checks, or DRM master/authentication mechanisms. 3. UAPI Compatibility Layer A compatibility layer is needed to facilitate migration of client applications from the existing FastRPC UAPI to the new QDA UAPI, ensuring a smooth transition for existing userspace code. Seeking guidance on the preferred implementation approach: in-kernel translation layer, userspace wrapper library, or hybrid solution. An initial evaluation of an in-kernel translation shim was performed, where legacy FastRPC device nodes (/dev/fastrpc-*) are exposed and requests are internally routed to the QDA accel driver. The goal was to keep the compatibility layer minimal, reuse existing QDA helper paths (attach, buffer allocation, mapping, etc.), and avoid duplication of GEM and buffer management logic. However, the following challenges were identified: a) Dependency on drm_file for QDA helpers QDA relies on GEM-backed allocations and per-client handle namespaces, which require a valid struct drm_file. Since GEM handles are scoped per drm_file, the compatibility layer cannot directly reuse QDA helper paths without establishing a proper drm_file context for each client. b) Lack of public API for drm_file creation Creating a drm_file directly (similar to mock_drm_getfile()-style approaches) is not feasible, as the required helpers (drm_file_alloc(), drm_file_free(), etc.) are internal to the DRM core and not exported. This prevents external drivers from safely constructing and managing drm_file instances. c) VFS-based open is not a viable solution Opening the underlying accel device (/dev/accel/accelN) from the compatibility driver via filp_open() does provide a valid drm_file, but introduces reliance on userspace-visible device paths, lack of stability in containerized or chroot environments, and no clean mapping between legacy device nodes and accel devices. d) Userspace proxy limitations (CUSE) A CUSE-based userspace proxy was evaluated. However, DMA-buf file descriptors passed by legacy applications cannot be directly reused in the CUSE daemon (file descriptors are process-specific), which breaks buffer sharing semantics. e) drm_client-based approaches do not match requirements drm_client APIs (used for fbdev emulation) rely on a shared drm_file and do not provide the per-client isolation required by FastRPC semantics. Due to the above constraints, it is currently unclear how to implement an in-kernel compatibility layer that correctly handles per-client drm_file contexts without relying on VFS paths or non-exported DRM internals. 4. Documentation Improvements Add detailed IOCTL usage examples, document DSP firmware interface requirements, and create a migration guide from the existing FastRPC driver. 5. Per-Session Memory Allocation Develop a userspace API to support memory allocation on a per-session basis, enabling session-specific memory management. 6. Audio and Sensors PD Support The current series does not handle Audio PD and Sensors PD functionalities. These specialized protection domains require additional support for real-time constraints and power management. Interface Compatibility ======================== The QDA driver uses the same device-tree node structure and child node layout (including "qcom,fastrpc-compute-cb" child nodes) as the existing fastrpc driver. The underlying FastRPC protocol and DSP firmware interface are compatible with the existing fastrpc driver, ensuring that DSP firmware and libraries continue to work without modification. References ========== Previous discussions on this migration: - https://lkml.org/lkml/2024/6/24/479 - https://lkml.org/lkml/2024/6/21/1252 Testing ======= The driver has been tested on Qualcomm platforms with: - Basic FastRPC attach/release operations - DSP process creation and initialization - Memory mapping/unmapping operations - Dynamic invocation with various buffer types - GEM buffer allocation and mmap - PRIME buffer import from other subsystems Signed-off-by: Ekansh Gupta <ekansh.gupta(a)oss.qualcomm.com> --- Ekansh Gupta (15): MAINTAINERS: Add entry for Qualcomm DSP Accelerator (QDA) driver accel/qda: Add QDA driver documentation accel/qda: Add initial QDA DRM accelerator driver accel/qda: Add compute bus for QDA context banks iommu: Add QDA compute context bank bus to iommu_buses accel/qda: Create compute context bank devices on QDA compute bus accel/qda: Add memory manager for CB devices accel/qda: Add QUERY IOCTL and QDA UAPI header accel/qda: Add DMA-backed GEM objects and memory manager integration accel/qda: Add GEM_CREATE and GEM_MMAP_OFFSET IOCTLs accel/qda: Add PRIME DMA-BUF import support accel/qda: Add FastRPC invocation support accel/qda: Add DSP process creation and release accel/qda: Add remote memory mapping to DSP address space accel/qda: Add remote memory unmap from DSP address space Documentation/accel/index.rst | 1 + Documentation/accel/qda/index.rst | 13 + Documentation/accel/qda/qda.rst | 146 +++++ MAINTAINERS | 9 + drivers/accel/Kconfig | 1 + drivers/accel/Makefile | 2 + drivers/accel/qda/Kconfig | 34 + drivers/accel/qda/Makefile | 19 + drivers/accel/qda/qda_cb.c | 146 +++++ drivers/accel/qda/qda_cb.h | 32 + drivers/accel/qda/qda_compute_bus.c | 68 ++ drivers/accel/qda/qda_drv.c | 192 ++++++ drivers/accel/qda/qda_drv.h | 91 +++ drivers/accel/qda/qda_fastrpc.c | 1058 ++++++++++++++++++++++++++++++++ drivers/accel/qda/qda_fastrpc.h | 390 ++++++++++++ drivers/accel/qda/qda_gem.c | 177 ++++++ drivers/accel/qda/qda_gem.h | 62 ++ drivers/accel/qda/qda_ioctl.c | 296 +++++++++ drivers/accel/qda/qda_ioctl.h | 19 + drivers/accel/qda/qda_memory_dma.c | 110 ++++ drivers/accel/qda/qda_memory_dma.h | 17 + drivers/accel/qda/qda_memory_manager.c | 380 ++++++++++++ drivers/accel/qda/qda_memory_manager.h | 75 +++ drivers/accel/qda/qda_prime.c | 184 ++++++ drivers/accel/qda/qda_prime.h | 18 + drivers/accel/qda/qda_rpmsg.c | 248 ++++++++ drivers/accel/qda/qda_rpmsg.h | 30 + drivers/iommu/iommu.c | 4 + include/linux/qda_compute_bus.h | 32 + include/uapi/drm/qda_accel.h | 229 +++++++ 30 files changed, 4083 insertions(+) --- base-commit: 80dd246accce631c328ea43294e53b2b2dd2aa32 change-id: 20260519-qda-series-78c2bf0ed78b Best regards, -- Ekansh Gupta <ekansh.gupta(a)oss.qualcomm.com>

1 month

Pips Game Guide Complete Strategy Tips and Winning Methods Explained

by advanced.finch.jkak＠hidingmail.net

What Pips Game Is About Pips is a modern digital puzzle game that focuses on logic, pattern recognition, and quick decision making. The core idea is to complete tasks or solve challenges by placing or matching elements in a structured environment. Each level increases in difficulty and requires more attention to detail. https://pipsly.io/ Core Appeal of Pips The appeal of Pips comes from its simple start and gradually complex gameplay. Early stages are easy to understand, while later stages demand deeper thinking. This balance makes Pips suitable for both new players and experienced puzzle fans. How to Play Pips Game Basic Gameplay Rules In Pips, the main objective is to interact with puzzle elements and complete specific conditions required by each level. Players must analyze the layout and decide the best moves to achieve the goal in the most efficient way. Step by Step Progression The game usually follows a level based system. Each stage presents a new challenge that builds on previous mechanics. Players progress by solving puzzles correctly and unlocking new stages. Precision and observation are key factors for success. Core Mechanics in Pips Game Pattern Recognition System A major mechanic in Pips is identifying patterns. Players must observe repeating structures and predict outcomes based on visual clues. This helps in solving complex puzzles faster and more accurately. Logic Based Decision Making Every action in Pips requires logical thinking. Random moves often lead to failure or inefficient solutions. Players are encouraged to evaluate all possible outcomes before making a move. Progressive Difficulty Design The difficulty in Pips increases gradually. Early levels focus on teaching basic mechanics, while later levels introduce more complex combinations and constraints. This progression helps maintain engagement over time. Strategies for Winning in Pips Game Careful Planning Before Moves One of the most effective strategies in Pips is planning before acting. Observing the full puzzle layout before making any decision helps avoid mistakes and reduces unnecessary steps. Focus on Efficiency Efficiency is important in Pips. Completing levels with fewer moves or faster decisions often leads to better results. Players should aim to find the most direct solution instead of trial and error approaches. Learning From Repeated Attempts Failure is part of the learning process in Pips. Each attempt provides new information about puzzle structure. By analyzing previous mistakes, players can improve their future performance. Common Mistakes in Pips Game Random Movements Without Strategy A frequent mistake is making random moves without understanding the puzzle. This often leads to confusion and longer completion time. Structured thinking is more effective. Ignoring Visual Clues Pips provides visual hints that guide players toward solutions. Ignoring these clues can make puzzles much harder than intended. Careful observation is essential. Rushing Through Levels Speed without accuracy can reduce success in Pips. Rushing often causes errors that require restarting the level. A balanced approach is recommended for better results. Advanced Tips for Pips Game Mastering Pattern Prediction Advanced players improve by predicting patterns before they fully appear. This skill helps in solving higher difficulty levels with greater consistency. Adapting to New Mechanics Quickly As new mechanics are introduced, flexibility becomes important. Players who adapt quickly to changes in rules or structure perform better in later stages. Combining Multiple Strategies High level gameplay in Pips often requires combining several strategies. Logical analysis, pattern recognition, and efficiency planning must work together for optimal performance. Why Pips Game Attracts Players Simple Yet Deep Gameplay Pips attracts attention because it is easy to start but difficult to master. This combination creates long term interest and encourages repeated play. Rewarding Puzzle Experience Each solved level provides a sense of achievement. The satisfaction of completing complex puzzles motivates continued engagement. Suitable for All Skill Levels Pips is designed for a wide range of players. Beginners can enjoy early levels, while advanced players can challenge themselves with more complex stages. Final Thoughts on Pips Game Long Term Engagement Value Pips offers long term entertainment through its evolving puzzle structure. Continuous updates or level variations can keep the experience fresh and engaging. Skill Development Benefits Playing Pips can help improve logical thinking, pattern recognition, and decision making skills. These benefits extend beyond the game environment. Overall Experience Summary Pips stands out as a thoughtful puzzle game that balances simplicity and depth. Its structured design and increasing challenge levels make it appealing for puzzle enthusiasts who enjoy strategic thinking and problem solving.

1 month

Rolling into the Fun: A Guide to the Addictive World of Slope Game

by specific.salmon.rrgs＠hidingmail.net

Ever found yourself in need of a quick, engaging, and surprisingly challenging game that you can jump into anytime, anywhere? Look no further than the captivating world of Slope Game. This seemingly simple title offers a deceptively deep experience, testing your reflexes and spatial awareness in a way that’s both frustrating and incredibly rewarding. If you've never rolled into its vibrant, geometric landscapes, you're in for a treat! https://slopegamefree.com/ Gameplay: Master the Art of the Tilt Playing Slope Game is refreshingly straightforward. Your primary objective is to keep your ball from falling off the edges of the platforms or colliding with red obstacles. The ball is always moving forward, and your only controls are to steer it left or right. Steering: On a desktop, you'll typically use the A and D keys or the left and right arrow keys to shift the ball's direction. On mobile devices, it’s often a touch-and-drag or tilt-to-steer mechanism. The key is subtlety. Small, precise adjustments are far more effective than wild, sweeping movements, which will often send your ball careening off the edge. Speed: The ball constantly gains speed, which is where the real challenge lies. As you progress, the platforms become narrower, the gaps wider, and the red obstacles more frequent. What was a gentle curve at the start becomes a frantic maneuver later on. Obstacles: Keep a keen eye out for the static and sometimes moving red blocks. Touching these spells instant doom. Learning their patterns and anticipating their appearance is crucial for long-term survival. Tips for Rolling Success While it may seem like pure luck at first, there are definite strategies you can employ to improve your high score: Focus on the Path Ahead: Don't just look at where your ball is; always be scanning the screen for what's coming up next. This allows you to plan your turns and avoid sudden surprises. Small Adjustments are Key: Resist the urge to oversteer. Gentle taps or small nudges are almost always more effective than holding down a direction key, especially as your speed increases. Embrace the Center: Whenever possible, try to keep your ball centered on the path. This gives you the most leeway for unexpected obstacles or sudden turns. Learn from Your Fails: Every time you fall, take a moment to understand why. Did you oversteer? Miss an obstacle? Knowing your weaknesses will help you avoid repeating the same mistakes. Practice Makes Perfect: Like any skill-based game, consistent practice is the best way to improve. Your reflexes will sharpen, and your muscle memory for precise steering will develop over time. Conclusion: A Simple Game, Endless Fun Slope Game embodies the beauty of simplicity in game design. It doesn't rely on flashy graphics or complex storylines, but rather on addictive gameplay that challenges your reflexes and keeps you coming back for "just one more run." Whether you have a few minutes to spare or an hour to dedicate, this game offers a rewarding and endlessly replayable experience. So, if you're looking for a fun and engaging way to test your agility, give Slope Game a try – you might just find your new favorite time-waster.

1 month

Unlocking the Joy of Spatial Puzzles: A Deep Dive into Block Blast

by yappy.mink.rxln＠hidingmail.net

Feeling the itch for a satisfying puzzle challenge? Look no further than games like Block Blast. These engaging tile-matching experiences offer a delightful blend of strategy and spatial reasoning, perfect for a quick mental workout or a longer, relaxing session. Let's explore how to get the most out of these captivating games. https://blockblasts.io/ Introduction: What is Block Blasting? At its core, a block-blasting game is about clearing a grid by strategically placing various-shaped blocks. Imagine a blend of Tetris and a jigsaw puzzle, where your goal isn't just to complete lines, but to eliminate entire clusters of blocks. The beauty lies in its simplicity: no complex narratives or intricate controls, just pure, unadulterated puzzle-solving fun. Many versions of this game exist, but for this article, we’ll be focusing on a general approach that applies to most variations, including Block Blast itself. Gameplay: The Fundamentals of Cube Clearing The basic premise is straightforward. You're presented with a grid, typically 8x8 or 10x10, and a queue of three randomly generated blocks at the bottom of your screen. Your task is to drag and drop these blocks onto the grid. The magic happens when you form a complete horizontal or vertical line (or sometimes both) with your placed blocks. Once a line is complete, it disappears, freeing up space and earning you points. The challenge intensifies as the grid fills up. If you run out of space to place any of the three available blocks, the game ends. This creates a constant tension and encourages careful planning. Some games also feature special blocks – perhaps a bomb that clears a small area, or a rotating block that offers more placement options. These additions add another layer of strategic depth, keeping the gameplay fresh and exciting. Tips for Becoming a Block Blast Champion While Block Blast is easy to pick up, mastering it requires a bit of strategy. Here are a few tips to help you maximize your scores and playtime: Look Ahead: Always consider the next few blocks in your queue. Don't just place a block to clear one line if it compromises your ability to place subsequent, larger blocks. Keep the Center Clear: It's tempting to fill up the edges first, but an open center gives you far more flexibility for larger, irregularly shaped blocks. Prioritize Large Blocks: While clearing single lines is good, try to set up opportunities to clear multiple lines simultaneously, or to use your larger blocks effectively. Don't Be Afraid to Sacrifice: Sometimes, you might need to place a block in a less-than-ideal spot to avoid an immediate game over. It's about damage control. Identify Patterns: As you play more, you'll start to recognize common block combinations and how they fit together best. Practice truly makes perfect here. Utilize Special Blocks Wisely: If your game has them, don't just use special blocks impulsively. Save bombs for truly sticky situations, or use rotators to maximize space. Conclusion: A Refreshing Puzzle Experience Games like Block Blast offer a genuinely enjoyable and mentally stimulating experience. They're easy to pick up, yet provide endless opportunities for strategic refinement. Whether you're looking to unwind after a long day or sharpen your problem-solving skills, these block-clearing puzzles are a fantastic choice. So, what are you waiting for? Dive in and start blasting those blocks!

1 month

MUYERN TRUST HAC KER || Private Digital Security

by priyankaragade6＠gmail.com

If you have lost cryptocurrency to fraud, hacks, or scams, time is critical. The faster you act, the higher the chance of recovery. You do not have to face this alone. Join the thousands of clients who have reclaimed their financial freedom with MUYERN TRUST HACKER. Ready to Start Your Recovery? Contact our specialist team today for a confidential, no-obligation case assessment. What App: [ +1.2.0.2.7.0.3.2.2.3.9 ]

1 month

MUYERN TRUST HAC KER || Private Digital Security

by priyankaragade6＠gmail.com

1 month

[PATCH] dma-buf: move system_cc_shared heap under separate Kconfig

by Sumit Semwal

From: Arnd Bergmann <arnd(a)arndb.de> While system heap and system_cc_shared heap share a lot of code and hence the same source file, their users have different needs. system heap users need it to be a loadable module, while system_cc_shared heap users don't. Building as a loadable module breaks system_cc_shared heap on powerpc and s390 due to un-exported set_memory_encrypted / set_memory_decrypted functions. Fix these by reorganising code to put the system_cc_shared heap under a new Kconfig symbol, which allows either building both into the kernel, or leave encryption up to the consumers of the system heap. Fixes: fd55edff8a0a ("dma-buf: heaps: system: Turn the heap into a module") Signed-off-by: Arnd Bergmann <arnd(a)arndb.de> Signed-off-by: Sumit Semwal <sumit.semwal(a)linaro.org> --- drivers/dma-buf/heaps/Kconfig | 8 ++++++++ drivers/dma-buf/heaps/system_heap.c | 16 ++++++++++------ 2 files changed, 18 insertions(+), 6 deletions(-) diff --git a/drivers/dma-buf/heaps/Kconfig b/drivers/dma-buf/heaps/Kconfig index e273fb18feca..a39decdcf067 100644 --- a/drivers/dma-buf/heaps/Kconfig +++ b/drivers/dma-buf/heaps/Kconfig @@ -5,6 +5,14 @@ config DMABUF_HEAPS_SYSTEM Choose this option to enable the system dmabuf heap. The system heap is backed by pages from the buddy allocator. If in doubt, say Y. +config DMABUF_HEAPS_CC_SYSTEM + bool "DMA-BUF System Heap for decrypted CoCo VMs" + depends on DMABUF_HEAPS && ARCH_HAS_MEM_ENCRYPT && DMABUF_HEAPS_SYSTEM=y + help + Choose this option to enable the system_cc_shared dmabuf heap. This + allows allocating shared (decrypted) memory for confidential computing + (CoCo) VMs. + config DMABUF_HEAPS_CMA tristate "DMA-BUF CMA Heap" depends on DMABUF_HEAPS && DMA_CMA diff --git a/drivers/dma-buf/heaps/system_heap.c b/drivers/dma-buf/heaps/system_heap.c index c92bdec356fc..71d9028cc3df 100644 --- a/drivers/dma-buf/heaps/system_heap.c +++ b/drivers/dma-buf/heaps/system_heap.c @@ -48,6 +48,9 @@ struct dma_heap_attachment { bool cc_shared; }; +#define cc_shared_buffer(b) (IS_ENABLED(CONFIG_DMABUF_HEAPS_CC_SYSTEM) && \ + (b)->cc_shared) + #define LOW_ORDER_GFP (GFP_HIGHUSER | __GFP_ZERO) #define HIGH_ORDER_GFP (((GFP_HIGHUSER | __GFP_ZERO | __GFP_NOWARN \ | __GFP_NORETRY) & ~__GFP_RECLAIM) \ @@ -161,7 +164,7 @@ static struct sg_table *system_heap_map_dma_buf(struct dma_buf_attachment *attac unsigned long attrs; int ret; - attrs = a->cc_shared ? DMA_ATTR_CC_SHARED : 0; + attrs = cc_shared_buffer(a) ? DMA_ATTR_CC_SHARED : 0; ret = dma_map_sgtable(attachment->dev, table, direction, attrs); if (ret) return ERR_PTR(ret); @@ -233,7 +236,7 @@ static int system_heap_mmap(struct dma_buf *dmabuf, struct vm_area_struct *vma) int i, ret; prot = vma->vm_page_prot; - if (buffer->cc_shared) + if (cc_shared_buffer(buffer)) prot = pgprot_decrypted(prot); for_each_sgtable_sg(table, sg, i) { @@ -282,7 +285,7 @@ static void *system_heap_do_vmap(struct system_heap_buffer *buffer) } prot = PAGE_KERNEL; - if (buffer->cc_shared) + if (cc_shared_buffer(buffer)) prot = pgprot_decrypted(prot); vaddr = vmap(pages, npages, VM_MAP, prot); vfree(pages); @@ -349,7 +352,7 @@ static void system_heap_dma_buf_release(struct dma_buf *dmabuf) * Intentionally leak pages that cannot be re-encrypted * to prevent shared memory from being reused. */ - if (buffer->cc_shared && + if (cc_shared_buffer(buffer) && system_heap_set_page_encrypted(page)) continue; @@ -456,7 +459,7 @@ static struct dma_buf *system_heap_allocate(struct dma_heap *heap, list_del(&page->lru); } - if (cc_shared) { + if (cc_shared_buffer(buffer)) { for_each_sgtable_sg(table, sg, i) { ret = system_heap_set_page_decrypted(sg_page(sg)); if (ret) @@ -485,7 +488,7 @@ static struct dma_buf *system_heap_allocate(struct dma_heap *heap, * Intentionally leak pages that cannot be re-encrypted * to prevent shared memory from being reused. */ - if (buffer->cc_shared && + if (cc_shared_buffer(buffer) && system_heap_set_page_encrypted(p)) continue; __free_pages(p, compound_order(p)); @@ -525,6 +528,7 @@ static int __init system_heap_create(void) return PTR_ERR(sys_heap); if (IS_ENABLED(CONFIG_HIGHMEM) || + !IS_ENABLED(CONFIG_DMABUF_HEAPS_CC_SYSTEM) || !cc_platform_has(CC_ATTR_MEM_ENCRYPT)) return 0; -- 2.43.0

1 month

Jump to page:

2026

2025

2024

2023

2022

2021

2020

2019

2018

2017

2016

2015

2014

2013

2012

2011

Linaro-mm-sig