On Mon, Mar 09, 2026 at 06:51:21PM +0100, Jiri Pirko wrote:
> Mon, Mar 09, 2026 at 04:18:57PM +0100, jgg(a)ziepe.ca wrote:
> >On Mon, Mar 09, 2026 at 04:02:33PM +0200, Leon Romanovsky wrote:
> >> On Mon, Mar 09, 2026 at 10:15:30AM -0300, Jason Gunthorpe wrote:
> >> > On Sun, Mar 08, 2026 at 12:19:48PM +0200, Leon Romanovsky wrote:
> >> >
> >> > > > +/*
> >> > > > + * DMA_ATTR_CC_DECRYPTED: Indicates memory that has been explicitly decrypted
> >> > > > + * (shared) for confidential computing guests. The caller must have
> >> > > > + * called set_memory_decrypted(). A struct page is required.
> >> > > > + */
> >> > > > +#define DMA_ATTR_CC_DECRYPTED (1UL << 12)
> >> > >
> >> > > While adding the new attribute is fine, I would expect additional checks in
> >> > > dma_map_phys() to ensure the attribute cannot be misused. For example,
> >> > > WARN_ON(attrs & (DMA_ATTR_CC_DECRYPTED | DMA_ATTR_MMIO)), along with a check
> >> > > that we are taking the direct path only.
> >> >
> >> > DECRYPYED and MMIO is something that needs to work, VFIO (inside a
> >> > TVM) should be using that combination.
> >>
> >> So this sentence "A struct page is required" from the comment above is
> >> not accurate.
> >
> >It would be clearer to say "Unless DMA_ATTR_MMIO is provided a struct
> >page is required"
> >
> >We need to audit if that works properly, IIRC it does, but I don't
> >remember.. Jiri?
>
> How can you do set_memory_decrypted if you don't have page/folio ?
Alot of device MMIO is decrypted by nature and can't be encrypted, so
you'd have to use both flags. eg in VFIO we'd want to do this.
Jason
This is the next version of the shmem backed GEM objects series
originally from Asahi, previously posted by Daniel Almeida.
One of the major changes in this patch series is a much better interface
around vmaps, which we achieve by introducing a new set of rust bindings
for iosys_map.
The previous version of the patch series can be found here:
https://patchwork.freedesktop.org/series/156093/
This patch series may be applied on top of the
driver-core/driver-core-testing branch:
https://git.kernel.org/pub/scm/linux/kernel/git/driver-core/driver-core.git…
Changelogs are per-patch
Asahi Lina (2):
rust: helpers: Add bindings/wrappers for dma_resv_lock
rust: drm: gem: shmem: Add DRM shmem helper abstraction
Lyude Paul (5):
rust: drm: Add gem::impl_aref_for_gem_obj!
rust: drm: gem: Add raw_dma_resv() function
rust: gem: Introduce DriverObject::Args
rust: drm: gem: Introduce shmem::SGTable
rust: drm/gem: Add vmap functions to shmem bindings
drivers/gpu/drm/nova/gem.rs | 5 +-
drivers/gpu/drm/tyr/gem.rs | 3 +-
rust/bindings/bindings_helper.h | 3 +
rust/helpers/dma-resv.c | 13 +
rust/helpers/drm.c | 56 +++-
rust/helpers/helpers.c | 1 +
rust/kernel/drm/gem/mod.rs | 79 +++--
rust/kernel/drm/gem/shmem.rs | 529 ++++++++++++++++++++++++++++++++
8 files changed, 667 insertions(+), 22 deletions(-)
create mode 100644 rust/helpers/dma-resv.c
create mode 100644 rust/kernel/drm/gem/shmem.rs
--
2.53.0
This patch series adds a new dma-buf heap driver that exposes coherent,
non‑reusable reserved-memory regions as named heaps, so userspace can
explicitly allocate buffers from those device‑specific pools.
Motivation: we want cgroup accounting for all userspace‑visible buffer
allocations (DRM, v4l2, dma‑buf heaps, etc.). That’s hard to do when
drivers call dma_alloc_attrs() directly because the accounting controller
(memcg vs dmem) is ambiguous. The long‑term plan is to steer those paths
toward dma‑buf heaps, where each heap can unambiguously charge a single
controller. To reach that goal, we need a heap backend for each
dma_alloc_attrs() memory type. CMA and system heaps already exist;
coherent reserved‑memory was the missing piece, since many SoCs define
dedicated, device‑local coherent pools in DT under /reserved-memory using
"shared-dma-pool" with non‑reusable regions (i.e., not CMA) that are
carved out exclusively for coherent DMA and are currently only usable by
in‑kernel drivers.
Because these regions are device‑dependent, each heap instance binds a
heap device to its reserved‑mem region via a newly introduced helper
function -namely, of_reserved_mem_device_init_with_mem()- so coherent
allocations use the correct dev->dma_mem.
Charging to cgroups for these buffers is intentionally left out to keep
review focused on the new heap; I plan to follow up based on Eric’s [1]
and Maxime’s [2] work on dmem charging from userspace.
This series also makes the new heap driver modular, in line with the CMA
heap change in [3].
[1] https://lore.kernel.org/all/20260218-dmabuf-heap-cma-dmem-v2-0-b249886fb7b2…
[2] https://lore.kernel.org/all/20250310-dmem-cgroups-v1-0-2984c1bc9312@kernel.…
[3] https://lore.kernel.org/all/20260303-dma-buf-heaps-as-modules-v3-0-24344812…
Signed-off-by: Albert Esteve <aesteve(a)redhat.com>
---
Changes in v3:
- Reorganized changesets among patches to ensure bisectability
- Removed unused dma_heap_coherent_register() leftover
- Removed fallback when setting mask in coherent heap dev, since
dma_set_mask() already truncates to supported masks
- Moved struct rmem_assigned_device (rd) logic to
of_reserved_mem_device_init_with_mem() to allow listing the device
- Link to v2: https://lore.kernel.org/r/20260303-b4-dmabuf-heap-coherent-rmem-v2-0-65a465…
Changes in v2:
- Removed dmem charging parts
- Moved coherent heap registering logic to coherent.c
- Made heap device a member of struct dma_heap
- Split dma_heap_add logic into create/register, to be able to
access the stored heap device before registered.
- Avoid platform device in favour of heap device
- Added a wrapper to rmem device_init() op
- Switched from late_initcall() to module_init()
- Made the coherent heap driver modular
- Link to v1: https://lore.kernel.org/r/20260224-b4-dmabuf-heap-coherent-rmem-v1-1-dffef4…
---
Albert Esteve (5):
dma-buf: dma-heap: split dma_heap_add
of_reserved_mem: add a helper for rmem device_init op
dma: coherent: store reserved memory coherent regions
dma-buf: heaps: Add Coherent heap to dmabuf heaps
dma-buf: heaps: coherent: Turn heap into a module
John Stultz (1):
dma-buf: dma-heap: Keep track of the heap device struct
drivers/dma-buf/dma-heap.c | 138 +++++++++--
drivers/dma-buf/heaps/Kconfig | 9 +
drivers/dma-buf/heaps/Makefile | 1 +
drivers/dma-buf/heaps/coherent_heap.c | 417 ++++++++++++++++++++++++++++++++++
drivers/of/of_reserved_mem.c | 68 ++++--
include/linux/dma-heap.h | 5 +
include/linux/dma-map-ops.h | 7 +
include/linux/of_reserved_mem.h | 8 +
kernel/dma/coherent.c | 34 +++
9 files changed, 640 insertions(+), 47 deletions(-)
---
base-commit: 6de23f81a5e08be8fbf5e8d7e9febc72a5b5f27f
change-id: 20260223-b4-dmabuf-heap-coherent-rmem-91fd3926afe9
Best regards,
--
Albert Esteve <aesteve(a)redhat.com>
On Wed, Mar 11, 2026 at 06:53:51AM +0000, Kasireddy, Vivek wrote:
> So, given the current situation, what is the right thing to do?
> Should we take your patch that brings back the pages array and treat it as
> a temporary fix until equivalent folio based APIs are available?
IMHO, yes. It saves memory, increases performance, fixes the bug and
uses the APIs properly.
Jason
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Blockchain transaction tracing has become an essential service in the cryptocurrency ecosystem. As digital asset theft, scams, and fraud continue to cause billions in losses each year, the ability to follow funds across public ledgers offers victims, law enforcement, and institutions a path to clarity and potential intervention. While blockchain's immutable and pseudonymous design prevents direct reversals of transactions, professional tracing can reconstruct movement patterns, identify laundering techniques, cluster addresses under common control, and locate high-confidence endpoints—often centralized exchanges with KYC/AML compliance—where freeze requests or seizures become possible.
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Core Components of Professional Tracing
Secure Case Intake and Evidence Gathering
The process starts with a confidential consultation. Clients provide transaction hashes (TXIDs), wallet addresses, timestamps, scam communications, and supporting evidence without sharing private keys or seed phrases. This step ensures security and allows investigators to assess feasibility honestly from the outset.
Initial Transaction Lookup and Graph Construction
Using public blockchain nodes and APIs, experts retrieve the full transaction history linked to the provided TXIDs. They construct directed graphs showing inflows, outflows, splits, and consolidations. Visualization tools make it easier to see branching paths and consolidation points early on.
Address Clustering and Entity Resolution
Investigators apply behavioral heuristics to group addresses likely controlled by the same actor:
Co-spending patterns (multiple addresses used as inputs in one transaction)
Change address reuse (leftover funds consistently returning to the same family)
Timing and amount correlations (transactions close in time with similar values)
Interaction fingerprints (repeated use of mixers, bridges, or exchanges)
Clustering transforms thousands of unrelated addresses into logical entities, revealing control even after funds are fragmented.
Multi-Layer Attribution Through Obfuscation
Criminals obscure trails using mixers/tumblers, cross-chain bridges, decentralized exchanges, privacy protocols, flash-loan laundering, or automated smart-contract tumbling. Professional tracing tracks through these layers by analyzing residual signatures: entry/exit timing, fee-adjusted amounts, bridge metadata, and behavioral continuity across chains. This multi-layer approach is what separates basic explorers from advanced forensics.
Endpoint Identification and Risk Scoring
Analysts cross-reference clustered addresses against known exchange deposit patterns, historical wallet data, and compliance databases. High-confidence endpoints—centralized platforms requiring KYC/AML—are prioritized because they enable freeze requests. Each cluster receives a confidence or risk score based on laundering complexity and endpoint type.
Forensic Report Production
Findings are compiled into a detailed, court-admissible report that includes:
Visualized transaction flow diagrams
Clustered addresses with confidence levels
Identified laundering techniques
Probable endpoints and recommended next steps (freeze requests, law enforcement filings)
These reports serve as credible evidence for exchange compliance teams, regulators, or authorities such as the FBI’s Internet Crime Complaint Center (IC3).
Coordination and Follow-Up Support
In viable cases, rapid submission of evidence can lead to asset freezes within hours or days. Investigators assist with coordination where appropriate, helping bridge the gap between forensic findings and actionable outcomes.
Cryptera Chain Signals (CCS) integrates these steps into a cohesive, client-focused workflow. They emphasize transparency—honest feasibility assessments, no large upfront fees without evaluation, no guarantees—and prioritize victim education on prevention (hardware wallets, address verification, secure backups, monitoring) to reduce future risks.
While professional tracing cannot reverse transactions or assure recovery, it provides critical visibility and evidence in an otherwise opaque environment. Outcomes range from partial freezes on regulated platforms to contributions to broader law enforcement seizures. Early action, strong evidence, and realistic expectations remain the most important factors.
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In 2026, blockchain investigation turns the transparency of public ledgers into a powerful tool for tracking stolen or lost funds. Firms like Cryptera Chain Signals (CCS) exemplify how disciplined, ethical forensics can deliver clarity, support intervention when possible, and help victims navigate the complexities of cryptocurrency crime with integrity and precision.
Blockchain investigators play a critical role in the fight against cryptocurrency crime. When funds are stolen through phishing, fake investment platforms, or wallet exploits, the public and immutable nature of blockchains like Bitcoin and Ethereum allows skilled professionals to follow the money trail. While no process can reverse transactions, systematic tracing can reveal where funds moved, identify laundering techniques, and sometimes locate intervention points such as regulated exchanges for asset freezes or law enforcement action.
Cryptera Chain Signals (CCS), a firm with 28 years of digital investigation experience specializing in blockchain forensics, applies a rigorous, evidence-based methodology to these cases. Their approach emphasizes transparency and realistic outcomes, helping victims and institutions understand the movement of stolen assets without overpromising results.
Here is the typical step-by-step process blockchain investigators follow when tracing cryptocurrency:
Step 1: Secure Evidence Collection and Case Intake
The process begins with gathering all available evidence while protecting the victim’s remaining assets. Investigators request transaction hashes (TXIDs), sending and receiving wallet addresses, timestamps, amounts, scam communications (screenshots, emails, chat logs), and any other relevant details. Importantly, legitimate firms never ask for private keys or seed phrases at this stage. This intake phase includes a secure, confidential assessment to determine feasibility. Cryptera Chain Signals (CCS) conducts this step with strict data-protection protocols to prevent secondary exploitation.
Step 2: Initial Transaction Lookup and Graph Construction
Once evidence is verified, investigators query public blockchain nodes and explorers to retrieve the complete transaction history linked to the TXID. They build a directed transaction graph showing the flow of funds from the victim’s wallet onward. This visual map reveals immediate outflows, splits into multiple smaller transactions, and consolidation points. Tools allow zooming into each hop, noting fees, timestamps, and any interactions with known services such as exchanges or bridges. At this stage, basic visibility is established before deeper analysis begins.
Step 3: Address Clustering Using Behavioral Heuristics
A core technique is clustering addresses likely controlled by the same entity. Investigators apply well-established heuristics:
Co-spending patterns: addresses used together as inputs in a single transaction
Change address reuse: leftover funds consistently returning to the same address family
Timing and amount correlations: transactions occurring close together with similar values
Behavioral fingerprints: repeated interaction styles with mixers, bridges, or decentralized exchanges
These clusters transform thousands of seemingly unrelated addresses into logical groups, revealing control even after funds are split or moved multiple times. Cryptera Chain Signals (CCS) refines this step with proprietary algorithms that improve accuracy across different blockchains.
Step 4: Tracking Through Obfuscation Layers
Criminals deliberately complicate trails using mixers (tumblers), cross-chain bridges, decentralized exchanges (DEXs), privacy protocols, or flash-loan laundering. Investigators follow residual patterns: entry/exit timing, fee-adjusted amount preservation, bridge-specific metadata, and continuity of behavior across chains. Multi-layer attribution—tracking funds through multiple obfuscation steps—is essential here. Basic explorers lose visibility quickly, but advanced forensics can reconstruct paths that appear broken. This step often reveals whether funds have been converted to privacy coins or moved to non-transparent endpoints.
Step 5: Endpoint Identification and Risk Scoring
Investigators cross-reference clustered addresses against known exchange deposit patterns, historical wallet data, and compliance databases. High-confidence endpoints—centralized platforms enforcing KYC/AML rules—are flagged because they allow freeze requests. Each cluster receives a risk or confidence score based on laundering complexity and endpoint type. This scoring helps prioritize actionable leads.
Step 6: Forensic Report Generation
All findings are compiled into a detailed, court-admissible report. It includes:
Visualized transaction graphs
Clustered addresses with confidence levels
Identified laundering techniques
Probable endpoints and recommended next steps (exchange freeze requests, law enforcement submissions)
The report serves as professional evidence for exchange compliance teams, regulators, or authorities such as the FBI’s Internet Crime Complaint Center (IC3).
Step 7: Coordination and Follow-Up
Investigators assist victims in submitting evidence for freezes or official reports. In some cases, rapid action within hours or days leads to asset freezes before further dispersal. Coordination with law enforcement or international partners can extend the process but increase the chance of broader seizures or restitution.
Cryptera Chain Signals (CCS) integrates these steps into a cohesive workflow, using multi-layer attribution to deliver clear, actionable intelligence while maintaining strict ethical standards and realistic expectations.
While blockchain investigation cannot guarantee recovery, it provides victims with clarity, evidence, and viable pathways forward. The entire process—from intake to reporting—typically spans days to weeks depending on case complexity, but early action is always the most important factor.
For more information on blockchain tracing methods and realistic guidance, visit https://www.crypterachainsignals.com/ or email info(a)crypterachainsignals.com.
In summary, the step-by-step methodology used by blockchain investigators transforms the public transparency of distributed ledgers into a powerful investigative tool. Firms like Cryptera Chain Signals (CCS) demonstrate how disciplined forensic analysis can bring structure and insight to otherwise chaotic situations, helping victims and authorities navigate the complexities of cryptocurrency crime in 2026.
When cryptocurrency is stolen—through phishing attacks, fake trading platforms, wallet compromises, or sophisticated fraud schemes—victims often assume the funds are gone forever. Blockchain's decentralized and irreversible design reinforces that perception: no central bank or authority can simply reverse a transaction. Yet blockchain investigation has become a powerful tool for tracking stolen funds, turning the very transparency that makes crypto attractive into a mechanism for accountability. By analyzing public ledger data, experts can follow money trails, identify laundering patterns, and sometimes locate intervention points that lead to asset freezes or law enforcement action.
Cryptera Chain Signals (CCS), a firm specializing in blockchain forensics and digital fraud investigation, regularly applies these techniques to help victims and institutions understand where stolen funds have gone. With 28 years of experience in digital investigations, CCS demonstrates how structured analysis of blockchain data can provide clarity in cases that initially appear hopeless.
The Foundation: Blockchain's Public Ledger
Every cryptocurrency transaction is permanently recorded on a public, distributed ledger. For Bitcoin, Ethereum, and most major chains, this includes:
Sender and receiver wallet addresses
The exact amount transferred
Timestamp
Transaction hash (TXID) linking to prior and subsequent transactions
While wallet addresses are pseudonymous (not directly tied to names or identities), they are not anonymous. Repeated use, patterns of behavior, and connections between addresses create traceable signatures. Blockchain investigation exploits these properties to reconstruct fund flows.
Key Techniques in Blockchain Investigation
Address Clustering
Investigators use heuristics to group addresses likely controlled by the same entity:
Co-spending: Multiple addresses used as inputs in a single transaction
Change address reuse: Leftover “change” consistently sent back to the same address family
Timing and amount correlations: Transactions occurring close together with similar values
Behavioral fingerprints: Consistent interaction patterns with exchanges, mixers, or bridges
Clustering reveals control even across hundreds of addresses, forming the basis for attributing ownership without off-chain identity data.
Transaction Graph Analysis
Experts build directed graphs showing every hop: inflows, outflows, splits, and consolidations. Visualization tools highlight branching paths and dead ends, making complex movements easier to understand.
Handling Obfuscation Methods
Criminals deliberately obscure trails using:
Mixers/tumblers that pool and redistribute funds
Cross-chain bridges to move assets between blockchains
Decentralized exchanges for anonymous swaps
Privacy protocols and layer-2 solutions
Flash-loan laundering or automated smart-contract tumbling
Advanced forensics tracks through these by analyzing residual patterns: entry/exit timing, fee-adjusted amounts, bridge metadata, and continuity of behavior across chains. Multi-layer attribution—used by firms like Cryptera Chain Signals (CCS)—reconstructs paths that standard block explorers lose after one or two steps.
Endpoint Identification
The most actionable leads occur when funds reach centralized exchanges enforcing Know Your Customer (KYC) and Anti-Money Laundering (AML) rules. Investigators cross-reference clustered addresses against known exchange deposit patterns and historical wallet data. When funds land on compliant platforms, forensic reports provide evidence for freeze requests submitted to exchange compliance teams.
Forensic Reporting and Coordination
Professional reports include visualized transaction graphs, confidence-scored clusters, identified laundering techniques, and recommended next steps. These documents support:
Asset freeze requests to exchanges
Submissions to law enforcement (FBI IC3, local cybercrime units)
Regulatory filings or legal proceedings
In successful cases, rapid freezes or seizures have led to partial recoveries or contributions to victim restitution programs.
Realistic Outcomes and Limitations
Blockchain investigation is highly effective on transparent chains and when funds reach regulated endpoints. Industry examples show partial recoveries in timely cases where funds consolidate on compliant platforms. However, heavy laundering, conversion to privacy coins, immediate off-ramping via non-KYC channels, or long delays reduce visibility and chances significantly.
Cryptera Chain Signals (CCS) prioritizes realistic assessments: honest feasibility evaluations, transparent processes, and no guarantees. They focus on evidence over hype, helping victims understand what is traceable and what intervention options may exist.
Practical Advice for Victims
If funds are stolen:
Secure remaining assets immediately (new wallet, hardware storage, MFA).
Document all evidence (TXIDs, addresses, communications).
Report officially (FBI IC3, local authorities, regulators).
Consider legitimate blockchain forensics for deeper tracing—avoid unsolicited “recovery” offers promising quick fixes or upfront fees.
Blockchain investigation cannot reverse transactions, but it can provide critical visibility, generate credible evidence, and support meaningful next steps in the fight against crypto crime.
For more on forensic tracing methods and realistic guidance, visit https://www.crypterachainsignals.com/ or email info(a)crypterachainsignals.com.
In 2026, blockchain investigation turns the transparency of distributed ledgers into a tool for tracking stolen funds—offering clarity and, in viable cases, pathways to intervention that simply did not exist in earlier eras of digital finance.