Quantum Patent Trends: What Amazon, IBM, and Others Are Signaling About the Road Ahead
A deep dive into how quantum patents from Amazon, IBM, and others reveal platform strategy, infrastructure bets, and commercialization paths.
Patent activity is one of the clearest early signals in a fast-moving market like quantum computing. While product announcements and cloud demos show what a company can ship today, quantum patents reveal what it is trying to own tomorrow: the control plane, the error-correction stack, the hardware roadmap, the compiler layer, the networking fabric, and the commercial wedges that could turn research into revenue. That is why patent filings from Amazon, IBM, and their peers matter so much for anyone tracking quantum development platforms, vendor lock-in risk, and the shape of the broader ecosystem.
This deep dive examines patent trends as a leading indicator of platform direction, infrastructure bets, and commercialization strategy. It also connects those signals to market reality: a sector projected to expand sharply over the next decade, with broader investments in cloud, AI, and enterprise tooling shaping who wins the developer mindshare. For teams building around AI infrastructure demand and cloud-native workflows, quantum patent filings often map to the same strategic question: what layer of the stack becomes indispensable?
Pro Tip: If a company is patenting across hardware, control electronics, software orchestration, and error mitigation at once, it is usually signaling a platform ambition rather than a single-product play.
1. Why Quantum Patents Matter More Than Press Releases
Patents expose long-term intent
Quantum companies do not file patents randomly. A patent portfolio often reflects technical confidence, future product expectations, and the organizational priorities behind R&D budgets. When a company like IBM files patents around qubit control, calibration, cryogenic architecture, or quantum networking, it suggests more than a lab experiment: it implies a belief that those layers will become differentiators in the commercialization stack. For market watchers, patents are an especially useful tool because they tend to show up before revenue, before broad public roadmaps, and sometimes before formal product naming.
That makes patents especially valuable in an ecosystem where many announcements are still proof-of-concept oriented. Unlike headlines about benchmark results, patent filings can reveal which bottlenecks a company expects to solve at scale. They are a practical complement to reading research papers, platform roadmaps, and developer documentation. If you are also evaluating the operational side of new technology adoption, compare this lens with broader infrastructure guidance in all-in-one IT solutions and deploying field hardware, because the logic is similar: the stack direction shows up in engineering choices before it becomes marketing language.
Patents are strategic, not just legal
In quantum, IP is not merely about defense. It is about negotiating leverage, standards positioning, and ecosystem control. A broad patent estate can influence partnerships with cloud vendors, hardware suppliers, and government buyers who care about continuity and operating risk. It can also shape licensing opportunities, especially for components that become common across systems, such as calibration methods, control sequences, photonic circuit designs, or compilation optimizations.
Think of patents as a form of technical roadmap signaling. If a vendor patents around scalable modular hardware, it may be preparing for manufacturing and supply-chain transitions. If it focuses on error-correction workflows, it may be betting that near-term commercial value sits above the fault-tolerance threshold. If it patents orchestration and cloud access patterns, it may be optimizing for developer adoption and recurring platform usage. This is why patent data should be interpreted alongside product launch patterns, cloud availability, and partner ecosystems.
Patent trends are a proxy for commercialization maturity
In emerging technologies, commercialization rarely arrives all at once. It arrives in stages: research, pilot, managed access, cloud exposure, workflow integration, and eventually enterprise procurement. Patent activity helps reveal which stage a company is targeting. A deep focus on devices and packaging may point to a hardware scale-up strategy, while filings in compilation and application orchestration may point to a software-first strategy designed to capture enterprise users earlier.
That staging matters in a market where growth expectations are high. The quantum computing market is projected to rise from about $1.53 billion in 2025 to $18.33 billion by 2034, with North America holding a leading share. Forecasts like that do not guarantee winners, but they do explain why firms are trying to secure ownership over the layers most likely to define the next wave of value creation. For a useful lens on enterprise sizing and timing, see the economic impact of next-gen AI infrastructure and multi-cloud strategy transitions.
2. What Amazon’s Patent Footprint Suggests About Platform Strategy
Amazon tends to think in ecosystems
Amazon’s quantum strategy has historically been tied to Amazon Braket, cloud consumption, developer access, and marketplace-style orchestration rather than hardware ownership at all costs. That matters because patent activity from Amazon often reflects a platform operator’s mindset: reduce friction, abstract complexity, and keep the customer inside the cloud workflow. In practical terms, this means patents around scheduling, workload routing, hybrid quantum-classical integration, and access control can be more revealing than a single hardware patent.
Amazon’s position in the ecosystem is also reinforced by the fact that third-party hardware can be made available through its cloud layer. That model is commercially important because it lets Amazon monetize usage, integration, and developer workflow even when the underlying qubits belong to a partner. When you see that pattern, it is reasonable to infer that Amazon sees value not just in quantum performance, but in becoming the default distribution layer for quantum experimentation. For a related example of cloud-mediated access to hardware, the market context around Xanadu’s Borealis being available through Amazon Braket and Xanadu Cloud shows how cloud channels can amplify reach without requiring every vendor to build its own enterprise sales motion.
Look for patents around orchestration and integration
If Amazon’s filings cluster around hybrid workflow orchestration, resource allocation, queue optimization, and security boundaries, that would be consistent with a cloud-first commercialization path. Quantum today is still a workflow problem as much as it is a physics problem. Developers need data ingress, job submission, result retrieval, reproducibility, and monitoring that fit into existing enterprise tooling. Patents that strengthen these layers tell us Amazon wants to own the operational bridge between classical workloads and quantum experiments.
That bridge matters because most users will not run pure quantum applications end to end. They will use quantum services as one accelerator in a larger pipeline, alongside simulation, optimization, and ML tooling. The companies best positioned for that reality are usually the ones that make hybridization feel boring, safe, and automated. If that sounds familiar, it should: many enterprise cloud transitions follow the same pattern, which is why guides like HIPAA-ready cloud architectures and secure temporary file workflows remain useful analogies for quantum teams designing guarded data paths.
Commercial signal: minimize friction, maximize repeat usage
Amazon’s likely commercialization signal is not “own the best qubit,” but “own the easiest path to experiment, compare, and scale.” That is a powerful position because it aligns naturally with developer behavior. Teams often choose platforms that fit existing identity systems, cloud bills, DevOps patterns, and procurement workflows. Patent protection around these seams can help Amazon preserve its role as the trusted intermediary, even as hardware vendors change underneath.
This approach mirrors what we see in other infrastructure markets where the most valuable layer is the one closest to usage, not necessarily the one closest to the core technology. In quantum, the winning platform may be the one that can ingest multiple backends, automate benchmark comparison, and support enterprise compliance without forcing users to manage the physics themselves. For more on how buyers evaluate platform consolidation, see the SEO tool stack analogy, where tooling value is often determined by integration depth rather than a single feature.
3. IBM’s Patent Strategy and the Race to Own the Quantum Stack
IBM patents as roadmap scaffolding
IBM has long been one of the most visible and strategically consistent patent filers in quantum. That consistency matters because IBM is not just protecting inventions; it is shaping expectations about the future of enterprise quantum computing. Its patent portfolio can be read as scaffolding for a long-term stack that includes superconducting hardware, control systems, error mitigation, compilation, runtime management, and potentially networked quantum infrastructure. This breadth suggests IBM views quantum as a full-stack business, not a narrow hardware race.
That full-stack approach supports IBM’s broader developer strategy. If the company can own the path from code to circuit to cloud access, it gains leverage across adoption, performance tuning, and enterprise trust. In other words, IBM’s IP can help reinforce the idea that its platform is not just a place to run algorithms, but a place to build a repeatable quantum workflow. That is the kind of signal enterprise buyers watch closely, especially when comparing quantum development platforms and cloud ecosystems.
Hardware strategy and error correction are central clues
In IBM’s case, patent activity around hardware scaling, qubit connectivity, cryogenic integration, and error-correction methods is especially important. These are the technical domains that determine whether a system can move from experimental demonstrations to useful workloads. Filing in these areas suggests IBM is betting that the real commercial breakthrough will come not merely from more qubits, but from better system engineering. That distinction is crucial because many market observers still focus too much on qubit count instead of the broader operating envelope.
For enterprise planning, the more revealing question is whether the company is making patents around fault tolerance pathways, modular architectures, or practical runtime controls. Those areas can indicate whether IBM expects near-term revenue to come from access to advanced hardware, services layered on top of noisy intermediate-scale devices, or eventual fault-tolerant systems. For a broader framing of how infrastructure bets evolve into market demand, the parallel with AI infrastructure positioning is hard to miss: once the stack becomes expensive and scarce, control of the workflow becomes strategic.
IBM’s patent profile suggests enterprise trust as a moat
IBM’s longstanding enterprise presence gives it a different kind of advantage than startups or hyperscalers. It can combine patents with consulting, integration, and industry-specific delivery, which matters in sectors that care about long procurement cycles and operational risk. If IBM patents methods that make quantum jobs more auditable, composable, or resilient, that could strengthen its position with regulated buyers. Patent filings in this context are not simply technical claims; they are credibility assets.
This is where IBM’s strategy may converge with the needs of large organizations managing multi-vendor estates. Enterprise teams rarely want one exotic system; they want orchestration, governance, and the ability to slot quantum into broader modernization plans. That is why readers who follow multi-cloud environments often understand the quantum market faster than pure research audiences. The same procurement logic applies: control the interfaces, control the adoption path.
4. The Patents Everyone Should Watch: Hardware, Software, and Middleware
Hardware patents show where the bottlenecks are
Hardware-related filings are often the easiest to interpret because they point to concrete physical constraints. A patent on packaging, cryogenics, photonics, ion traps, superconducting control, or error suppression usually means the company is trying to solve a bottleneck that prevents scaling. In quantum, bottlenecks are everything. The difference between a laboratory prototype and a commercially useful machine often comes down to stability, connectivity, manufacturing yield, thermal management, and calibration overhead.
When vendors file heavily in hardware, they are signaling confidence that they can convert scientific progress into repeatable systems. But hardware patents alone do not guarantee platform leadership. The most important question is whether those hardware claims connect to software abstractions and cloud delivery, because customers need a usable interface to the machine. If you are tracking this from a buyer’s perspective, pair patent watching with practical platform research like our guide to choosing the right quantum development platform.
Software patents reveal the push toward abstraction
Software patents in quantum may be even more important than hardware patents over the next several years. That is because software determines how usable, portable, and reproducible quantum experiments become. Patents around transpilation, circuit optimization, noise-aware compilation, parameter binding, scheduling, and hybrid orchestration can indicate which company wants to become the preferred developer layer. This is where commercialization often accelerates, because software can be deployed faster and monetized more broadly than bespoke hardware.
In practical terms, software patents help create platform stickiness. If a company owns key abstractions that developers rely on, it can build switching costs even when multiple hardware backends exist. That means the commercial battleground may shift from “whose qubits are best?” to “whose runtime and developer experience is easiest to integrate?” The question resembles how teams choose among observability or automation tools: the winning product is often the one that fits into the workflow already in motion.
Middleware and interoperability are the quiet battleground
The least glamorous but potentially most valuable patent area is middleware: the layer between user code and quantum hardware. This includes job translation, error feedback, access control, telemetry, queue management, and hybrid workflow execution. Companies that secure IP in this layer can influence how enterprise teams interact with multiple hardware backends, which makes interoperability a strategic moat rather than a convenience feature. This is especially relevant as the ecosystem becomes more multi-vendor and cloud-mediated.
Interoperability also intersects with security, compliance, and vendor governance. Enterprises that already care about encryption, auditability, and data control will look for quantum platforms that behave like mature cloud services. That is one reason to study adjacent infrastructure topics such as encryption technologies and security and large-scale credential exposure, because quantum adoption will eventually be judged against the same trust standards as other sensitive workloads.
5. Commercialization Strategies Hidden in the IP Map
Licensing, not just product sales
Some quantum companies may never monetize purely through hardware sales. Instead, patents can support licensing, joint ventures, managed services, or cloud usage fees. This is particularly true for inventions that are broadly applicable across systems, such as calibration methods, compiler optimizations, and scheduling logic. In those cases, patents provide a way to monetize intellectual property whether or not the company owns the customer relationship end to end.
Licensing is important because the quantum ecosystem is still fragmented. Different hardware modalities, cloud platforms, and developer stacks mean no single vendor controls the full market. That fragmentation makes IP particularly valuable as a bargaining tool. It also means companies may use patents to shape standards and prevent commoditization before their commercial models mature.
Platform lock-in versus open ecosystems
A second commercialization strategy visible through patents is platform lock-in. Companies may patent around proprietary workflows, APIs, control planes, or error-handling loops that make their environment sticky. However, that approach must be balanced against developer adoption, because quantum developers often prefer flexibility and the ability to test across backends. Too much lock-in can slow community growth, while too little can make it harder to defend margins.
Many firms therefore pursue a hybrid model: open enough to attract experimentation, proprietary enough to protect the most valuable layers. Amazon’s cloud orientation and IBM’s enterprise stack both fit this pattern in different ways. If you want a practical framework for evaluating platform openness and workflow fit, revisit how to choose the right quantum development platform and compare it with enterprise cloud decision-making in multi-cloud strategy.
Market positioning follows the IP portfolio
Patent portfolios also shape external market perception. A broad, active portfolio can signal technical depth to investors, partners, and customers, especially in a market that still lacks a single dominant winner. It can also influence procurement by reassuring buyers that the vendor is investing in a durable roadmap rather than a temporary research program. In that sense, patents are as much a branding tool as a legal one.
That branding effect is especially important in a market projected to grow rapidly. As spending increases, buyers will look for evidence that vendors are not just publishing demos, but building sustainable commercial systems. IP provides one of the few measurable clues that a company is preparing for scale. This is why quantum news readers should treat patent filings like infrastructure telemetry: not perfect, but deeply informative when read in context.
6. How to Read Patent Filings Like an Analyst
Look for clusters, not isolated filings
One patent tells you little. A cluster tells you a strategy. If a company files around device control, control electronics, calibration, and software orchestration in the same period, that usually indicates a deliberate roadmap rather than random innovation. The same is true if a company repeatedly returns to the same problem from different angles, because that often means a technical bottleneck is consuming significant R&D attention. Analysts should track whether filings converge on one stack layer or spread across the entire stack.
Cluster analysis can also reveal whether a company is preparing for productization or simply protecting exploratory research. Productization-oriented portfolios often show a tighter relationship between filings and platform launches. Exploratory portfolios may be broader but less operational. Either way, the pattern matters more than the individual patent abstract.
Map patents to product surfaces
The most useful way to analyze quantum patents is to map them to product surfaces. Ask whether a filing touches the hardware package, the user API, the runtime, the cloud console, the workflow engine, the security layer, or the benchmark layer. That gives you a cleaner picture of how a company expects customers to interact with the technology. It also clarifies which features are likely to become differentiators in the next product cycle.
For example, a patent around workload routing might tell you that multi-backend access will become a core product feature. A patent around calibration may hint at better uptime or reliability. A filing around error mitigation could suggest the company expects near-term value from noisy hardware rather than waiting for perfect fault tolerance. This kind of analysis is especially useful for developers and IT leaders who need to choose a platform with a stable roadmap, not just the strongest marketing pitch.
Combine patent analysis with market and hiring signals
Patents should not be read in isolation. Combine them with funding, cloud availability, hiring patterns, conference talks, and developer documentation. If a company is patenting aggressively in a given area and hiring engineers with matching expertise, that is a stronger signal than patents alone. Likewise, if patents align with cloud releases or public SDK improvements, the signal becomes even more credible.
The ecosystem around quantum resembles other infrastructure markets where product strategy, hiring, and customer adoption move together. A company expanding its developer-facing stack may also invest in documentation, tutorials, and channel partnerships, just as enterprise software vendors do. For a useful analogy on how companies build user trust through workflow design, see tool stack audits and IT productivity systems, which show how platform maturity becomes visible in the surrounding ecosystem.
7. What This Means for Developers, Buyers, and Enterprise Teams
Developers should watch for portability
For developers, patent trends matter because they hint at where platforms may become easier—or harder—to move. If a vendor is patenting heavily around proprietary runtime behavior, developers may face tighter coupling over time. If it is patenting abstractions that enable portability and backend switching, that could be a sign of a more open ecosystem strategy. Developers who want to future-proof their skills should prioritize workflow concepts that translate across vendors: circuit construction, transpilation, benchmarking, error analysis, and hybrid orchestration.
That is why practical education still matters. The best way to avoid being trapped by a single vendor’s roadmap is to understand the common layer beneath the marketing. Readers who want a hands-on entry point should pair this article with our quantum platform selection guide and consider how cloud and security principles in enterprise architecture apply to quantum workflows.
Buyers should interpret patents as roadmap evidence
Enterprise buyers often need to make decisions before the technology is fully mature. In that environment, patents become part of due diligence. They help answer whether a vendor is investing in scale, reliability, or merely publicity. A strong patent footprint does not guarantee success, but it does reduce the chance that a vendor is underinvesting in the hard problems.
Buyers should also consider the commercialization model implied by the portfolio. A cloud-first patent strategy may support lower-friction pilots, while a hardware-heavy strategy may suggest a longer path to operationalization but stronger performance potential later on. That distinction matters for budgeting, procurement, and roadmap planning. It is similar to deciding whether to adopt a managed cloud service or build internal infrastructure, as seen in broader multi-cloud management decisions.
Investors should ask what the patents protect
For investors, the key question is not how many patents a company has, but what business model those patents enable. Do they protect a defensible hardware moat, a sticky cloud layer, a licensing opportunity, or a standards position? The answer affects margin potential, go-to-market complexity, and the likelihood of ecosystem adoption. Patent quality and strategic fit matter far more than raw counts.
That is especially true in a market where hype can outrun deployment. The quantum sector is expected to grow quickly, but value creation will still depend on customer adoption, technical milestones, and integration into practical workflows. If you can read patents alongside market growth data, cloud signals, and R&D staffing, you will have a much clearer view of who is building a durable position and who is merely participating in the narrative.
8. A Practical Comparison of Quantum Patent Signals
The table below summarizes how different patent patterns tend to map to strategic intent. It is not a scorecard, but a useful lens for interpreting filings from Amazon, IBM, and other major players.
| Patent Focus | Likely Strategic Signal | Commercialization Implication | What to Watch Next |
|---|---|---|---|
| Hardware scaling and packaging | Confidence in physical system roadmap | Longer-term moat, higher capex intensity | Manufacturing partnerships, modular designs |
| Error correction and mitigation | Readiness to tackle noisy hardware limits | Near-term utility from imperfect systems | Runtime improvements, benchmark gains |
| Compiler and transpilation methods | Developer abstraction strategy | Sticky software layer and platform lock-in | SDK updates, backend support |
| Cloud orchestration and scheduling | Platform distribution ambition | Usage-based monetization and ecosystem control | Braket-like integrations, console workflows |
| Quantum networking and interconnects | Future platform expansion into distributed systems | Standards influence and infrastructure leadership | Partner labs, remote-node testing |
| Security, auditing, and governance | Enterprise trust and regulated adoption | Buyer confidence and procurement readiness | Compliance features, identity integration |
9. The Bigger Picture: IP Trends as Market Positioning Signals
Patent intensity usually rises before product maturity
In emerging platforms, patent activity often accelerates when companies believe the market is approaching a more commercial phase. That does not mean the technology is ready for mass deployment, but it does mean firms are trying to own the next layer of differentiation before it becomes commoditized. Quantum appears to be in that zone now: still early, but no longer purely academic. The filing behavior we see from Amazon, IBM, and others suggests increasing confidence that practical value will come from integration, orchestration, and platform control.
This is consistent with broader market signals, including rapid projected growth and increasing enterprise interest. When the market becomes more legible to buyers, IP becomes more valuable because it helps define what is unique. For organizations planning their next move, the lesson is simple: follow the patents to understand where vendors think the durable value will live. Then cross-check those signals with infrastructure economics and AI infrastructure positioning to understand the capital dynamics behind the strategy.
Quantum commercialization will likely be layered
The most likely path to commercialization is not a single breakthrough that instantly makes quantum useful for everything. It is a layered market where different companies win different parts of the stack: hardware, cloud access, compiler tooling, application workflows, services, and compliance. Patents are the breadcrumbs that show which layers a company wants to defend. Amazon may lean toward cloud distribution and orchestration; IBM may lean toward system-wide engineering and enterprise trust; others may specialize in photonics, neutral atoms, superconducting systems, or software abstractions.
That layered view is healthy for the ecosystem. It creates room for partnerships, interoperability, and differentiated go-to-market strategies. It also means that the smartest buyers will not look for a single “best” quantum vendor. They will look for the vendor whose patent map most closely matches their own timeline, risk tolerance, and workflow needs.
What to do with this signal today
If you are a developer, focus on transferable skills and backend-agnostic abstractions. If you are an IT or platform leader, treat patent analysis like roadmap due diligence. If you are a product or strategy team, use patents to predict where pricing power may emerge. And if you are tracking the market as a whole, remember that patents are useful because they show where companies believe the bottlenecks and opportunities are hiding.
The quantum market is moving from “what is possible?” to “what can be made reliable, repeatable, and commercial?” Patent activity is one of the best clues available for answering that question. It will not tell you everything, but it often tells you enough to stay ahead of the next strategic turn.
10. FAQ: Quantum Patent Trends and Commercial Strategy
Are quantum patents a reliable indicator of future products?
Yes, but only when you read them in context. A single patent may describe exploratory research, while a cluster of related filings often points to an actual platform direction. The best signal comes when patents align with hiring, cloud launches, SDK updates, and conference presentations. That combination usually means the company is preparing to operationalize the technology rather than just study it.
Why do Amazon and IBM matter so much in quantum patent analysis?
They matter because they represent two different commercialization philosophies. Amazon is strongly associated with cloud distribution and platform access, while IBM has built a long-running enterprise and hardware engineering presence. Their patent strategies can reveal whether the future will be shaped more by cloud orchestration, full-stack hardware control, or hybrid approaches that combine both.
Should buyers worry about patent-heavy vendors becoming too closed?
Sometimes, yes. Heavy patenting around APIs, runtimes, or workflow abstractions can signal a move toward platform lock-in. That is not always bad if the platform is clearly better and the vendor is trustworthy, but it does raise switching-cost questions. Buyers should ask how portable their workloads, data, and workflows will remain if the roadmap changes.
Which patent categories are most important right now?
The most important categories are hardware scaling, error correction, compiler optimization, cloud orchestration, and security/governance. Those areas determine whether quantum systems can move from demonstrations to repeatable enterprise value. Middleware and interoperability are especially important because they shape how easily teams can use multiple backends without rebuilding everything.
How should developers use patent information?
Developers should use it to understand platform direction and skill durability. If a vendor is filing heavily in a specific area, that area may become central to the developer experience in the next product cycle. That can help developers choose which SDKs, abstractions, and workflows are worth learning deeply.
Do patents guarantee commercialization success?
No. Patents are a signal, not a guarantee. A strong portfolio can support commercialization, but execution still depends on engineering quality, customer adoption, cloud reliability, and market timing. The strongest companies will have patents that match a clear business model and a credible path to deployment.
Conclusion: Read the IP, Read the Roadmap
Quantum patent trends are one of the most valuable underused tools for understanding where the ecosystem is headed. Amazon’s likely cloud-centric filings suggest a future defined by access, orchestration, and platform convenience. IBM’s more expansive patent posture suggests a deep bet on full-stack engineering, enterprise trust, and system-level control. Other companies will continue to specialize, but the broad direction is clear: commercialization will be won by those who can turn scientific progress into usable infrastructure.
For developers, that means focusing on workflow fundamentals and backend portability. For buyers, it means treating patents as part of roadmap due diligence. For strategists, it means looking beyond qubit counts and asking which layer of the stack is being protected most aggressively. To keep building your market map, explore our quantum platform guide, review platform tooling audits, and compare the signals with multi-cloud strategies and secure enterprise architecture patterns. In a market still defining its winners, patent intelligence is not optional—it is one of the few early indicators that can help you see the road ahead.
Related Reading
- The Economic Impact of Next-Gen AI Infrastructure - A useful lens for understanding how capital follows platform control.
- AI Infrastructure Demand: How to Position Your Business for 2026 - Connects demand curves to infrastructure buying behavior.
- Exploring the Connection Between Encryption Technologies and Credit Security - Helpful for thinking about trust, compliance, and secure quantum workflows.
- Boosting Productivity: Exploring All-in-One Solutions for IT Admins - Shows how operational simplicity drives adoption.
- Building a Secure Temporary File Workflow for HIPAA-Regulated Teams - A practical guide to controlled data movement in sensitive environments.
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Marcus Ellery
Senior SEO Editor
Senior editor and content strategist. Writing about technology, design, and the future of digital media. Follow along for deep dives into the industry's moving parts.
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