Amazon Web Services (AWS) recently released a new whitepaper, Overview of the AWS European Sovereign Cloud, available in English, German, and French, detailing the planned design and goals of this new infrastructure. The AWS European Sovereign Cloud is a new, independent cloud for Europe, designed to help public sector organizations and customers in highly regulated industries meet their evolving sovereignty and compliance needs. This effort, backed by a €7.8 billion investment in infrastructure, jobs creation, and skills development, will launch its first AWS Region in the State of Brandenburg, Germany by the end of 2025.
This whitepaper provides a broad overview of the AWS European Sovereign Cloud highlighting how AWS is helping customers achieve their sovereignty requirements while benefitting from access to the full power of AWS.
Key aspects covered in the whitepaper include:
Infrastructure – Dedicated physical infrastructure with multiple Availability Zones, following the established AWS Regional model approach
Logical isolation – Logical separation from existing AWS Regions, with independent billing, account, and identity systems
Operational control – Measures to help assure independent operation of the AWS European Sovereign Cloud, including staffing requirements
Data sovereignty – Design that helps make sure customer content and customer-created metadata remain within EU boundaries unless customers choose otherwise
Corporate governance – A distinct corporate structure under EU law, with EU nationals serving as managing directors and an independent advisory board
Approach to law enforcement requests – The technical, operational, and legal measures implemented to help protect customer data and manage law enforcement requests
The whitepaper describes how these elements work together to deliver sovereign control and operational autonomy of our expansive service portfolio to meet Europe’s digital sovereignty needs. The AWS European Sovereign Cloud will be the only fully featured, independently operated sovereign cloud backed by strong technical controls, sovereign assurances, and legal protections designed to meet the needs of European governments and enterprises. Customers and partners using the AWS European Sovereign Cloud will benefit from the full power of AWS including the same service portfolio, security, availability, performance, architecture, APIs, and innovations such as the AWS Nitro System.
We have already made—and will continue to make—new investments in the design, development, and operation of the AWS European Sovereign Cloud. We are building on the strong foundation that has underpinned AWS services for years, including our long standing commitment to customer control over data residency, our design principal of strong regional isolation, our deep European engineering roots, and our more than a decade of experience operating multiple independent clouds for the most critical and restricted workloads.
The Internet is in the midst of one of the most complex transitions in its history: the migration to post-quantum (PQ) cryptography. Making a system safe against quantum attackers isn’t just a matter of replacing elliptic curves and RSA with PQ alternatives, such as ML-KEM and ML-DSA. These algorithms have higher costs than their classical counterparts, making them unsuitable as drop-in replacements in many situations.
Nevertheless, we’re making steady progress on the most important systems. As of this writing, about 50% of TLS connections to Cloudflare’s edge are safe against store-now/harvest-later attacks. Quantum safe authentication is further out, as it will require more significant changes to how certificates work. Nevertheless, this year we’ve taken a major step towards making TLS deployable at scale with PQ certificates.
That said, TLS is only the lowest hanging fruit. There are many more ways we have come to rely on cryptography than key exchange and authentication and which aren’t as easy to migrate. In this blog post, we’ll take a look at Anonymous Credentials (ACs).
ACs solve a common privacy dilemma: how to prove a specific fact (for example that one has had a valid driver’s license for more than three years) without over-sharing personal information (like the place of birth)? Such problems are fundamental to a number of use cases, and ACs may provide the foundation we need to make these applications as private as possible.
Just like for TLS, the central question for ACs is whether there are drop-in, PQ replacements for its classical primitives that will work at the scale required, or will it be necessary to re-engineer the application to mitigate the cost of PQ.
We’ll take a stab at answering this question in this post. We’ll focus primarily on an emerging use case for ACs described in a concurrent post: rate-limiting requests from agentic AI platforms and users. This demanding, high-scale use case is the perfect lens through which to evaluate the practical readiness of today’s post-quantum research. We’ll use it as our guiding problem to measure each cryptographic approach.
We’ll first explore the current landscape of classical AC adoption across the tech industry and the public sector. Then, we’ll discuss what cryptographic researchers are currently looking into on the post-quantum side. Finally, we’ll take a look at what it’ll take to bridge the gap between theory and real-world applications.
While anonymous credentials are only seeing their first real-world deployments in recent years, it is critical to start thinking about the post-quantum challenge concurrently. This isn’t a theoretical, too-soon problem given the store-now decrypt-later threat. If we wait for mass adoption before solving post-quantum anonymous credentials, ACs risk being dead on arrival. Fortunately, our survey of the state of the art shows the field is close to a practical solution. Let’s start by reviewing real-world use-cases of ACs.
Real world (classical) anonymous credentials
In 2026, the European Union is set to launch its digital identity wallet, a system that will allow EU citizens, residents and businesses to digitally attest to their personal attributes. This will enable them, for example, to display their driver’s license on their phone or perform ageverification. Cloudflare’s use cases for ACs are a bit different and revolve around keeping our customers secure by, for example, rate limiting bots and humans as we currently do with Privacy Pass. The EU wallet is a massive undertaking in identity provisioning, and our work operates at a massive scale of traffic processing. Both initiatives are working to solve a shared fundamental problem: allowing an entity to prove a specific attribute about themselves without compromising their privacy by revealing more than they have to.
The EU’s goal is a fully mobile, secure, and user-friendly digital ID. The current technical plan is ambitious, as laid out in the Architecture Reference Framework (ARF). It defines the key privacy goals of unlinkability to guarantee that if a user presents attributes multiple times, the recipients cannot link these separate presentations to conclude that they concern the same user. However, currently proposed solutions fail to achieve this. The framework correctly identifies the core problem: attestations contain unique, fixed elements such as hash values, […], public keys, and signatures that colluding entities could store and compare to track individuals.
In its present form, the ARF’s recommendation to mitigate cross-session linkability is limited-time attestations. The framework acknowledges in the text that this would only partially mitigate Relying Party linkability. An alternative proposal that would mitigate linkability risks are single-use credentials. They are not considered at the moment due to complexity and management overhead. The framework therefore leans on organisational and enforcement measures to deter collusion instead of providing a stronger guarantee backed by cryptography.
This reliance on trust assumptions could become problematic, especially in the sensitive context of digital identity. When asked for feedback, cryptographic researchers agree that the proper solution would be to adopt anonymous credentials. However, this solution presents a long-term challenge. Well-studied methods for anonymous credentials, such as those based on BBS signatures, are vulnerable to quantum computers. While some anonymousschemes are PQ-unlinkable, meaning that user privacy is preserved even when cryptographically relevant quantum computers exist, new credentials could be forged. This may be an attractive target for, say, a nation state actor.
New cryptography also faces deployment challenges: in the EU, only approved cryptographic primitives, as listed in the SOG-IS catalogue, can be used. At the time of writing, this catalogue is limited to established algorithms such as RSA or ECDSA. But when it comes to post-quantum cryptography, SOG-IS is leaving the problem wide open.
The wallet’s first deployment will not be quantum-secure. However, with the transition to post-quantum algorithms being ahead of us, as soon as 2030 for high-risk use cases per the EU roadmap, research in a post-quantum compatible alternative for anonymous credentials is critical. This will encompassstandardizing more cryptography.
Finally, ongoing efforts at the Internet Engineering Task Force (IETF)aimto build a more private Internet by standardizing advanced cryptographic techniques. Active individual drafts (i.e., not yet adopted by a working group), such as Longfellow and Anonymous Credit Tokens (ACT), and adopted drafts like Anonymous Rate-limited Credentials (ARC), propose more flexible multi-show anonymous credentials that incorporate developments over the last several years. At IETF 117 in 2023, post-quantum anonymous credentials and deployable generic anonymous credentials were presented as a research opportunity. Check out our post on rate limiting agents for details.
Before we get into the state-of-the-art for PQ, allow us to try to crystalize a set of requirements for real world applications.
Requirements
Given the diversity of use cases, adoption of ACs will be made easier by the fact that they can be built from a handful of powerful primitives. (More on this in our concurrent post.) As we’ll see in the next section, we don’t yet have drop-in, PQ alternatives for these kinds of primitives. The “building blocks” of PQ ACs are likely to look quite different, and we’re going to know something about what we’re building towards.
For our purposes, we can think of an anonymous credential as a kind of fancy blind signature. What’s that you ask? A blind signature scheme has two phases: issuance, in which the server signs a message chosen by the client; and presentation, in which the client reveals the message and the signature to the server. The scheme should be unlinkable in the sense that the server can’t link any message and signature to the run of the issuance protocol in which it was produced. It should also be unforgeable in the sense that no client can produce a valid signature without interacting with the server.
The key difference between ACs and blind signatures is that, during presentation of an AC, the client only presents part of the message in plaintext; the rest of the message is kept secret. Typically, the message has three components:
Private state, such as a counter that, for example, keeps track of the number of times the credential was presented. The client would prove to the server that the state is “valid”, for example, a counter with value $0 \leq C \leq N$, without revealing $C$. In many situations, it’s desirable to allow the server to update this state upon successful presentation, for example, by decrementing the counter. In the context of rate limiting, this is the number of how many requests are left for a credential.
A random value called the nullifier that is revealed to the server during presentation. In rate-limiting, the nullifier prevents a user from spending a credential with a given state more than once.
Public attributes known to both the client and server that bind the AC to some application context. For example, this might represent the window of time in which the credential is valid (without revealing the exact time it was issued).
Such ACs are well-suited for rate limiting requests made by the client. Here the idea is to prevent the client from making more than some maximum number of requests during the credential’s lifetime. For example, if the presentation limit is 1,000 and the validity window is one hour, then the clients can make up to 0.27 requests/second on average before it gets throttled.
It’s usually desirable to enforce rate limits on a per-origin basis. This means that if the presentation limit is 1,000, then the client can make at most 1,000 requests to any website that can verify the credential. Moreover, it can do so safely, i.e., without breaking unlinkability across these sites.
The current generation of ACs being considered for standardization at IETF are only privately verifiable, meaning the server issuing the credential (the issuer) must share a private key with the server verifying the credential (the origin). This will be sufficient for some deployment scenarios, but many will require public verifiability, where the origin only needs the issuer’s public key. This is possible with BBS-based credentials, for example.
Finally, let us say a few words about round complexity. An AC is round optimal if issuance and presentation both complete in a single HTTP request and response. In our survey of PQ ACs, we found a number of papers that discovered neat tricks that reduce bandwidth (the total number of bits transferred between the client and server) at the cost of additional rounds. However, for use cases like ours, round optimality is an absolute necessity, especially for presentation. Not only do multiple rounds have a high impact on latency, they also make the implementation far more complex.
Within these constraints, our goal is to develop PQ ACs that have as low communication cost (i.e., bandwidth consumption) and runtime as possible in the context of rate-limiting.
“Ideal world” (PQ) anonymous credentials
The academic community has produced a number of promising post-quantum ACs. In our survey of the state of the art, we evaluated several leading schemes, scoring them on their underlying primitives and performance to determine which are truly ready for the Internet. To understand the challenges, it is essential to first grasp the cryptographic building blocks used in ACs today. We’ll now discuss some of the core concepts that frequently appear in the field.
Relevant cryptographic paradigms
Zero-knowledge proofs
Zero-knowledge proofs (ZKPs) are a cryptographic protocol that allows a prover to convince a verifier that a statement is true without revealing the secret information, or witness. ZKPs play a central role in ACs: they allow proving statements of the secret part of the credential’s state without revealing the state itself. This is achieved by transforming the statement into a mathematical representation, such as a set of polynomial equations over a finite field. The prover then generates a proof by performing complex operations on this representation, which can only be completed correctly if they possess the valid witness.
General-purpose ZKP systems, like Scalable Transparent Arguments of Knowledge (STARKs), can prove the integrity of any computation up to a certain size. In a STARK-based system, the computational trace is represented as a set of polynomials. The prover then constructs a proof by evaluating these polynomials and committing to them using cryptographic hash functions. The verifier can then perform a quick probabilistic check on this proof to confirm that the original computation was executed correctly. Since the proof itself is just a collection of hashes and sampled polynomial values, it is secure against quantum computers, providing a statistically sound guarantee that the claimed result is valid.
Cut-and-Choose
Cut-and-choose is a cryptographic technique designed to ensure a prover’s honest behaviour by having a verifier check a random subset of their work. The prover first commits to multiple instances of a computation, after which the verifier randomly chooses a portion to be cut open by revealing the underlying secrets for inspection. If this revealed subset is correct, the verifier gains high statistical confidence that the remaining, un-opened instances are also correct.
This technique is important because while it is a generic tool used to build protocols secure against malicious adversaries, it also serves as a crucial case study. Its security is not trivial; for example, practical attacks on cut-and-choose schemes built with (post-quantum) homomorphic encryption have succeeded by attacking the algebraic structure of the encoding, not the encryption itself. This highlights that even generic constructions must be carefully analyzed in their specific implementation to prevent subtle vulnerabilities and information leaks.
Sigma Protocols
Sigma protocols follow a more structured approach that does not require us to throw away any computations. The three-move protocol starts with a commitment phase where the prover generates some randomness, which is added to the input to generate the commitment, and sends the commitment to the verifier. Then, the verifier challenges the prover with an unpredictable challenge. To finish the proof, the prover provides a response in which they combine the initial randomness with the verifier’s challenge in a way that is only possible if the secret value, such as the solution to a discrete logarithm problem, is known.
Depiction of a Sigma protocol flow, where the prover commits to their witness $w$, the verifier challenges the prover to prove knowledge about $w$, and the prover responds with a mathematical statement that the verifier can either accept or reject.
In practice, the prover and verifier don’t run this interactive protocol. Instead, they make it non-interactive using a technique known as the Fiat-Shamir transformation. The idea is that the prover generates the challenge itself, by deriving it from its own commitment. It may sound a bit odd, but it works quite well. In fact, it’s the basis of signatures like ECDSA and even PQ signatures like ML-DSA.
MPC in the head
Multi-party computation (MPC) is a cryptographic tool that allows multiple parties to jointly compute a function over their inputs without revealing their individual inputs to the other parties. MPC in the Head (MPCitH) is a technique to generate zero-knowledge proofs by simulating a multi-party protocol in the head of the prover.
The prover simulates the state and communication for each virtual party, commits to these simulations, and shows the commitments to the verifier. The verifier then challenges the prover to open a subset of these virtual parties. Since MPC protocols are secure even if a minority of parties are dishonest, revealing this subset doesn’t leak the secret, yet it convinces the verifier that the overall computation was correct.
This paradigm is particularly useful to us because it’s a flexible way to build post-quantum secure ZKPs. MPCitH constructions build their security from symmetric-key primitives (like hash functions). This approach is also transparent, requiring no trusted setup. While STARKs share these post-quantum and transparent properties, MPCitH often offers faster prover times for many computations. Its primary trade-off, however, is that its proofs scale linearly with the size of the circuit to prove, while STARKs are succinct, meaning their proof size grows much slower.
Rejection sampling
When a randomness source is biased or outputs numbers outside the desired range, rejection sampling can correct the distribution. For example, imagine you need a random number between 1 and 10, but your computer only gives you random numbers between 0 and 255. (Indeed, this is the case!) The rejection sampling algorithm calls the RNG until it outputs a number below 11 and above 0:
Calling the generator over and over again may seem a bit wasteful. An efficient implementation can be realized with an eXtendable Output Function (XOF). A XOF takes an input, for example a seed, and computes an arbitrarily-long output. An example is the SHAKE family (part of the SHA3 standard), and the recently proposed round-reduced version of SHAKE called TurboSHAKE.
Let’s imagine you want to have three numbers between 1 and 10. Instead of calling the XOF over and over, you can also ask the XOF for several bytes of output. Since each byte has a probability of 3.52% to be in range, asking the XOF for 174 bytes is enough to have a greater than 99% chance of finding at least three usable numbers. In fact, we can be even smarter than this: 10 fits in four bits, so we can split the output bytes into lower and higher nibbles. The probability of a nibble being in the desired range is now 56.4%:
Rejection sampling by batching queries.
Rejection sampling is a part of many cryptographic primitives, including many we’ll discuss in the schemes we look at below.
Building post-quantum ACs
Classical anonymous credentials (ACs), such as ARC and ACT, are built from algebraic groups- specifically, elliptic curves, which are very efficient. Their security relies on the assumption that certain mathematical problems over these groups are computationally hard. The premise of post-quantum cryptography, however, is that quantum computers can solve these supposedly hard problems. The most intuitive solution is to replace elliptic curves with a post-quantum alternative. In fact, cryptographers have been working on a replacement for a number of years: CSIDH.
This raises the key question: can we simply adapt a scheme like ARC by replacing its elliptic curves with CSIDH? The short answer is no, due to a critical roadblock in constructing the necessary zero-knowledge proofs. While we can, in theory, build the required Sigma protocols or MPC-in-the-Head (MPCitH) proofs from CSIDH, they have a prerequisite that makes them unusable in practice: they require a trusted setup to ensure the prover cannot cheat. This requirement is a non-starter, as no algorithm for performing a trusted setup in CSIDH exists. The trusted setup for sigma protocols can be replaced by a combination of generic techniques from multi-party computation and cut-and-choose protocols, but that adds significant computation cost to the already computationally expensive isogeny operations.
This specific difficulty highlights a more general principle. The high efficiency of classical credentials like ARC is deeply tied to the rich algebraic structure of elliptic curves. Swapping this component for a post-quantum alternative, or moving to generic constructions, fundamentally alters the design and its trade-offs. We must therefore accept that post-quantum anonymous credentials cannot be a simple “lift-and-shift” of today’s schemes. They will require new designs built from different cryptographic primitives, such as lattices or hash functions.
Prefabricated schemes from generic approaches
At Cloudflare, we explored a post-quantum privacy pass construction in 2023 that closely resembles the functionality needed for anonymous credentials. The main result is a generic construction that composes separate, quantum-secure building blocks: a digital signature scheme and a general-purpose ZKP system:
The figure shows a cryptographic protocol divided into two main phases: (1.) Issuance: The user commits to a message (without revealing it) and sends the commitment to the server. The server signs the commitment and returns this signed commitment, which serves as a token. The user verifies the server’s signature. (2.) Redemption: To use the token, the user presents it and constructs a proof. This proof demonstrates they have a valid signature on the commitment and opens the commitment to reveal the original message. If the server validates the proof, the user and server continue (e.g., to access a rate-limited origin).
The main appeal of this modular design is its flexibility. The experimental implementation uses a modified version of the signature ML-DSA signatures and STARKs, but the components can be easily swapped out. The design provides strong, composable security guarantees derived directly from the underlying parts. A significant speedup for the construction came from replacing the hash function SHA3 in ML-DSA with the zero-knowledge friendly Poseidon.
However, the modularity of our post-quantum Privacy Pass construction incurs a significant performance overhead demonstrated in a clear trade-off between proof generation time and size: a fast 300 ms proof generation requires a large 173 kB signature, while a 4.8s proof generation time cuts the size of the signature nearly in half. A balanced parameter set, which serves as a good benchmark for any dedicated solution to beat, took 660 ms to sign and resulted in a 112 kB signature. The implementation is currently a proof of concept, with perhaps some room for optimization. Alternatively, a different signature like FN-DSA could offer speed improvements: while its issuance is more complex, its verification is far more straightforward, boiling down to a simple hash-to-lattice computation and a norm check.
However, while this construction gives a functional baseline, these figures highlight the performance limitations for a real-time rate limiting system, where every millisecond counts. The 660 ms signing time strongly motivates the development of dedicated cryptographic constructions that trade some of the modularity for performance.
Solid structure: Lattices
Lattices are a natural starting point when discussing potential post-quantum AC candidates. NIST standardized ML-DSA and ML-KEM as signature and KEM algorithms, both of which are based on lattices. So, are lattices the answer to post-quantum anonymous credentials?
The answer is a bit nuanced. While explicit anonymous credential schemes from lattices exist, they have shortcomings that prevent real-world deployment: for example, a recent scheme sacrifices round-optimality for smaller communication size, which is unacceptable for a service like Privacy Pass where every second counts. Given that our RTT is 100ms or less for the majority of users, each extra communication round adds tangible latency especially for those on slower Internet connections. When the final credential size is still over 100 kB, the trade-offs are hard to justify. So, our search continues. We expand our horizon by looking into blind signatures and whether we can adapt them for anonymous credentials.
Two-step approach: Hash-and-sign
A prominent paradigm in lattice-based signatures is the hash-and-sign construction. Here, the message is first hashed to a point in the lattice. Then, the signer uses their secret key, a lattice trapdoor, to generate a vector that, when multiplied with the private key, evaluates to the hashed point in the lattice. This is the core mechanism behind signature schemes like FN-DSA.
Adapting hash-and-sign for blind signatures is tricky, since the signer may not learn the message. This introduces a significant security challenge: If the user can request signatures on arbitrary points, they can mount an attack to extract the trapdoor by repeatedly requesting signatures for carefully chosen arbitrary points. These points can be used to reconstruct a short basis, which is equivalent to a key recovery.
The standard defense against this attack is to require the user to prove in zero-knowledge that the point they are asking to be signed is the blinded output of the specified hash function. However, proving hash preimages leads to the same problem as in the generic post-quantum privacy pass paper: proving a conventional hash function (like SHA3) inside a ZKP is computationally expensive and has a large communication complexity.
This difficult trade-off is at the heart of recent academic work. The state-of-the-art paper presents two lattice-based blind signature schemes with small signature sizes of 22 KB for a signature and 48 kB for a privately-verifiable protocol that may be more useful in a setting like anonymous credential. However, this focus on the final signature size comes at the cost of an impractical issuance. The user must provide ZKPs for the correct hash and lattice relations that, by the paper’s own analysis, can add to several hundred kilobytes and take 20 seconds to generate and 10 seconds to verify.
While these results are valuable for advancing the field, this trade-off is a significant barrier for any large-scale, practical system. For our use case, a protocol that increases the final signature size moderately in exchange for a more efficient and lightweight issuance process would be a more suitable and promising direction.
Best of two signatures: Hash-and-sign with aborts
A promising technique for blind signatures combines the hash-and-sign paradigm with Fiat-Shamir with aborts, a method that relies on rejection sampling signatures. In this approach, the signer repeatedly attempts to generate a signature and aborts any result that may leak information about the secret key. This process ensures the final signature is statistically independent of the key and is used in modern signatures like ML-DSA. The Phoenix signature scheme uses hash-and-sign with aborts, where a message is first hashed into the lattice and signed, with rejection sampling employed to break the dependency between the signature and the private key.
Building on this foundation is an anonymous credential scheme for hash-and-sign with aborts. The main improvement over hash-and-sign anonymous credentials is that, instead of proving the validity of a hash, the user commits to their attributes, which avoids costly zero-knowledge proofs.
The scheme is fully implemented and credentials with attribute proofs just under 80 KB and signatures under 7 kB. The scheme takes less than 400 ms for issuance and 500 ms for showing the credential. The protocol also has a lot of features necessary for anonymous credentials, allowing users to prove relations between attributes and request pseudonyms for different instances.
This research presents a compelling step towards real-world deployability by combining state-of-the-art techniques to achieve a much healthier balance between performance and security. While the underlying mathematics are a bit more complex, the scheme is fully implemented and with a proof of knowledge of a signature at 40 kB and a prover time under a second, the scheme stands out as a great contender. However, for practical deployment, these figures would likely need a significant speedup to be usable in real-time systems. An improvement seems plausible, given recent advances in lattice samplers. Though the exact scale we can achieve is unclear. Still, we think it would be worthwhile to nudge the underlying design paradigm a little closer to our use cases.
Do it yourself: MPC-in-the-head
While the lattice-based hash-and-sign with aborts scheme provides one path to post-quantum signatures, an alternative approach is emerging from the MPCitH variant VOLE-in-the-Head (VOLEitH).
This scheme builds on Vector Oblivious Linear Evaluation (VOLE), an interactive protocol where one party’s input vector is processed with another’s secret value delta, creating a correlation. This VOLE correlation is used as a cryptographic commitment to the prover’s input. The system provides a zero-knowledge proof because the prover is bound by this correlation and cannot forge a solution without knowing the secret delta. The verifier, in turn, just has to verify that the final equation holds when the commitment is opened. This system is linearly homomorphic, which means that two commitments can be combined. This property is ideal for the commit-and-prove paradigm, where the prover first commits to the witnesses and then proves the validity of the circuit gate by gate. The primary trade-off is that the proofs are linear in the size of the circuit, but they offer substantially better runtimes. We also use linear-sized proofs for ARC and ACT.
Example of evaluating a circuit gate by first committing to each wire and then proving the composition. This is easy for linear gates.
This commit-and-prove approach allows VOLEitH to efficiently prove the evaluation of symmetric ciphers, which are quantum-resistant. The transformation to a non-interactive protocol follows the standard MPCitH method: the prover commits to all secret values, a challenge is used to select a subset to reveal, and the prover proves consistency.
Efficient implementations operate over two mathematical fields (binary and prime) simultaneously, allowing these ZK circuits to handle both arithmetic and bitwise functions (like XORs) efficiently. Based on this foundation, a recent talk teased the potential for blind signatures from the multivariate quadratic signature scheme MAYO with sizes of just 7.5 kB and signing/verification times under 50 ms.
The VOLEitH approach, as a general-purpose solution system, represents a promising new direction for performant constructions. There are a numberofcompetingin-the-head schemes in the NIST competition for additional signature schemes, including one based on VOLEitH. The current VOLEitH literature focuses on high-performance digital signatures, and an explicit construction for a full anonymous credential system has not yet been proposed. This means that features standard to ACs, such as multi-show unlinkability or the ability to prove relations between attributes, are not yet part of the design, whereas they are explicitly supported by the lattice construction. However, the preliminary results show great potential for performance, and it will be interesting to see the continued cryptanalysis and feature development from this line of VOLEitH in the area of anonymous credentials, especially since the general-purpose construction allows adding features easily.
Medium: promising research direction, no full solution available so far
Closing the gap
My (that is Lena’s) internship focused on a critical question: what should we look at next to build ACs for the Internet? For us, “the right direction” means developing protocols that can be integrated with real world applications, and developed collaboratively at the IETF. To make these a reality, we need researchers to look beyond blind signatures; we need a complete privacy-preserving protocol that combines blind signatures with efficient zero-knowledge proofs and properties like multi-show credentials that have an internal state. The issuance should also be sublinear in communication size with the number of presentations.
So, with the transition to post-quantum cryptography on the horizon, what are our thoughts on the current IETF proposals? A 2022 NIST presentation on the current state of anonymous credentials states that efficient post-quantum secure solutions are basically non-existent. We argue that the last three years show nice developments in lattices and MPCitH anonymous credentials, but efficient post-quantum protocols still need work. Moving protocols into a post-quantum world isn’t just a matter of swapping out old algorithms for new ones. A common approach on constructing post-quantum versions of classical protocols is swapping out the building blocks for their quantum-secure counterpart.
We believe this approach is essential, but not forward-looking. In addition to identifying how modern concerns can be accommodated on old cryptographic designs, we should be building new, post-quantum native protocols.
For ARC, the conceptual path to a post-quantum construction seems relatively straightforward. The underlying cryptography follows a similar structure as the lattice-based anonymous credentials, or, when accepting a protocol with fewer features, the generic post-quantum privacy-pass construction. However, we need to support per-origin rate-limiting, which allows us to transform a token at an origin without leaking us being able to link the redemption to redemptions at other origins, a feature that none of the post-quantum anonymous credential protocols or blind signatures support. Also, ARC is sublinear in communication size with respect to the number of tokens issued, which so far only the hash-and-sign with abort lattices achieve, although the notion of “limited shows” is not present in the current proposal. In addition, it would be great to gauge efficient implementations, especially for blind signatures, as well as looking into efficient zero-knowledge proofs.
For ACT, we need the protocols for ARC and an additional state. Even for the simplest counter, we need the ability to homomorphically subtract from that balance within the credential itself. This is a much more complex cryptographic requirement. It would also be interesting to see a post-quantum double-spend prevention that enforces the sequential nature of ACT.
Working on ACs and other privacy-preserving cryptography inevitably leads to a major bottleneck: efficient zero-knowledge proofs, or to be more exact, efficiently proving hash function evaluations. In a ZK circuit, multiplications are expensive. Each wire in the circuit that performs a multiplication requires a cryptographic commitment, which adds communication overhead. In contrast, other operations like XOR can be virtually “free.” This makes a huge difference in performance. For example, SHAKE (the primitive used in ML-DSA) can be orders of magnitude slower than arithmetization-friendly hash functions inside a ZKP. This is why researchers and implementers are already using Poseidon or Poseidon2 to make their protocols faster.
Currently, Ethereum is seriously considering migrating Ethereum to the Poseidon hash and calls for cryptanalysis, but there is no indication of standardization. This is a problem: papers increasingly use different instantiations of Poseidon to fit their use-case, and there aremoreandmorezero–knowledgefriendlyhashfunctionscomingout, tailored to different use-cases. We would like to see at least one XOF and one hash each for a prime field and for a binary field, ideally with some security levels. And also, is Poseidon the best or just the most well-known ZK friendly cipher? Is it always secure against quantum computers (like we believe AES to be), and are there other attacks like the recentattacks on round-reduced versions?
Looking at algebra and zero-knowledge brings us to a fundamental debate in modern cryptography. Imagine a line representing the spectrum of research: On one end, you have protocols built on very well-analyzed standard assumptions like the SIS problem on lattices or the collision resistance of SHA3. On the other end, you have protocols that gain massive efficiency by using more algebraic structure, which in turn relies on newer, stronger cryptographic assumptions. Breaking novel hash functions is somewhere in the middle.
The answer for the Internet can’t just be to relent and stay at the left end of our graph to be safe. For the ecosystem to move forward, we need to have confidence in both. We need more research to validate the security of ZK-friendly primitives like Poseidon, and we need more scrutiny on the stronger assumptions that enable efficient algebraic methods.
Conclusion
As we’ve explored, the cryptographic properties that make classical ACs efficient, particularly the rich structure of elliptic curves, do not have direct post-quantum equivalents. Our survey of the state of the art from generic compositions using STARKs, to various lattice-based schemes, and promising new directions like MPC-in-the-head, reveals a field full of potential but with no clear winner. The trade-offs between communication cost, computational cost, and protocol rounds remain a significant barrier to practical, large-scale deployment, especially in comparison to elliptic curve constructions.
To bridge this gap, we must move beyond simply building post-quantum blind signatures. We challenge our colleagues in academia and industry to develop complete, post-quantum native protocols that address real-world needs. This includes supporting essential features like the per-origin rate-limiting required for ARC or the complex stateful credentials needed for ACT.
A critical bottleneck for all these approaches is the lack of efficient, standardized, and well-analyzed zero-knowledge-friendly hash functions. We need to research zero-knowledge friendly primitives and build industry-wide confidence to enable efficient post-quantum privacy.
If you’re working on these problems, or you have experience in the management and deployment of classical credentials, now is the time to engage. The world is rapidly adopting credentials for everything from digital identity to bot management, and it is our collective responsibility to ensure these systems are private and secure for a post-quantum future. We can tell for certain that there are more discussions to be had, and if you’re interested in helping to build this more secure and private digital world, we’re hiring 1,111 interns over the course of next year, and have open positions!
Customers often tell me that they want a simpler path to meet the compliance and industry regulatory mandates they have in their geographic regions. In our deep engagements with partners and customers, we have learned that one of the greatest challenges for customers is the translation of security and compliance requirements into distinct technical controls. At Amazon Web Services (AWS), security is our top priority, and we understand that protecting your data in a world with changing regulations, technology, and risks takes teamwork. As we’ve said, security is foundational to sovereignty.
AWS helps organizations to develop and evolve security, identity, and compliance into key business enablers; that’s why we’re committed to working with national cyber authorities and regulators to help define and establish how their compliance standards can be translated into security best practices in the cloud. We’re responding to customer requests to create locally tailored approaches aligned to their own regional standards and guidance as established by in-region authorities.
Architectural best practice, locally tailored
Since its launch in 2022, Landing Zone Accelerator on AWS has been instrumental in helping thousands of customers deploy cloud foundations that align with multiple global compliance frameworks and AWS best practices, including the Baseline Informatiebeveiliging Overheid (BIO) in the Netherlands, and the Esquema Nacional de Seguridad (ENS) in Spain. AWS is committed to expanding our regional implementations to help customers meet specific national and regional standards and digital sovereignty goals.
In March, I was proud to share the news of the cooperation agreement between the Federal Office for Information Security (BSI) and AWS, where AWS committed to help advance digital sovereignty and cybersecurity best practices and standards in Germany and across the European Union. With that in mind, I’m excited to share that our next regional implementation of Landing Zone Accelerator on AWS will support customers with workloads in Germany. The C5-ready Landing Zone Accelerator is designed to help customers meet their Cloud Computing Compliance Criteria Catalogue (C5) compliance objectives in the cloud. This will be available to our customers in Q3-2025, and at launch, our regional implementations will also be available in AWS European Sovereign Cloud.
For many customers in Germany, adherence to C5 is a requirement, and this is evidenced through a compliance assessment by an authorized assessor. Preparing for this assessment is critical for a successful outcome and is why AWS has partnered with AWS Global Security & Compliance (GSCA) Partner Schellman to provide the assessor insight as to how the C5-ready Landing Zone Accelerator can accelerate and simplify the path to C5 adoption for AWS customers.
AWS Partner Schellman: Proven Track Record in C5 Assessments
As one of the few firms with deep expertise and experience in C5 assessments, Schellman has completed several dozen evaluations across a wide range of clients—from agile startups to global enterprises. This diverse portfolio underscores Schellman’s capabilities, deep technical expertise, and unwavering commitment to security assurance.
“Our team has seen firsthand how the C5 standard fosters transparency and builds trust in cloud services. We’re proud to support our clients not just in understanding C5, but in strategically leveraging it to improve security and competitiveness on a global scale.” Jeff Schiess, Managing Director, Schellman
Lowering the Barrier to Entry – Schellman recognizes that achieving C5 compliance can sometimes be intimidating, particularly for organizations new to the framework. To that end, Schellman has performed an assessment against the foundational infrastructure provided by LZA on AWS, designed to simplify the C5 journey. The LZA provides preconfigured infrastructure templates and security baselines that significantly reduce the complexity of establishing C5-compliant cloud environments.
“With the Landing Zone Accelerator, organizations can build on a C5-ready foundation right from the start. It’s a practical, scalable solution for companies that might otherwise find the C5 standard overwhelming.” Kristen Wilbur, Principal, Schellman
Sovereign by design
Landing Zone Accelerator on AWS automatically implements hundreds of security capabilities that map to control requirements across geographic compliance frameworks. This saves customers hundreds of hours in planning and implementing secure networking and account configurations by providing them with a foundation based on the AWS Well-Architected Security Pillar and AWS security best practices. Meeting compliance requirements, having verifiable access controls and data transfer restrictions, independence and choice over the technology stack, and surviving large-scale disruptions are some of the key capabilities that customers require of a sovereign-by-design workload. However, for many customers, translating regulatory requirements into a set of discrete technical controls and applying them consistently across one or more AWS accounts and AWS Regions can be time-intensive and challenging.
We provide customers and partners with detailed guidance on how to configure Landing Zone Accelerator on AWS in accordance with their local security and compliance requirements, including digital sovereignty requirements. This includes control mapping to local regulations or policies that shows customers how controls implemented in a landing zone are mapped to the specific requirements, calling out where customers are required to do more to meet these as part of our shared responsibility model—this includes organizational policies and procedures where customers must implement additional controls within their application or workload to meet local requirements.
Control over the location of your data
Landing Zone Accelerator on AWS provides customers with a choice of configurable preventative, detective, and proactive controls to help customers meet their data residency, security, and compliance objectives, whether you’re a public sector customer wanting to keep data in a single Region or navigating the complex needs of multi-national organizations with operations subject to differing digital sovereignty requirements.
Verifiable control over data access
Landing Zone Accelerator on AWS goes beyond just provisioning a secure, multi-account environment. It establishes a well-structured, multi-account architecture using AWS Organizations. This logically isolates workloads, management functions, and security controls into dedicated organizational units (OUs). This not only enhances security and operational efficiency, but also helps customers to enforce consistent data residency, access management, and compliance policies across their entire cloud footprint. These powerful guardrails empower customers to quickly harness the innovative potential of cloud technologies, whilst delivering business value from an established security and compliance baseline.
By providing this automated approach, AWS empowers organizations to rapidly deploy cloud environments tailored to their specific local requirements in days instead of weeks; with robust security, compliance, and operational guardrails in place from the outset. Landing Zone Accelerator on AWS is designed to simplify the path to cloud adoption and compliance for organizations, particularly those in regulated industries or with sovereignty requirements. This approach marks a shift from the previous heavy lift required for organizations to migrate workloads to the cloud while meeting their needs.
Partners at the core
There is a lot of complexity involved with navigating the evolving digital sovereignty landscape—but you don’t have to do it alone. Our AWS Digital Sovereignty Competency connects customers with trusted partners with demonstrated expertise to advise and architect for their customers’ digital sovereignty needs while taking advantage of the full potential of the AWS Cloud. As part of the competency, AWS is supporting partners to navigate customer challenges across four pillars: data residency, data protection, access control, and survivability.
Customers have told me about how challenging it can be to architect to address their sovereignty needs, often requiring manual iteration and longer time to value. Using Landing Zone Accelerator on AWS is one of the ways AWS and AWS Partners can work together to address customers’ sovereignty needs with a repeatable approach that helps our customers and partners move faster. I’m excited by how regional implementations of Landing Zone Accelerator on AWS is helping AWS Sovereignty Partners, such as Atos and SVA, to move faster without compromise.
“Compliance with regulations like C5 is essential for customers in the public sector and regulated industries, who prioritize digital sovereignty, and this is central to our Cloud for Clinics initiative with AWS in the German Healthcare market. The availability of the C5 LZA significantly reduces the technical complexity, giving us a common technical platform to build on reducing time to market. Atos is driving the operational rollout and expanding the scope of compliance mappings to further streamline customer compliance. At the same time, we are incorporating essential managed services like SOC/SIEM which we believe will make compliant cloud adoption easier to drive innovation by the Public Sector, Healthcare institutions or customers in regulated industries like Financial Services and Utilities.” Boris Hecker, Managing Director, ATOS Germany
“Compliance with BSI C5 criteria for customers from the public sector and regulated industries is a basic requirement for the use of public cloud services. Implementing the regulations is often complex, time-consuming and resource-intensive. For this reason, customers are looking for solutions that they can tailor to the specific requirements of their industry; while ensuring they meet compliance standards. SVA supports customers in maintaining the balance between innovation and compliance with customized, C5-certified, managed services. We rely on solutions such as the Landing Zone Accelerator on AWS to reconcile the use of market-leading public cloud infrastructure with regulatory requirements.” Patrick Glawe, Hyperscaler Lead at SVA
Last month, we shared that we are investing €7.8 billion in the AWS European Sovereign Cloud, a new independent cloud for Europe, which is set to launch by the end of 2025. We are building the AWS European Sovereign Cloud designed to offer public sector organizations and customers in highly regulated industries further choice to help them meet their unique digital sovereignty requirements, as well as stringent data residency, operational autonomy, and resiliency requirements. Customers and partners using the AWS European Sovereign Cloud will benefit from the full capacity of AWS including the same familiar architecture, service portfolio, APIs, and security features available in our 33 existing AWS Regions. Today, we are thrilled to reveal an initial roadmap of services that will be available in the AWS European Sovereign Cloud. This announcement highlights the breadth and depth of the AWS European Sovereign Cloud service portfolio, designed to meet customer and partner demand while delivering on our commitment to offer the most advanced set of sovereignty controls and features available in the cloud.
The AWS European Sovereign Cloud is architected to be sovereign-by-design, just as the AWS Cloud has been since day one. We have designed a secure and highly available global infrastructure, built safeguards into our service design and deployment mechanisms, and instilled resilience into our operational culture. Our customers benefit from a cloud built to help them satisfy the requirements of the most security-sensitive organizations. Each Region is comprised of multiple Availability Zones and each Availability Zone is made up of one or more discrete data centers, each with redundant power, connectivity, and networking. The first Region of the AWS European Sovereign Cloud will be located in the State of Brandenburg, Germany, with infrastructure wholly located within the European Union (EU). Like our existing Regions, the AWS European Sovereign Cloud will be powered by the AWS Nitro System. The Nitro System powers all our modern Amazon Elastic Compute Cloud (Amazon EC2) instances and provides a strong physical and logical security boundary to enforce access restrictions so that nobody, including AWS employees, can access customer data running in Amazon EC2.
Service roadmap for the AWS European Sovereign Cloud
AWS is committed to offering our customers the most advanced set of sovereignty controls and features available in the cloud. We have a wide range of offerings to help you meet your unique digital sovereignty requirements, including our eight existing Regions in Europe, AWS Dedicated Local Zones, and AWS Outposts. The AWS European Sovereign Cloud is an additional option to choose from. You can start building in our existing sovereign-by-design Regions and, if needed, migrate to the AWS European Sovereign Cloud. If you have stringent isolation and in-country data residency requirements, you will also be able to use Dedicated Local Zones or Outposts to deploy AWS European Sovereign Cloud infrastructure in locations you select.
Today, you can conduct proof-of-concept exercises and gain hands-on experience that will help you hit the ground running when the AWS European Sovereign Cloud launches in 2025. For example, you can use AWS CloudFormation to create and provision AWS infrastructure deployments predictably and repeatedly in an existing Region to prepare for the AWS European Sovereign Cloud. Using AWS CloudFormation, you can leverage services like Amazon EC2, Amazon Simple Notification Service (Amazon SNS), and Elastic Load Balancing to build highly reliable, highly scalable, cost-effective applications in the cloud in a repeatable, auditable, and automatable manner. You can use Amazon SageMaker to build, train, and deploy your machine learning models (including large language and other foundation models). You can use Amazon S3 to benefit from automatic encryption on all object uploads. If you have a regulatory need to store and use your encryption keys on premises or outside AWS, you can use the AWS KMS External Key Store.
Whether you’re migrating to the cloud for the first time, considering the AWS European Sovereign Cloud, or modernizing your applications to take advantage of cloud services, you can benefit from our experience helping organizations of all sizes move to and thrive in the cloud. We provide a wide range of resources to adopt the cloud effectively and accelerate your cloud migration and modernization journey, including the AWS Cloud Adoption Framework and AWS Migration Acceleration Program. Our global AWS Training and Certification helps learners and organizations build in-demand cloud skills and validate expertise with free and low-cost training and industry-recognized AWS Certification credentials, including more than 100 training resources for AI and machine learning (ML).
Customers and partners welcome the AWS European Sovereign Cloud service roadmap
Adobe is the world leader in creating, managing, and optimizing digital experiences. For over twelve years, Adobe Experience Manager (AEM) Managed Services has leveraged the AWS Cloud to support Adobe customers’ use of AEM Managed Services. “Over the years, AEM Managed Services has focused on the four pillars of security, privacy, regulation, and governance to ensure Adobe customers have best-in-class digital experience management tools at their disposal,” Mitch Nelson, Senior Director, Worldwide Managed Services at Adobe. “We are excited about the launch of the AWS European Sovereign Cloud and the opportunity it presents to align with Adobe’s Single Sovereign Architecture for AEM offering. We look forward to being among the first to provide the AWS European Sovereign Cloud to Adobe customers.”
adesso SE is a leading IT services provider in Germany with a focus on helping customers optimize core business processes with modern IT. adesso SE and AWS have been working together to help organizations drive digital transformations, quickly and efficiently, with tailored solutions. “With the European Sovereign Cloud, AWS is providing another option that can help customers navigate the complexity around changing rules and regulations. Organizations across the public sector and regulated industries are already using the AWS Cloud to help meet their digital sovereignty requirements, and the AWS European Sovereign Cloud will unlock additional opportunities,” said Markus Ostertag, Chief AWS Technologist, adesso SE. “As one of Germany’s largest IT service providers, we see the benefits that the European Sovereign Cloud service portfolio will provide to help customers innovate while getting the reliability, resiliency, and availability they need. AWS and adesso SE share a mutual commitment to meeting the unique needs of our customers, and we look forward to continuing to help organizations across the EU drive advancements.”
Genesys, a global leader in AI-powered experience orchestration, empowers more than 8,000 organizations in over 100 countries to deliver personalized, end-to-end experience at scale. With Genesys Cloud running on AWS, the companies have a longstanding collaboration to deliver scalable, secure, and innovative services to joint global clientele. “Genesys is at the forefront of helping businesses use AI to build loyalty with customers and drive productivity and engagement with employees,” said Glenn Nethercutt, Chief Technology Officer at Genesys. “Delivery of the Genesys Cloud platform on the AWS European Sovereign Cloud will enable even more organizations across Europe to experiment, build, and deploy cutting-edge customer experience applications while adhering to stringent data sovereignty and regulatory requirements. Europe is a key player in the global economy and a champion of data protection standards, and upon its launch, the AWS European Sovereign Cloud will offer a comprehensive suite of services to help businesses meet both data privacy and regulatory requirements. This partnership reinforces our continued investment in the region and Genesys and AWS remain committed to working together to help address the unique challenges faced by European businesses, especially those in highly regulated industries such as finance and healthcare.”
Pega provides a powerful platform that empowers global clients to use AI-powered decisioning and workflow automation solutions to solve their most pressing business challenges – from personalizing engagement to automating service to streamlining operations. Pega’s strategic work with AWS has allowed Pega to transform its as-a-Service business to become a highly scalable, reliable, and agile way for our clients to experience Pega’s platform across the globe. “The collaboration between AWS and Pega will deepen our commitment to our European Union clients to storing and processing their data within region,” said Frank Guerrera, chief technical systems officer at Pegasystems. “Our combined solution, taking advantage of the AWS European Sovereign Cloud, will allow Pega to provide sovereignty assurances at all layers of the service, from Pega’s platform and supporting technologies all the way to the enabling infrastructure. This solution combines Pega Cloud’s already stringent approach to data isolation, people, and process with the new and innovative AWS European Sovereign Cloud to deliver flexibility for our public sector and highly regulated industry clients.”
SVA System Vertrieb Alexander GmbH is one of the leading founder-owned system integrators in Germany with more than 3,200 talented employees at 27 offices across the country that are delivering best-in-class solutions to more than 3,000 customers. The 10-year collaboration between SVA and AWS has helped support customers across all industries and verticals to migrate and modernize workloads from on-premises to AWS or build new solutions from scratch. “The AWS European Sovereign Cloud is addressing specific needs for highly regulated customers, can lower the barriers and unlock huge digitalization potential for these verticals,” said Patrick Glawe, AWS Alliance Lead at SVA System Vertrieb Alexander GmbH. “Given our broad coverage across the public sector and regulated industries, we listen carefully to the discussions regarding cloud adoption and will soon be offering an option to design a highly innovative ecosystem that meets the highest standards of data protection, regulatory compliance, and digital sovereignty requirements. This will have a major impact on the European Union’s digitalization agenda.”
We remain committed to giving our customers more control and more choice to take advantage of the innovation the cloud can offer while helping them meet their unique digital sovereignty needs, without compromising on the full power of AWS. Learn more about the AWS European Sovereign Cloud on our European Digital Sovereignty website and stay tuned for more updates as we continue to drive toward the 2025 launch.
Initial planned services for the AWS European Sovereign Cloud
Analytics
Amazon Athena
Amazon Data Firehose
Amazon EMR
Amazon Kinesis Data Streams
Amazon Managed Service for Apache Flink
Amazon Managed Streaming for Apache Kafka (Amazon MSK)
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French version
Annonce des premiers services disponibles dans l’AWS European Sovereign Cloud, basés sur toute la puissance d’AWS
Le mois dernier, nous avons annoncé un investissement de 7,8 milliards d’euros dans l’AWS European Sovereign Cloud, un nouveau cloud indépendant pour l’Europe qui sera lancé d’ici fin 2025. L’AWS European Sovereign Cloud vise à offrir aux organisations du secteur public et aux clients des industries hautement réglementées une nouvelle option pour répondre à leurs exigences spécifiques en matière de souveraineté numérique, de localisation des données, d’autonomie opérationnelle et de résilience. Les clients et partenaires utilisant l’AWS European Sovereign Cloud bénéficieront de toute la puissance d’AWS, mais également de la même architecture à laquelle ils sont habitués, du même portefeuille étendu de services, des mêmes API et des mêmes fonctionnalités de sécurité que dans les 33 Régions AWS déjà en service. Aujourd’hui, nous sommes ravis de dévoiler une première feuille de route des services qui seront disponibles dans l’AWS European Sovereign Cloud. Cette annonce offre un aperçu de la richesse et de la diversité des services de l’AWS European Sovereign Cloud, conçu pour répondre aux besoins de nos clients et partenaires, tout en respectant notre engagement à offrir l’ensemble le plus avancé d’outils et de fonctionnalités de contrôle disponibles dans le cloud au service de la souveraineté.
L’AWS European Sovereign Cloud a été pensé pour être souverain dès sa conception, tout comme l’AWS Cloud depuis l’origine. Nous avons mis en place une infrastructure mondiale sécurisée à haut niveau de disponibilité, intégré des systèmes de protection pour la conception et le déploiement de nos services et développé une culture opérationnelle de la résilience. Nos clients bénéficient ainsi d’un cloud conçu pour les aider à répondre aux exigences de sécurité les plus strictes. Chaque Région est composée de plusieurs zones de disponibilité comprenant chacune un ou plusieurs centres de données distincts avec une alimentation, une connectivité et un réseau redondants. La première Région de l’AWS European Sovereign Cloud sera située dans le land de Brandebourg, en Allemagne, avec une infrastructure entièrement localisée au sein de l’Union Européenne (UE). Comme dans nos Régions existantes, l’AWS European Sovereign Cloud s’appuiera sur AWS Nitro System. Ce système, à la base de nos instances Amazon Elastic Compute Cloud (Amazon EC2) implémente une séparation physique et logique robuste, afin que personne, y compris au sein d’AWS, ne puisse accéder aux données des clients traitées dans Amazon EC2.
Feuille de route des services pour l’AWS European Sovereign Cloud
Lors du lancement d’une nouvelle Région, nous commençons par mettre en place les services de base nécessaires à la gestion des applications critiques, avant d’étendre notre catalogue de services en fonction des demandes de nos clients et partenaires. L’AWS European Sovereign Cloud proposera initialement des services de différentes catégories, notamment pour l’intelligence artificielle avec Amazon SageMaker, Amazon Q et Amazon Bedrock, pour le calcul avec Amazon EC2 et AWS Lambda, pour les conteneurs avec Amazon Elastic Kubernetes Service (Amazon EKS) et Amazon Elastic Container Service (Amazon ECS), pour les bases de données avec Amazon Aurora, Amazon DynamoDB et Amazon Relational Database Service (Amazon RDS), pour la mise en réseau avec Amazon Virtual Private Cloud (Amazon VPC), pour la sécurité avec AWS Key Management Service (AWS KMS) et AWS Private Certificate Authority et pour le stockage avec Amazon Simple Storage Service (Amazon S3) et Amazon Elastic Block Store (Amazon EBS). L’AWS European Sovereign Cloud disposera de ses propres systèmes dédiés de gestion des identités et des accès (IAM), de facturation et de mesure de l’utilisation, fonctionnant de manière indépendante des Régions existantes. Ces systèmes permettront aux clients utilisant l’AWS European Sovereign Cloud de conserver toutes leurs données ainsi que toutes les métadonnées qu’ils créent (comme les rôles, les permissions, les étiquettes de ressources et les configurations utilisées pour exécuter les services) dans l’Union européenne. Les clients d’AWS European Sovereign Cloud pourront également profiter de l’AWS Marketplace, un catalogue numérique organisé qui facilite la recherche, le test, l’achat et le déploiement de logiciels tiers. Afin d’aider les clients et les partenaires à préparer leurs déploiements sur l’AWS European Sovereign Cloud, nous publions la feuille de route des services initiaux à la fin de cet article.
Commencez dès aujourd’hui à développer vos solutions souveraines sur AWS
AWS s’engage à proposer l’ensemble le plus avancé d’outils et de fonctionnalités de contrôle disponibles dans le cloud au service de la souveraineté. Nous disposons d’une large gamme de solutions pour vous aider à répondre à vos exigences uniques en matière de souveraineté numérique, y compris nos huit Régions existantes en Europe, les AWS Dedicated Local Zones et les AWS Outposts. L’AWS European Sovereign Cloud constitue une option supplémentaire. Vous pouvez commencer à développer vos projets dans nos Régions existantes, toutes souveraines dès leur conception, et migrer si nécessaire vers l’AWS European Sovereign Cloud. En cas d’exigences strictes pour l’isolation et la localisation des données dans un pays, vous pourrez également utiliser les Dedicated Local Zones ou les Outposts pour déployer l’infrastructure de l’AWS European Sovereign Cloud là où vous le désirez.
Dès aujourd’hui, vous pouvez construire des démonstrateurs (PoC) et acquérir une expérience pratique qui vous permettra d’être opérationnel dès le lancement de l’AWS European Sovereign Cloud en 2025. Vous pouvez par exemple utiliser AWS CloudFormation pour créer et déployer de manière prévisible et répétée des déploiements d’infrastructure AWS dans une Région existante afin de vous préparer à l’AWS European Sovereign Cloud. Avec AWS CloudFormation, vous pouvez exploiter des services comme Amazon EC2, Amazon Simple Notification Service (Amazon SNS) et Elastic Load Balancing afin de développer des applications cloud hautement fiables et hautement évolutives de manière reproductible, auditable et automatisable. Amazon SageMaker vous permet de créer, d’entraîner et de déployer tous vos modèles d’apprentissage automatique, y compris des grands modèles de langage (LLM). Et avec Amazon S3, vous pouvez bénéficier du chiffrement automatique pour tous les objets importés. Enfin, si vous devez stocker et utiliser vos clés de chiffrement sur site ou en dehors d’AWS en raison de certaines réglementations, vous pouvez utiliser AWS KMS External Key Store.
Que vous vous apprêtiez à migrer vers le cloud pour la première fois, que vous envisagiez de passer à l’AWS European Sovereign Cloud ou que vous ayez pour projet de moderniser vos applications pour profiter des services cloud, notre expérience peut vous être précieuse. Nous aidons des organisations de différentes tailles à réussir leur transition vers le cloud. Nous mettons à votre disposition une large gamme de ressources pour adopter efficacement le cloud, accélérer votre migration ou votre modernisation, à l’image du Framework d’adoption du cloud AWS et du programme d’accélération des migrations AWS. Notre programme de certification AWS permet aux professionnels et aux organisations de développer des compétences cloud très demandées et de valider leur expertise grâce à des formations gratuites ou peu coûteuses ainsi qu’à des certifications AWS reconnues par l’ensemble de l’industrie. Nous proposons ainsi plus de 100 ressources de formation en intelligence artificielle et en apprentissage automatique.
Nos clients et partenaires accueillent favorablement le portefeuille de services de l’AWS European Sovereign Cloud
Adobe est le leader mondial de la création, de la gestion et de l’optimisation des expériences numériques. Depuis plus de douze ans, les services gérés Adobe Experience Manager (AEM) s’appuient sur le cloud Amazon Web Services (AWS) pour accompagner les clients d’Adobe dans leur utilisation d’AEM. « Au fil des années, les services d’AEM se sont concentrés sur les quatre piliers que sont la sécurité, la confidentialité, la réglementation et la gouvernance, afin de garantir aux clients d’Adobe l’accès aux meilleurs outils de gestion d’expérience numérique du marché », a déclaré Mitch Nelson, Senior Director, Worldwide Managed Services, Adobe. « Nous sommes ravis du lancement d’AWS European Sovereign Cloud, qui représente une opportunité unique de s’aligner sur l’architecture souveraine d’Adobe pour l’offre AEM. Nous espérons être parmi les premiers à proposer AWS European Sovereign Cloud aux clients d’Adobe. »
adesso SE est un important fournisseur de services informatiques en Allemagne, spécialisé dans l’optimisation des processus opérationnels essentiels à l’aide de technologies informatiques modernes. En collaboration avec AWS, adesso SE accompagne les organisations dans leurs transformations numériques avec des solutions personnalisées et efficaces. Pour Markus Ostertag, Chief AWS Technologist chez adesso SE, « l’European Sovereign Cloud d’AWS, est une nouvelle option qui va permettre aux clients de se frayer un chemin dans la complexité toujours croissante des réglementations. Les organisations publiques et les industries réglementées utilisent déjà le Cloud AWS pour répondre à leurs exigences en matière de souveraineté numérique, et l’AWS European Sovereign Cloud leur ouvrira de nouvelles perspectives. » Il poursuit : « En tant que l’un des principaux fournisseurs de services informatiques en Allemagne, nous voyons les avantages que le portefeuille de services de l’European Sovereign Cloud apporteront pour stimuler l’innovation tout en garantissant fiabilité, résilience et disponibilité. AWS et adesso SE partagent un engagement commun à répondre aux besoins spécifiques de nos clients, et nous sommes impatients de continuer à accompagner les différentes organisations à travers l’Union européenne dans leurs avancées technologiques. »
Genesys, leader mondial dans l’orchestration des expériences clients alimentées par l’IA, permet à plus de 8 000 organisations réparties dans plus de 100 pays de proposer des expériences personnalisées de bout en bout à grande échelle. En partenariat avec Amazon Web Services (AWS), Genesys Cloud tire parti de cette plateforme depuis longtemps pour fournir des services sécurisés, évolutifs et innovants à une clientèle mondiale commune. Glenn Nethercutt, Chief Technology Officer chez Genesys, commente : « Genesys joue un rôle de premier plan en aidant les entreprises à utiliser l’IA pour fidéliser leurs clients mais aussi améliorer la productivité et l’engagement de leurs employés. Le déploiement de la plateforme Genesys Cloud sur l’AWS European Sovereign Cloud permettra à davantage d’organisations à travers l’Europe d’explorer, développer et déployer des applications avancées d’expérience client, tout en respectant les exigences et les réglementations les plus strictes en matière de souveraineté des données. L’Europe est un acteur clé de l’économie mondiale et un défenseur des normes de protection des données. Avec le lancement prochain de l’AWS European Sovereign Cloud, une gamme complète de services sera proposée pour aider les entreprises à répondre aux exigences réglementaires et de confidentialité des données. Ce partenariat renforce notre investissement continu dans la région. Genesys et AWS restent engagés à collaborer pour relever les défis uniques auxquels les entreprises européennes sont confrontées, en particulier celles des secteurs hautement réglementés comme la finance et la santé. »
Pega propose une plateforme performante qui permet aux clients internationaux de relever leurs défis commerciaux les plus urgents grâce à des solutions d’aide à la prise de décision et d’automatisation des flux basées sur l’IA. Des solutions qui vont de la personnalisation des interactions client à l’automatisation des services en passant par l’optimisation des opérations. Le partenariat stratégique avec AWS a permis à Pega de transformer son activité en mode SaaS (logiciel en tant que service) en une solution hautement évolutive, fiable et agile, offrant à nos clients une expérience optimale de la plateforme Pega, partout dans le monde. Frank Guerrera, Chief Technical Systems Officer chez Pegasystems, précise : « La collaboration entre AWS et Pega renforcera notre engagement envers nos clients de l’Union européenne pour le stockage et le traitement de leurs données dans la région. Notre solution combinée, tirant parti de l’AWS European Sovereign Cloud, permettra à Pega d’offrir des garanties de souveraineté à tous les niveaux du service, de la plateforme Pega et ses technologies jusqu’à l’infrastructure sous-jacente. Cette solution associe l’approche déjà rigoureuse de Pega Cloud en matière d’isolation des données, de ressources humaines et de processus à celle, nouvelle et innovante, de l’AWS European Sovereign Cloud pour offrir une flexibilité accrue à nos clients du secteur public et des industries hautement réglementées. »
SVA System Vertrieb Alexander GmbH est l’un des principaux intégrateurs de systèmes en Allemagne. Fondé et dirigé par ses propriétaires, il emploie plus de 3 200 employés répartis dans 27 bureaux à travers le pays, et fournit des solutions de pointe à plus de 3 000 clients. Les 10 années de collaboration avec AWS ont permis d’aider des clients de tous les secteurs à migrer et à moderniser leurs applications depuis les infrastructures sur site vers AWS, mais aussi à créer de nouvelles solutions à partir de zéro. « L’AWS European Sovereign Cloud répond aux besoins spécifiques des clients issus d’industries hautement réglementées, peut contribuer à réduire les obstacles existants et libérer un formidable potentiel de numérisation », a déclaré Patrick Glawe, AWS Alliance Lead, SVA System Vertrieb Alexander GmbH. « En tant que partenaire privilégié du secteur public et des industries réglementées, nous suivons de près les discussions sur l’adoption du cloud et nous allons bientôt proposer une option permettant de concevoir un écosystème hautement innovant répondant aux normes les plus strictes en matière de protection des données, de conformité réglementaire et de souveraineté numérique. Cela aura un impact majeur sur le programme de numérisation de l’Union européenne. »
Nous réaffirmons notre engagement à offrir à nos clients plus de contrôle et de choix afin qu’ils puissent tirer pleinement parti des innovations offertes par le cloud, tout en les aidant à répondre à leurs besoins spécifiques en matière de souveraineté numérique, sans aucun compromis sur la puissance d’AWS. Découvrez-en davantage sur l’AWS European Sovereign Cloud sur notre site internet dédié à la souveraineté numérique européenne et suivez l’évolution du projet à mesure que nous nous rapprochons de son lancement en 2025.
German version
Bekanntgabe der ersten Services in der AWS European Sovereign Cloud, angetrieben von der vollen Leistungsfähigkeit von AWS
Letzten Monat haben wir bekanntgegeben, dass wir 7,8 Milliarden Euro in die AWS European Sovereign Cloud investieren, eine neue unabhängige Cloud für Europa, die bis Ende 2025 eröffnen soll. Wir bauen die AWS European Sovereign Cloud auf, um Organisationen des öffentlichen Sektors und Kunden in stark regulierten Branchen mehr Wahlmöglichkeiten zu bieten. Wir möchten ihnen dabei helfen, ihre spezifischen Anforderungen an die digitale Souveränität sowie die strengen Vorgaben in Bezug auf den Ort der Datenverarbeitung, die betriebliche Autonomie und die Resilienz zu erfüllen. Kunden und Partner werden von der vollen Leistungsstärke von AWS profitieren, wenn sie die AWS European Sovereign Cloud nutzen. Dazu gehören auch die bekannte Architektur, das Service-Portfolio, die APIs und die Sicherheitsfunktionen, die bereits in unseren 33 bestehenden AWS-Regionen verfügbar sind. Wir freuen uns sehr, heute eine erste Roadmap mit den Services, die in der AWS European Sovereign Cloud verfügbar sein werden, vorzustellen. Diese Bekanntgabe unterstreicht den Umfang des Service-Portfolios der AWS European Sovereign Cloud, das nicht nur die Ansprüche unserer Kunden und Partner erfüllt, sondern auch unser Versprechen, die fortschrittlichsten Souveränitätskontrollen und -funktionen zu bieten, die überhaupt in der Cloud verfügbar sind.
Die AWS European Sovereign Cloud basiert, so wie auch die AWS Cloud seit Tag eins, auf dem „sovereign-by-design“-Ansatz. Wir haben eine sichere und hochverfügbare globale Infrastruktur entwickelt, Schutzmaßnahmen in unser Service-Design und unsere Bereitstellungsmechanismen integriert und Resilienz fest in unserer Betriebskultur verankert. Unsere Kunden profitieren von einer Cloud, die sie dabei unterstützt, selbst die Anforderungen der sicherheitssensibelsten Organisationen zu erfüllen. Jede Region besteht aus mehreren Verfügbarkeitszonen (Availability Zones, AZs) und jede AZ aus einem oder mehreren diskreten Rechenzentren, deren Stromversorgung, Konnektivität und Netzwerk komplett redundant aufgebaut sind. Die erste Region der AWS European Sovereign Cloud ist in Brandenburg geplant, die Infrastruktur wird vollständig in der EU angesiedelt sein. Die AWS European Sovereign Cloud wird wie auch unsere bestehenden Regionen das AWS Nitro System nutzen. Das Nitro System bildet die Grundlage für alle unsere modernen Amazon Elastic Compute Cloud (EC2) Instanzen und basiert auf einer starken physikalischen und logischen Sicherheitsabgrenzung. Damit werden Zugriffsbeschränkungen realisiert, so dass niemand, einschließlich AWS-Mitarbeitern, Zugriff auf Kundendaten, die auf Amazon EC2 laufen, hat.
Service-Roadmap für die AWS European Sovereign Cloud
Beginnen Sie noch heute mit der Umsetzung Ihrer digitalen Souveränität mit AWS
Bei AWS haben wir uns zum Ziel gesetzt, unseren Kunden die fortschrittlichsten Steuerungsmöglichkeiten für Souveränitätsanforderungen und Funktionen anzubieten, die in der Cloud verfügbar sind. Mit unserem breitgefächerten Angebot, darunter z. B. unsere acht bestehenden Regionen in Europa, AWS Dedicated Local Zones und AWS Outposts, helfen wir Ihnen, Ihre individuellen Anforderungen an die digitale Souveränität zu erfüllen. Die AWS European Sovereign Cloud bietet Ihnen eine weitere Wahlmöglichkeit. Sie können in unseren bestehenden „sovereign-by-design“-Regionen anfangen und bei Bedarf in die AWS European Sovereign Cloud migrieren. Wenn Sie weitere Optionen benötigen, um eine Isolierung zu ermöglichen und strenge Anforderungen an den Ort der Datenverarbeitung in einem bestimmten Land zu erfüllen, können Sie auf AWS Dedicated Local Zones oder AWS Outposts zurückgreifen, um die Infrastruktur der AWS European Sovereign Cloud am Ort Ihrer Wahl zu nutzen.
Sie können schon heute Machbarkeitsstudien durchführen und praktische Erfahrung sammeln, sodass Sie sofort loslegen können, wenn die AWS European Sovereign Cloud 2025 eröffnet wird. Beispielsweise können Sie AWS CloudFormation nutzen, um AWS Ressourcen aus einer bestehenden Region automatisiert bereitzustellen und sich damit auf die AWS European Sovereign Cloud vorzubereiten. Mithilfe von AWS CloudFormation können Sie Services wie Amazon EC2, Amazon Simple Notification Service (Amazon SNS) und Elastic Load Balancing nutzen, um sehr zuverlässige, stark skalierbare und kosteneffiziente Anwendungen in der Cloud zu entwickeln – wiederholbar, prüfbar und automatisierbar. Sie können Amazon SageMaker nutzen, um Ihre Modelle für maschinelles Lernen (darunter auch große Sprachmodelle (LLMs) oder andere Grundlagenmodelle) zu entwickeln, zu trainieren und bereitzustellen. Mit Amazon S3 profitieren Sie von der automatischen Verschlüsselung aller Objekt-Uploads. Sollten Sie aufgrund rechtlicher Vorgaben Ihre Verschlüsselungsschlüssel vor Ort oder außerhalb von AWS speichern und nutzen müssen, können Sie den AWS KMS External Key Store nutzen.
Ganz gleich, ob Sie zum ersten Mal in die Cloud migrieren, die AWS European Sovereign Cloud in Erwägung ziehen oder Ihre Anwendungen modernisieren, um Cloud-Services zu Ihrem Vorteil zu nutzen – Sie profitieren in jedem Fall von unserer Erfahrung, denn wir helfen Organisationen jeder Größe, in die Cloud zu migrieren und in der Cloud zu wachsen. Wir bieten eine große Bandbreite an Ressourcen, mit denen Sie die Cloud effektiv nutzen und Ihre Cloud-Migration sowie Ihre Modernisierungsreise beschleunigen können. Dazu gehören das AWS Cloud Adoption Framework und das AWS Migration Acceleration Programm. Unser globales AWS Training and Certification Programm hilft allen Lernenden und Organisationen, benötigte Cloud-Fähigkeiten zu erlangen und die vorhandene Expertise zu validieren – mit kostenlosen und kostengünstigen Schulungen und branchenweit anerkannten AWS-Zertifizierungen, darunter auch mehr als 100 Schulungen für KI und maschinelles Lernen (ML).
Kunden und Partner begrüßen die Service-Roadmap der AWS European Sovereign Cloud
Adobe ist weltweit führend in der Erstellung, Verwaltung und Optimierung digitaler Erlebnisse. Adobe Experience Manager (AEM) Managed Services nutzt seit über 12 Jahren die AWS Cloud, um Adobe-Kunden die Nutzung von AEM Managed Services zu ermöglichen. „Im Laufe der Jahre hat AEM Managed Services sich auf die vier Grundpfeiler Sicherheit, Datenschutz, Regulierung und Governance konzentriert, um sicherzustellen, dass Adobe-Kunden branchenführende Werkzeuge zur Verwaltung ihrer digitalen Erlebnisse zur Verfügung haben“, sagt Mitch Nelson, Senior Director, Worldwide Managed Services bei Adobe. „Wir freuen uns über die Einführung der AWS European Sovereign Cloud und die Möglichkeit, diese an Adobes Single Sovereign Architecture for AEM Angebot auszurichten. Wir freuen uns darauf, zu den Ersten zu gehören, die Adobe-Kunden die AWS European Sovereign Cloud zur Verfügung stellen“.
adesso SE ist ein führender deutscher IT-Service-Provider, der Kunden dabei hilft, zentrale Unternehmensprozesse mithilfe moderner IT zu optimieren. Durch die Zusammenarbeit von adesso SE und AWS können Organisationen ihre digitale Transformation mithilfe maßgeschneiderter Lösungen schnell und effektiv vorantreiben. „Mit der AWS European Sovereign Cloud bietet AWS eine weitere Möglichkeit, die Kunden dabei hilft, den komplexen Herausforderungen der sich ständig ändernden Bestimmungen und Vorschriften zu begegnen. Organisationen aus dem öffentlichen Sektor und aus stark regulierten Branchen nutzen die AWS Cloud bereits, um die Anforderungen an ihre digitale Souveränität erfüllen zu können. Die AWS European Sovereign Cloud wird ihnen zusätzliche Chancen und Möglichkeiten eröffnen“, so Markus Ostertag, Chief AWS Technologist, adesso SE. „Als einer der größten IT-Service-Provider Deutschlands können wir deutlich sehen, welche Vorteile das Service-Portfolio der AWS European Sovereign Cloud bietet und wie es Kunden hilft, Innovationen voranzutreiben und gleichzeitig die benötigte Verlässlichkeit, Resilienz und Verfügbarkeit zu erlangen. AWS und adesso SE haben ein gemeinsames Ziel, denn wir streben beide danach, die individuellen Anforderungen unserer Kunden zu erfüllen. Wir freuen uns darauf, weiterhin EU-weit Unternehmen dabei zu helfen, sich weiterzuentwickeln.“
Genesys, eine weltweit führende KI-gestützte Plattform für die Orchestrierung von Kundenerlebnissen, unterstützt mehr als 8.000 Organisationen in über 100 Ländern dabei, personalisierte End-To-End-Erlebnisse nach Maß bereitzustellen. Genesys Cloud wird auf AWS betrieben und die beiden Unternehmen arbeiten schon lange eng zusammen, um ihrer gemeinsamen globalen Kundenbasis skalierbare, sichere und innovative Services zu bieten. „Genesys ist ein Vorreiter auf ihrem Gebiet. Wir helfen Unternehmen dabei, mithilfe von KI die Kundenloyalität zu verbessern und die Produktivität und das Engagement der Mitarbeitenden zu steigern“, erklärt Glenn Nethercutt, Chief Technology Officer bei Genesys. „Mit der Bereitstellung der Cloud-Plattform von Genesys in der AWS European Sovereign Cloud ermöglichen wir es noch mehr Unternehmen in ganz Europa, hochmoderne Anwendungen für ein besseres Kundenerlebnis zu entwickeln und bereitzustellen, und gleichzeitig strenge gesetzliche Vorgaben sowie Anforderungen an die digitale Souveränität einzuhalten. Europa ist ein wichtiger Akteur in der globalen Wirtschaft und ein Verfechter strenger Datenschutzstandards. Bei ihrer Einführung wird die AWS European Sovereign Cloud eine umfassende Service-Suite bieten, um Unternehmen dabei zu helfen, sowohl datenschutzrechtliche als auch regulatorische Anforderungen zu erfüllen. Die Partnerschaft verstärkt unsere anhaltenden Investitionen in der Region. Genesys und AWS werden weiterhin zusammenarbeiten, um die einzigartigen Herausforderungen anzugehen, denen sich europäische Unternehmen gegenübersehen – vor allem jene in stark regulierten Branchen wie dem Finanz- und Gesundheitswesen.“
Pega bietet globalen Kunden eine starke Plattform für die KI-gestützte Entscheidungsfindung und Workflow-Automatisierung, mit der sie ihre größten Herausforderungen meistern – von der Personalisierung des Engagements über die Automatisierung von Services bis hin zur Optimierung von Betriebsabläufen. Dank der strategischen Zusammenarbeit mit AWS konnte Pega ihr As-a-Service-Geschäft transformieren und Kunden einen stark skalierbaren, verlässlichen und agilen Weg bieten, die Pega-Plattform in aller Welt zu erleben. „Die Zusammenarbeit von AWS und Pega wird unsere Verpflichtung gegenüber unseren Kunden in der EU stärken, ihre Daten in der Region zu speichern und zu verarbeiten“, freut sich Frank Guerrera, Chief Technical Systems Officer bei Pegasystems. „Unsere gemeinsame Lösung, die die Vorteile der AWS European Sovereign Cloud nutzen wird, erlaubt Pega, Souveränitätszusagen auf allen Ebenen des Services zu treffen, von der Pega-Plattform über unterstützende Technologien bis hin zur erforderlichen Infrastruktur. Diese Lösung vereint den bereits vorhandenen strengen Ansatz der Pega Cloud an Datenisolierung, Menschen und Prozesse mit der neuen, innovativen AWS European Sovereign Cloud, um unseren Kunden aus dem öffentlichen Sektor und aus stark regulierten Branchen mehr Flexibilität zu bieten.“
SVA System Vertrieb Alexander GmbH ist einer der führenden inhabergeführten IT-Dienstleister Deutschlands und bietet seinen mehr als 3.000 Kunden mit über 3.200 talentierten Mitarbeitenden an 27 Standorten im Land branchenführende Lösungen. Die bereits zehn Jahre andauernde Zusammenarbeit von SVA und AWS hat dabei geholfen, Kunden aus allen Branchen bei der Migration und Modernisierung ihrer Workloads von eigenen Standorten zu AWS zu unterstützen oder beim Aufbau ganz neuer Lösungen. „Die AWS European Sovereign Cloud ist auf die spezifischen Anforderungen stark regulierter Kunden ausgerichtet. Sie kann die Hürden für diese Branchen mindern und ihnen ein riesiges Digitalisierungspotenzial eröffnen“, sagt Patrick Glawe, AWS Alliance Lead bei SVA System Vertrieb Alexander GmbH. „Angesichts unserer umfassenden Lösungen für den öffentlichen Sektor und regulierte Branchen verfolgen wir aufmerksam die Diskussionen rund um den Einsatz der Cloud und werden bald eine Option anbieten, mit der ein hochinnovatives Ökosystem entwickelt werden kann, das die höchsten Anforderungen an den Datenschutz, an die Einhaltung gesetzlicher Vorschriften und an die digitale Souveränität erfüllt. Das wird enorme Auswirkungen auf die Digitalisierungspläne der Europäischen Union haben.“
Wir sind weiterhin bestrebt, unseren Kunden mehr Kontrolle und weitere Optionen anzubieten, damit sie die Vorteile der Innovationsmöglichkeiten, die ihnen die Cloud bietet, nutzen und gleichzeitig alle individuellen Anforderungen an die digitale Souveränität erfüllen können – ohne auf die volle Leistungsfähigkeit von AWS verzichten zu müssen. Erfahren Sie mehr über die AWS European Sovereign Cloud auf unserer European Digital Sovereignty Website. Wir werden Sie vor dem Start 2025 kontinuierlich auf dem Laufenden halten.
Italian version
Presentiamo l’offerta di servizi base disponibili nell’AWS European Sovereign Cloud, basato sull’eccezionale potenza di calcolo di AWS
Il mese scorso abbiamo annunciato il nostro investimento nell’AWS European Sovereign Cloud pari a 7,8 miliardi di Euro, per sviluppare un nuovo cloud indipendente, dedicato al mercato europeo, che entrerà in servizio per la fine del 2025. Stiamo sviluppando l’AWS European Sovereign Cloud per offrire a una clientela formata da imprese del settore pubblico, e di settori altamente regolamentati, una scelta più ampia di soluzioni che rispondano alle loro specifiche esigenze in fatto di sovranità digitale, e che soddisfino rigorosi requisiti in tema di residenza dei dati, autonomia operativa e resilienza.
I clienti e i partner che sfruttano l’AWS European Sovereign Cloud potranno beneficiare di tutto il potenziale offerto da AWS che include la stessa architettura di sempre, basata su un ventaglio di servizi, API e funzionalità di sicurezza già disponibili nelle 33 Regioni AWS esistenti. Oggi, siamo lieti di annunciare la prima roadmap dei servizi disponibili nell’AWS European Sovereign Cloud. Questo annuncio sottolinea quanto sia ampio e strutturato il portfolio di servizi che saranno disponibili all’interno di questo Cloud, ideati per rispondere alle esigenze di clienti e partner, confermando il nostro impegno a fornire il set più avanzato di controlli sovrani e funzionalità disponibili in un ambiente cloud.
Il AWS European Sovereign Cloud è stato progettato per essere “sovereign-by-design”, proprio come abbiamo ideato il Cloud AWS sin dalle origini. Abbiamo progettato un’infrastruttura globale sicura e altamente accessibile, implementato salvaguardie all’interno dei nostri meccanismi di progettazione e implementazione del servizio e integrato la resilienza nella nostra cultura operativa. I nostri clienti possono beneficiare di un cloud ideato per aiutarli a rispondere alle esigenze di interlocutori che operano in settori critici per la sicurezza. Ogni regione è composta da una serie di Zone di Disponibilità, ognuna composta da uno o più data center riservati, dotati di alimentazione, connettività e rete ridondante. La prima regione del AWS European Sovereign Cloud nel Lander tedesco di Brandeburgo, mentre l’infrastruttura sarà situata interamente all’interno dell’Unione Europea. Al pari delle nostre Regioni già esistenti, l’AWS European Sovereign Cloud sarà basato sul AWS Nitro System. Il Nitro System alla base dei servizi offerti dal nostro avvenieristico Amazon Elastic Compute Cloud (Amazon EC2) garantendo un perimetro di sicurezza fisico e logico di livello assoluto, capace di applicare restrizioni di accesso in modo tale che nessuno, nemmeno i dipendenti AWS, possano accedere ai dati dei clienti in esecuzione su Amazon EC2.
Roadmap dell’implementazione dei servizi offerti nell’AWS European Sovereign Cloud
Quando attiviamo una nuova Regione, partiamo dai servizi di base necessari per supportare carichi di lavoro e applicazioni fondamentali, per poi espandere la nostra offerta di servizi in base alle richieste di clienti e partner. Nella fase iniziale, il AWS European Sovereign Cloud offrirà servizi provenienti da un ampio ventaglio di categorie, come quelli dedicati all’intelligenza artificiale – Amazon SageMaker, Amazon Q, e Amazon Bedrock, al calcolo informatico – Amazon EC2 e AWS Lambda, ai container – Amazon Elastic Kubernetes Service (Amazon EKS) e Amazon Elastic Container Service (Amazon ECS), ai database – Amazon Aurora, Amazon DynamoDB, e Amazon Relational Database Service (Amazon RDS), al networking – Amazon Virtual Private Cloud (Amazon VPC), alla sicurezza – AWS Key Management Service (AWS KMS) e AWS Private Certificate Authority, oltre allo storage – Amazon Simple Storage Service (Amazon S3) e Amazon Elastic Block Store (Amazon EBS). Il AWS European Sovereign Cloud potrà vantare propri sistemi indipendenti di identificazione e accesso (IAM), di fatturazione e di rendicontazione dell’utilizzo, tutti operati in modo autonomo dalle Regioni esistenti. Questi sistemi sono ideati per consentire agli utenti che sfruttano il AWS European Sovereign Cloud di mantenere tutti i dati dei clienti, compresi i metadati creati come ruoli, permessi, etichette di risorse e configurazioni usate per operare in AWS, all’interno dell’Unione Europea. Inoltre, i clienti che usano il AWS European Sovereign Cloud saranno in grado di sfruttare il Marketplace AWS, ovvero, un catalogo digitale che rende più semplice individuare, testare, acquistare e implementare software di terze parti. Per assistere clienti e partner nella loro implementazione del AWS European Sovereign Cloud, abbiamo pubblicato una roadmap dei servizi base consultabile al termine di questo articolo.
Crea da subito la tua sovranità digitale su AWS
AWS si impegna a offrire ai propri clienti il più avanzato set di controlli e funzionalità di sovranità disponibili sul cloud. Mettiamo a disposizione un’ampia gamma di soluzioni dedicate alle tue specifiche esigenze in fatto di sovranità digitale, incluse le nostre otto Regioni esistenti in Europa, AWS Dedicated Local Zones e AWS Outposts, mentre il AWS European Sovereign CloudS è un’ulteriore opzione su cui fare affidamento. Puoi iniziare a lavorare all’interno delle nostre Regioni “sovereign-by-design”, e in caso di necessità, migrare all’interno del AWS European Sovereign Cloud. Se devi ottemperare a rigorose normative in materia di compartimentazione e residenza locale dei dati, possiamo mettere a disposizione anche Dedicated Local Zones o Outposts per usufruire dell’architettura offerta dal Cloud sovrano europeo AWS nella località di tua scelta.
Oggi puoi condurre esercitazioni di “proof-of-concept” per acquisire esperienza pratica capace di apportare un impatto significativo alla tua attività quando l’AWS European Sovereign Cloud sarà attivo nel 2025. Ad esempio, puoi sfruttare la AWS CloudFormation per avviare e impostare l’implementazione dell’infrastruttura AWS in modo puntuale e ripetuto all’interno di una Regione esistente come attività preparatoria all’adozione del AWS European Sovereign Cloud. Grazie alla AWS CloudFormation, puoi sfruttare servizi come Amazon EC2, Amazon Simple Notification Service (Amazon SNS) e il sistema Elastic Load Balancing per creare applicazioni nel cloud che spiccano per affidabilità, scalabilità ed economicità in un modo ripetibile, verificabile e automatizzato. Puoi usare Amazon SageMaker per progettare, addestrare e impegnare i tuoi modelli di machine learning (inclusi i modelli linguistici di grandi dimensioni e i modelli di fondazione). Puoi usare Amazon S3 per sfruttare i vantaggi della crittografia automatica su tutti i caricamenti di oggetti. Se hai esigenze normative che richiedono di archiviare e utilizzare le tue chiavi di crittografia in locale o all’esterno di AWS, puoi usare il AWS KMS External Key Store.
Qualora tu stia effettuando per la prima volta la migrazione verso il cloud, prendendo in considerazione l’utilizzo del AWS European Sovereign Cloud o aggiornando i tuoi applicativi per avvalerti dei servizi cloud, puoi beneficiare dalla nostra esperienza nell’assistere realtà di ogni dimensione che intendono adottare il cloud per sfruttare al meglio il suo potenziale. Offriamo un’ampia gamma di risorse da adottare in modo efficiente nel cloud, così da accelerare il tuo percorso di modernizzazione e migrazione verso il cloud, tra cui spiccano l’AWS Cloud Adoption Framework e l’AWS Migration Acceleration Program. Il nostro programma globale di Formazione e Certificazione AWS è al fianco di personale in formazione e imprese per sviluppare competenze cloud richieste dal mercato e convalidare le proprie conoscenze attraverso percorsi formativi gratuiti e a basso costo, insieme alle credenziali di certificazione AWS riconosciute dal settore che includono oltre 100 risorse didattiche per l’IA e il machine learning (ML).
Clienti e partner danno il benvenuto alla roadmap dell’implementazione dei servizi offerti nell’AWS European Sovereign Cloud
Adobe è il leader mondiale nella creazione, gestione e ottimizzazione delle esperienze digitali. Da oltre dodici anni, Adobe Experience Manager (AEM) Managed Services sfrutta il cloud AWS per supportare l’utilizzo di AEM Managed Services da parte dei clienti Adobe. “Nel corso degli anni, AEM Managed Services si è dimostrato un servizio incentrato su quattro elementi fondamentali come sicurezza, privacy, regolamentazione e governance per garantire che i clienti Adobe possano usare i migliori strumenti di gestione digitale disponibili sul mercato” Ha confermato Mitch Nelson, Senior Director, Workdwide Managed Services di Adobe. “Siamo lieti di presentare l’AWS European Sovereign Cloud e l’opportunità che rappresenta per allinearsi con l’architettura Single Sovereign di Adobe per l’offerta AEM. Non vediamo l’ora di essere tra i primi a fornire il servizio AWS European Sovereign Cloud ai clienti Adobe.”
Adesso SE è un fornitore leader di servizi IT localizzato in Germania, sempre al fianco dei clienti che intendono ottimizzare i principali processi aziendali grazie a una tecnologia digitale all’avanguardia. Adesso SE e AWS lavorano al fianco delle imprese per guidare le trasformazioni digitali in modo rapido ed efficiente grazie a soluzioni su misura. “Con il Cloud sovrano europeo, AWS mette in campo un’ulteriore soluzione ideata per aiutare i clienti a superare agevolmente la complessità di regole e normative in perenne evoluzione. Operatori del settore pubblico e di settori regolamentati stanno già sfruttando AWS Cloud per soddisfare i propri requisiti di sovranità digitale e l’AWS European Sovereign Cloud sbloccherà nuove e interessanti opportunità“, ha affermato Markus Ostertag, Chief AWS Technologist di Adesso SE. “In quanto uno dei principali fornitori tedeschi di servizi IT, siamo consapevoli dei vantaggi che il portfolio di servizi del Cloud sovrano europeo potrà offrire ai clienti che intendono innovare senza rinunciare all’affidabilità, alla resilienza e alla disponibilità di cui hanno bisogno. AWS e Adesso SE sono unite nel soddisfare le specifiche esigenze dei nostri clienti e non vediamo l’ora di continuare a supportare le imprese di tutta l’Unione Europea nel loro percorso di innovazione“.
Genesys, leader globale nell’orchestrazione dell’esperienza basata sull’IA, consente a più di 8.000 imprese dislocate in oltre 100 paesi di offrire esperienze personalizzate e complete su ampia scala. Grazie all’implementazione di Genesys Cloud su AWS, le due aziende firmano una partnership a lungo termine per fornire servizi scalabili, sicuri e innovativi alla loro clientela globale. “Con le sue soluzioni all’avanguardia, Genesys è al fianco delle imprese che intendono sfruttare l’IA per fidelizzare la clientela, aumentando al contempo i livelli di produttività e di coinvolgimento dei dipendenti”, ha affermato Glenn Nethercutt, Chief Technology Officer di Genesys. “L’implementazione della piattaforma Genesys Cloud sul Cloud sovrano europeo AWS potrà consentire a un numero ancora più elevato di imprese in tutta Europa di sperimentare, creare e adottare applicazioni all’avanguardia dedicate alla customer experience, rispettando le normative e i più rigorosi requisiti in fatto di sovranità dei dati. Oltre a essere una potenza mondiale a livello economico, l’Europa si distingue per le sue norme di protezione dei dati e in questo contesto favorevole, l’AWS European Sovereign Cloud sin dalla sua entrata in servizio potrà offrire un ventaglio completo di servizi dedicati alle imprese chiamate a soddisfare sia i requisiti di privacy dei dati che quelli normativi. Questa partnership è il segno tangibile del nostro impegno finanziario a lungo termine nella regione, con Genesys e AWS che confermano e rafforzano il proprio impegno nel rispondere alle sfide che le imprese europee sono chiamate ad affrontare, soprattutto nei settori altamente regolamentati come finanza e sanità”.
Pega fornisce una piattaforma a prestazioni elevate che mette i nostri clienti globali nelle migliori condizioni per sfruttare le nostre soluzioni IA dedicate all’automatizzazione di processi decisionali e flussi di lavoro, ideate per rispondere alle più importanti esigenze aziendali, dalla personalizzazione dell’engagement all’automazione dell’assistenza, fino all’ottimizzazione dell’operatività. La collaborazione strategica tra Pega e AWS ha consentito a Pega di trasformare il proprio modello di “business as-a-Service” in un modello altamente scalabile, affidabile e agile in grado di consentire ai nostri clienti di sperimentare la piattaforma Pega in tutto il mondo. “La collaborazione tra AWS e Pega sarà l’occasione per rafforzare il nostro impegno verso i nostri clienti basati nell’Unione Europea che necessitano di conservare ed elaborare i propri dati all’interno di questa regione”, ha affermato Frank Guerrera, chief technical systems officer di Pegasystems. “Potendo sfruttare l’AWS European Sovereign Cloud, la nostra soluzione integrata consentirà a Pega di garantire sovranità su tutti i livelli di servizio, dalla piattaforma di Pega passando per le tecnologie di supporto, fino all’infrastruttura di implementazione. Questa soluzione abbina il rigoroso approccio verso l’isolamento dei dati, la clientela e le procedure garantito dal Cloud di Pega con il nuovo e innovativo Cloud sovrano europeo firmato AWS per offrire flessibilità ai nostri clienti del settore pubblico e dei settori altamente regolamentati”.
SVA System Vertrieb Alexander GmbH è uno dei più importanti system integrator in Germania, la cui proprietà è ancora detenuta dal fondatore, con una forza lavoro di oltre 3200 talenti distribuiti in 27 uffici su tutto il territorio nazionale, che fornisce soluzioni all’avanguardia a una platea di oltre 3000 clienti. Da 10 anni, la collaborazione tra SVA e AWS si distingue per il continuo sostegno a clienti di ogni settore e ambito operativo che intendono aggiornare e migrare i propri flussi di lavoro da soluzioni in-house verso AWS, oppure, creare soluzioni ex-novo. “l’AWS European Sovereign Cloud risponde a specifiche esigenze dei clienti altamente regolamentati, contribuendo così alla riduzione delle barriere di ingresso per sbloccare il loro immenso potenziale nell’ambito digitale,” ha detto Patrik Glawe, AWS Alliance Lead presso SVA System Vertrieb Alexander GmbH. “ Potendo contare su un’ampia copertura del settore pubblico e dei settori altamente regolamentati, conosciamo alla perfezione le esigenze di chi vuole passare al cloud e stiamo lavorando per offrire a stretto giro una soluzione capace di progettare un ecosistema altamente innovativo in grado di soddisfare i più elevati standard di protezione dei dati, conformità normativa e requisiti di sovranità digitale. Il nostro lavoro avrà un impatto significativo sull’agenda di digitalizzazione dell’Unione Europea.”
Ribadiamo il nostro impegno nel garantire ai nostri clienti livelli ancora più elevati di scelta e di controllo per sfruttare al massimo i vantaggi offerti dal cloud, il tutto fornendo loro assistenza nel rispondere a specifiche esigenze in fatto di sovranità digitale, senza rinunciare a tutta la potenza di AWS. Per saperne di più sul AWS European Sovereign Cloud, consulta il sito web della Sovranità Digitale europea per non perderti gli ultimi aggiornamenti mentre proseguiamo nel nostro lavoro in vista della presentazione nel 2025.
Spanish version
Anuncio de los servicios disponibles inicialmente en la AWS European Sovereign Cloud, respaldada por todo el potencial de AWS
El mes pasado, compartimos nuestra decisión de invertir 7.800 millones de euros en la AWS European Sovereign Cloud, una nueva nube independiente para Europa cuyo lanzamiento está previsto para finales de 2025. Estamos diseñando la AWS European Sovereign Cloud para ofrecer más opciones a organizaciones del sector público y clientes de industrias muy reguladas contribuyendo así a cumplir tanto sus necesidades particulares de soberanía digital como los estrictos requisitos de resiliencia, autonomía operativa y residencia de datos. Los clientes y socios que usen la AWS European Sovereign Cloud se beneficiarán de la plena capacidad de AWS, incluyendo la arquitectura, la cartera de servicios, las API y las características de seguridad ya disponibles en nuestras 33 regiones de AWS. Hoy, anunciamos con entusiasmo una hoja de ruta sobre los servicios iniciales que estarán a disposición en la AWS European Sovereign Cloud. Este comunicado pone de manifiesto el gran alcance de la cartera de servicios de la AWS European Sovereign Cloud, diseñada para satisfacer la demanda de clientes y socios y, al mismo tiempo, ser fieles a nuestro compromiso de proporcionar el conjunto de funciones y controles de soberanía más avanzado que existe en la nube.
La AWS European Sovereign Cloud es construida soberana por diseño, como lo ha sido la nube de AWS desde el primer día. Hemos creado una infraestructura global segura y altamente disponible, integrado medidas de protección en nuestros mecanismos de diseño e implementación de servicios e infundido resiliencia en nuestra cultura operativa. Nuestros clientes se benefician de una nube ideada para ayudarles a satisfacer los requisitos de organizaciones que dan la máxima importancia a la seguridad. Cada región está compuesta por múltiples zonas de disponibilidad formadas a su vez por uno o más centros de datos, cada uno con potencia, conectividad y redes redundantes. La primera región de la AWS European Sovereign Cloud se ubicará en el estado federado de Brandeburgo (Alemania), con toda su infraestructura emplazada dentro de la Unión Europea (UE). Como las regiones existentes, la AWS European Sovereign Cloud funcionará gracias a la tecnología del AWS Nitro System, que es la base de todas nuestras modernas instancias de Amazon Elastic Compute Cloud (Amazon EC2) y proporciona sólida seguridad física y lógica para hacer cumplir las restricciones de modo que nadie, ni siquiera los empleados de AWS, puedan acceder a los datos de los clientes en Amazon EC2.
Hoja de ruta sobre los servicios de la AWS European Sovereign Cloud
Cómo empezar a construir soberanía hoy mismo con AWS
AWS tiene el compromiso de proporcionar a los clientes el conjunto de funciones y controles de soberanía más avanzado que existe en la nube. Contamos con una amplia oferta para ayudar a cumplir necesidades particulares de soberanía digital, incluyendo nuestras seis regiones en la Unión Europea, AWS Dedicated Local Zones y AWS Outposts. La AWS European Sovereign Cloud es una opción más que se puede elegir. Es posible empezar a trabajar en nuestras regiones soberanas por diseño y, de ser necesario, realizar la migración a la AWS European Sovereign Cloud. Quien deba cumplir estrictos requisitos de aislamiento y residencia de datos a escala nacional también podrá usar Dedicated Local Zones u Outposts para implementar la infraestructura de la AWS European Sovereign Cloud en las ubicaciones seleccionadas.
Actualmente, es posible llevar a cabo pruebas de concepto y adquirir experiencia práctica para empezar con buen pie cuando se lance la AWS European Sovereign Cloud en 2025. Por ejemplo, se puede usar AWS CloudFormation para crear y aprovisionar las implementaciones de la infraestructura de AWS de forma predecible y repetida en una región existente como preparación para la AWS European Sovereign Cloud. AWS CloudFormation permite aprovechar servicios como Amazon EC2, Amazon Simple Notification Service (Amazon SNS) y Elastic Load Balancing para diseñar en la nube aplicaciones de lo más fiables, escalables y rentables de manera reproducible, auditable y automatizable. Asimismo, se puede usar Amazon SageMaker para diseñar, probar e implementar modelos de aprendizaje automático (incluyendo modelos de lenguaje grande y otros modelos fundacionales). También se puede usar Amazon S3 para beneficiarse del cifrado automático en todas las cargas de objetos. Quien tenga necesidad de almacenar y utilizar sus claves de cifrado dentro o fuera de AWS por motivos de regulación puede recurrir a External Key Store de AWS KMS.
Tanto si uno decide realizar la migración a la nube por primera vez, se plantea usar la AWS European Sovereign Cloud o desea modernizar sus aplicaciones para sacar partido de los servicios en la nube, puede beneficiarse de nuestra experiencia en ayudar a organizaciones de todos los tamaños a apostar con éxito por la nube. Ofrecemos una amplia gama de recursos para adoptar la nube de forma efectiva y acelerar el proceso de migración y modernización, incluyendo AWS Cloud Adoption Framework y Migration Acceleration Program de AWS. Nuestro programa global AWS Training and Certification ayuda a quienes están aprendiendo y a organizaciones a obtener capacidades solicitadas en el ámbito de la nube y validar su experiencia con cursos gratuitos o de bajo coste y credenciales de AWS Certification reconocidas por la industria, incluyendo más de 100 recursos de formación en materia de inteligencia artificial y aprendizaje automático.
Clientes y socios reciben con brazos abiertos la hoja de ruta sobre los servicios de la AWS European Sovereign Cloud
Adobe es el líder mundial en la creación, gestión y optimización de experiencias digitales. Durante más de doce años, la nube de AWS ha ayudado a los clientes de Adobe a usar Adobe Experience Manager (AEM) Managed Services. “A lo largo del tiempo, AEM Managed Services se ha centrado en los cuatro pilares de seguridad, privacidad, regulación y gobernanza para garantizar que los clientes de Adobe tengan a su disposición las mejores herramientas de gestión de la experiencia digital”, declaró Mitch Nelson, director senior de Servicios Administrados Mundiales en Adobe. “Nos entusiasma tanto el lanzamiento de la AWS European Sovereign Cloud como la oportunidad que ofrece de alinearse con la Single Sovereign Architecture de Adobe para la oferta de AEM. Deseamos estar entre los primeros en proporcionar la AWS European Sovereign Cloud a los clientes de Adobe.”
adesso SE es un proveedor de servicios informáticos líder en Alemania que se centra en ayudar a los clientes a optimizar los principales procesos empresariales con una infraestructura de TI moderna. adesso SE y AWS vienen colaborando para impulsar la transformación digital de las organizaciones de forma rápida y eficiente mediante soluciones personalizadas. “Con la nube soberana europea, AWS ofrece otra opción que puede ayudar a los clientes a lidiar con la complejidad de los cambios en normas y reglamentos. Varias organizaciones del sector público e industrias reguladas ya usan la nube de AWS para cumplir sus requisitos de soberanía digital, y la AWS European Sovereign Cloud proporcionará oportunidades adicionales”, afirmó Markus Ostertag, responsable de tecnología de AWS en adesso SE. “Como uno de los proveedores de servicios informáticos más importantes de Alemania, somos conscientes de los beneficios que aportará la cartera de servicios de la Nube Soberana Europea a la hora de ayudar a los clientes a innovar y, al mismo tiempo, obtener la fiabilidad, resiliencia y disponibilidad que necesitan. AWS y adesso SE comparten el compromiso mutuo de satisfacer las necesidades particulares de los clientes y deseamos seguir ayudando a avanzar a organizaciones de toda la UE”.
Genesys, líder mundial en orquestación de experiencias impulsadas por la inteligencia artificial, ayuda a más de 8000 organizaciones en más de 100 países a proporcionar una experiencia end-to-end personalizada a escala. Al combinar Genesys Cloud con AWS, las compañías mantienen su larga colaboración para ofrecer servicios escalables, seguros e innovadores a una clientela global común. “Genesys está a la vanguardia cuando se trata de ayudar a las empresas a usar la inteligencia artificial para fidelizar a los clientes y fomentar la productividad y el compromiso de los empleados”, declaró Glenn Nethercutt, director tecnológico en Genesys. “Integrar la plataforma Genesys Cloud en la AWS European Sovereign Cloud permitirá que aún más organizaciones europeas diseñen, prueben e implementen aplicaciones de experiencia del cliente punteras y, al mismo tiempo, cumplan los estrictos requisitos de regulación y soberanía de datos. Europa desempeña un papel clave en la economía global y da ejemplo en materia de estándares de protección de datos; en el momento de su lanzamiento, la AWS European Sovereign Cloud ofrecerá un completo paquete de servicios para ayudar a las empresas a cumplir los requisitos de regulación y privacidad de datos. Esta colaboración reafirma nuestra continua inversión en la región, y Genesys y AWS mantienen el compromiso de trabajar juntos para abordar los desafíos únicos que afrontan las empresas europeas, especialmente aquellas que operan en industrias muy reguladas, como la financiera y la sanitaria”.
Pega proporciona una potente plataforma que permite que los clientes internacionales usen nuestras soluciones de automatización de flujos de trabajo y toma de decisiones basadas en la inteligencia artificial para resolver sus retos empresariales más urgentes, desde la personalización del compromiso hasta la automatización del servicio y la optimización de las operaciones. El estratégico trabajo de Pega con AWS ha favorecido la transformación de su modelo de negocio como servicio para que constituya una forma extremadamente escalable, fiable y ágil de poner la plataforma de Pega a disposición de nuestros clientes a escala global. “La colaboración entre AWS y Pega reforzará nuestro compromiso con los clientes de la Unión Europea de almacenar y procesar sus datos dentro de la región”, aseguró Frank Guerrera, director técnico de sistemas en Pegasystems. “Nuestra solución combinada, aprovechando la AWS European Sovereign Cloud, permitirá que Pega ofrezca garantías de soberanía en todos los niveles del servicio, desde la plataforma y las tecnologías de soporte hasta la infraestructura básica. Esta solución aúna el estricto enfoque de Pega Cloud sobre los procesos, las personas y el aislamiento de datos con la nueva e innovadora Nube Soberana Europea de AWS para ofrecer flexibilidad a nuestros clientes del sector público e industrias muy reguladas”.
SVA System Vertrieb Alexander GmbH, propiedad del fundador, es un integrador de sistemas líder en Alemania, con más de 3200 empleados y 27 oficinas distribuidas por el país, que ofrece soluciones sin parangón a más de 3000 clientes. La colaboración entre SVA y AWS, iniciada hace 10 años, ha permitido ayudar a clientes de diferentes industrias y verticales a modernizar las cargas de trabajo y realizar su migración a AWS o a diseñar nuevas soluciones desde cero. “La AWS European Sovereign Cloud aborda necesidades específicas de clientes sometidos a una elevada regulación, puede eliminar barreras y liberar un enorme potencial de digitalización para estas verticales”, comentó Patrick Glawe, responsable de AWS Alliance en SVA System Vertrieb Alexander GmbH. Debido a nuestro amplio alcance en el sector público e industrias reguladas, seguimos atentamente los debates sobre la adopción de la nube y pronto ofreceremos la opción de diseñar un ecosistema extremadamente innovador que se ajuste a los estándares más altos en materia de protección de datos, cumplimiento normativo y soberanía digital. Esto ejercerá un gran impacto en la agenda de digitalización de la Unión Europea”.
Reafirmamos nuestro compromiso de ofrecer a los clientes más control y opciones para sacar provecho de la innovación que ofrece la nube y, al mismo tiempo, ayudarlos a cumplir sus necesidades particulares de soberanía digital sin poner en riesgo todo el potencial de AWS. En nuestro sitio web de soberanía digital en Europa ofrecemos más información sobre la AWS European Sovereign Cloud. Asimismo, invitamos a todos los interesados a seguir atentamente nuestras próximas noticias de cara al lanzamiento de 2025.
The 2024 European Parliament election started in the Netherlands today, June 6, 2024, and will continue through June 9 in the other 26 countries that are part of the European Union. Cloudflare observed DDoS attacks targeting multiple election or politically-related Internet properties on election day in the Netherlands, as well as the preceding day.
These elections are highly anticipated. It’s also the first European election without the UK after Brexit.
According to news reports, several websites of political parties in the Netherlands suffered cyberattacks on Thursday, with a pro-Russian hacker group called HackNeT claiming responsibility.
On June 5 and 6, 2024, Cloudflare systems automatically detected and mitigated DDoS attacks that targeted at least three politically-related Dutch websites. Significant attack activity targeted two of them, and is described below.
A DDoS attack, short for Distributed Denial of Service attack, is a type of cyber attack that aims to take down or disrupt Internet services such as websites or mobile apps and make them unavailable for users. DDoS attacks are usually done by flooding the victim’s server with more traffic than it can handle. To learn more about DDoS attacks and other types of attacks, visit our Learning Center.
Attackers typically use DDoS attacks but also exploit other vulnerabilities and types of attacks simultaneously.
Daily DDoS mitigations on June 5 reached over 1 billion HTTP requests in the Netherlands, most of which targeted two election or political party websites. The attack continued on June 6. Attacks on one website peaked on June 5 at 14:00 UTC (16:00 local time) with 115 million requests per hour, with the attack lasting around four hours. Attacks on another politically-related website peaked at the same time at 65 million requests per hour.
On June 6, the first politically-related site with the highest peak on June 5 referenced above was attacked again for several hours. The main attack peak occurred at 11:00 UTC (13:00 local time), with 44 million requests per hour.
The main June 5 DDoS attack on one of the websites peaked at 14:13 UTC (16:13 local time), reaching 73,000 requests per second (rps) in an attack that lasted for a few hours. This attack is illustrated by the blue line in the graph below, which shows that it ramped slowly over the first half of the day, and then appeared to abruptly stop at 18:06. And on June 6, the main attack on the second website peaked at 11:01 UTC (13:01 local time) with 52,000 rps.
Geopolitical motivations
Elections, geopolitical changes, and disputes also impact the online world and cyberattacks. Our DDoS threat report for Q1 2024 gives a few recent examples. One notable case was the 466% surge in DDoS attacks on Sweden after its acceptance into the NATO alliance, mirroring the pattern observed during Finland’s NATO accession in 2023.
As we’ve seen in recent years, real-world conflicts, disputed and highly anticipated elections, and wars are always accompanied by cyberattacks. We reported (1, 2) on an increase in cyberattacks following the start of the Israel-Hamas war on October 7, 2023. We’ve put together a list of recommendations to optimize your defenses against DDoS attacks, and you can also follow our step-by-step wizards to secure your applications and prevent DDoS attacks.
If you want to follow more trends and insights about the Internet and elections in particular, you can check Cloudflare Radar, and more specifically our new 2024 Elections Insights report, that we’re keeping up to date as national elections take place throughout the year.
Between June 6-9 2024, hundreds of millions of European Union (EU) citizens will be voting to elect their members of the European Parliament (MEPs). The European elections, held every five years, are one of the biggest democratic exercises in the world. Voters in each of the 27 EU countries will elect a different number of MEPs according to population size and based on a proportional system, and the 720 newly elected MEPs will take their seats in July. All EU member states have different election processes, institutions, and methods, and the security risks are significant, both in terms of cyber attacks but also with regard to influencing voters through disinformation. This makes the task of securing the European elections a particularly complex one, which requires collaboration between many different institutions and stakeholders, including the private sector. Cloudflare is well positioned to support governments and political campaigns in managing large-scale cyber attacks. We have also helped election entities around the world by providing tools and expertise to protect them from attack. Moreover, through the Athenian Project, Cloudflare works with state and local governments in the United States, as well as governments around the world through international nonprofit partners, to provide Cloudflare’s highest level of protection for free to ensure that constituents have access to reliable election information.
Election security in 2024: dealing with new and upcoming threats
Ensuring a free, fair, and open electoral process and securing candidate campaigns is understandably a top priority for the EU institutions, as well as for national governments and cybersecurity agencies across the EU. European authorities have already taken a number of measures to ensure the elections are well-protected. Efforts to coordinate election security measures amongst the EU countries are led by the NIS Cooperation Group, with the support of the EU Agency for Cybersecurity (ENISA), the European Commission, and the European External Action Service (the EU’s foreign service).
The NIS Cooperation Group recently issued an updated Compendium on safeguarding the elections amidst cybersecurity challenges, noting that “since the last EU elections in 2019, the elections threat landscape has evolved significantly”. Governments note in particular the impact of Artificial Intelligence (AI), including deep fakes, but also the increased sophistication of threat actors and the trend of “hacktivists-for-hire” as new risks that need to be taken into account. European institutions also highlight today’s geopolitical context, with conflicts in Ukraine and the Middle East impacting cyber threats and foreign influence campaigns in Europe.The European External Action Service analyzed cases of FIMI (Foreign Information Manipulation and Interference) during recent national elections in Spain and Poland, and put together suggested plans for governments on how to respond to the various stages of those FIMI campaigns originating from foreign (e.g. non-EU) actors. EU High Representative for Foreign Affairs Josep Borrell said in a recent blog post that protecting the election process and more broadly European public debate from malign foreign actors “is a security challenge, which we need to tackle seriously”.
Some national governments have also warned against the risks of so-called hybrid threats, whereby foreign governments deploy various methods to exert influence on other states, including disinformation campaigns, cyberattacks and espionage. Germany’s Federal Ministry of the Interior notes that “elections are often a catalyst for increased levels of illegitimate activity by foreign governments, because stoking fear and spreading hate can contribute to the polarization of society, influencing voting habits. (…) We must make a determined effort to counter these threats.”
EU readiness for election season
As part of national and EU-level coordination amongst governments and agencies to prepare to mitigate threats and risks to the European elections, ENISA supports national governments’ measures to ensure the elections will be secure, including by organizing a cybersecurity exercise to test the various crisis plans and responses to potential attacks by national and EU level agencies and governments. ENISA has also put together a checklist for authorities in order to raise awareness on specific risks and threats to the election process.
The European Union has also prepared for other phenomena endangering the security and integrity of the election process, including the spread of disinformation via online platforms. For example, the European Commission recently issued strict guidelines for “Very Large Online Platforms” (VLOPs) and “Very Large Search Engines” (VLOSEs) under the EU Digital Services Act on measures to mitigate systemic risks online that may impact the integrity of elections. These large companies will be required to have dedicated staff to monitor for disinformation threats in the 23 official EU languages across the 27 member states, collaborating closely with European cybersecurity authorities. In addition, in line with upcoming EU legislation on transparency of political advertising, political ads on large social media platforms should be clearly labeled as such.
In its 11th EU Threat Landscape report, published in 2023, ENISA also warned about the risks associated with the rise of AI-enabled information manipulation, including the disruptive impacts of AI chatbots. The European Commission, in its efforts to fight the proliferation of deep fakes and sophisticated voter manipulation tactics through advanced generative AI systems, recently launched inquiries into major AI developers and promoted industry pledges in the context of the EU AI Pact.
The view from Cloudflare: increases in cyber attacks around elections
It is likely that the EU is going to see a trend similar to many other jurisdictions where there have been increases in cyber threats targeting election entities. In the period between November 2022 and August 2023, Cloudflare mitigated 213.78 million threats to government election websites in the United States. That amounts to 703,223 threats mitigated per day on average. There is indeed already evidence that European institutions are subject to increasing attacks.
In November 2023, the European Parliament website was subject to a large cyber attack. And in March 2024, French government websites faced attacks of “unprecedented intensity,” according to a spokesperson. A few days before the attacks, on February 25, 2024, Cloudflare blocked a significant DDoS attack on a French government website. It reached as much as 420 million requests per hour and lasted for over three hours.
The UK government warned last year that there were “sustained” cyberattacks against civil society organizations, journalists and public sector groups, as well as phishing attempts directed at British politicians. Most recently, the IT infrastructure of German political party CDU was hit by a “serious cyberattack” according to the German Interior Ministry.
We have also seen that the magnitude of cyber attacks overall is growing every year. As outlined in Cloudflare’s latest DDoS threat report, published in Q1 2024, Cloudflare’s defense systems automatically mitigated 4.5 million DDoS attacks during that first quarter, representing a 50% year-over-year (YoY) increase. EU governments noted in their 2024 Compendium on safeguarding the elections that DDoS attacks “can still be very effective in undermining the public’s trust in the electoral process, especially if affecting its most critical and visible phases – that is the transmission, aggregation and display of voting results”.
However, it is not only an increase in the size of attacks on websites that is keeping election officials up at night. There are often multiple attack vectors that need to be taken into account, and ensuring election processes and public institutions remain secure is a very complicated task. For example, in the three months leading up to the 2022 U.S. midterm elections, Cloudflare prevented around 150,000 phishing emails targeting campaign officials. ENISA’s latest EU Threat Landscape report, when discussing phishing campaigns, pointed to the risks of AI applied to social engineering (e.g. used for crafting more convincing phishing messages), which can make phishing less costly, easier to scale-up, and more effective. These developments all show how securing voter registration systems, ensuring the integrity of election-related information, and planning effective incident response are necessary as online threats grow more and more sophisticated.
Securing the democratic process in the digital age requires partnerships between governments, civil society, and the private sector. Cloudflare has helped election entities around the world by providing tools and expertise to protect themselves from cyberattack. For example, in 2020, we partnered with the International Foundation for Electoral Systems to provide Enterprise-level services to six election management bodies, including the Central Election Commission of Kosovo, State Election Commission of North Macedonia, and many local election bodies in Canada.
Impact on Internet traffic
Cloudflare’s global network, which spans more than 120 countries and protects around 20% of all websites, allows us a unique view of the trends and patterns seen in Internet traffic. Some of those trends, including traffic, connection quality, and Internet outages, can be seen in our Internet insights platform, Cloudflare Radar.
Several of these trends are especially important to watch during election season. Upon deeper analysis, we observed spikes in traffic to websites related to elections, and to news websites, during this time. From data obtained in 2023 through an analysis of US state and local government websites protected under the Athenian Project, as well as US nonprofit organizations that work in voting rights and promoting democracy under Project Galileo, and political campaigns and parties under Cloudflare for Campaigns, Cloudflare observed an increase in traffic to US election and non-profit websites during the run-up to elections, and then a significant spike on election day as seen in the graphs below.
DNS traffic to election domains observed through Cloudflare’s 1.1.1.1 resolver in April 2022, during the first round of the French Presidential elections
Coordinated efforts are key
The protection of election entities and related organizations and institutions is a huge and complex task. As noted, this requires partnerships and collaboration between different actors, both public and private, with specific expertise. The work done by EU governments and agencies to prepare, be ready and collaborate on election security precautions as outlined above is both welcome and necessary in order to ensure free, fair and above all secure elections. This can only ever be a coordinated effort, with both governments and industry working together to ensure a robust response to any threats to the democratic process. For its part, Cloudflare is protecting a number of governmental and political campaign websites across the EU.
We want to ensure that all groups working to promote democracy around the world have the tools they need to stay secure online. If you work in the election space and need our help, please get in touch. If you are an organization looking for protection under Project Galileo, please visit our website at cloudflare.com/galileo.
More information about the European Union elections can be found here. And if you are based in the EU, do not forget to vote!
Amazon Web Services (AWS) continues to believe it’s essential that our customers have control over their data and choices for how they secure and manage that data in the cloud. AWS gives customers the flexibility to choose how and where they want to run their workloads, including a proven track record of innovation to support specialized workloads around the world. While many customers are able to meet their stringent security, sovereignty, and privacy requirements using our existing sovereign-by-design AWS Regions, we know there’s not a one-size-fits-all solution. AWS continues to innovate based on the criteria we know are most important to our customers to give them more choice and more control. Last year we announced the AWS European Sovereign Cloud, a new independent cloud for Europe, designed to give public sector organizations and customers in highly regulated industries further choice to meet their unique sovereignty needs. Today, we’re excited to share more details about the AWS European Sovereign Cloud roadmap so that customers and partners can start planning. The AWS European Sovereign Cloud is planning to launch its first AWS Region in the State of Brandenburg, Germany by the end of 2025. Available to all AWS customers, this effort is backed by a €7.8B investment in infrastructure, jobs creation, and skills development.
The AWS European Sovereign Cloud will utilize the full power of AWS with the same familiar architecture, expansive service portfolio, and APIs that customers use today. This means that customers using the AWS European Sovereign Cloud will get the benefits of AWS infrastructure including industry-leading security, availability, performance, and resilience. We offer a broad set of services, including a full suite of databases, compute, storage, analytics, machine learning and AI, networking, mobile, developer tools, IoT, security, and enterprise applications. Today, customers can start building applications in any existing Region and simply move them to the AWS European Sovereign Cloud when the first Region launches in 2025. Partners in the AWS Partner Network, which features more than 130,000 partners, already provide a range of offerings in our existing AWS Regions to help customers meet requirements and will now be able to seamlessly deploy applications on the AWS European Sovereign Cloud.
More control, more choice
Like our existing Regions, the AWS European Sovereign Cloud will be powered by the AWS Nitro System. The Nitro System is an unparalleled computing backbone for AWS, with security and performance at its core. Its specialized hardware and associated firmware are designed to enforce restrictions so that nobody, including anyone in AWS, can access customer workloads or data running on Amazon Elastic Compute Cloud (Amazon EC2) Nitro based instances. The design of the Nitro System has been validated by the NCC Group, an independent cybersecurity firm. The controls that help prevent operator access are so fundamental to the Nitro System that we’ve added them in our AWS Service Terms to provide an additional contractual assurance to all of our customers.
To date, we have launched 33 Regions around the globe with our secure and sovereign-by-design approach. Customers come to AWS because they want to migrate to and build on a secure cloud foundation. Customers who need to comply with European data residency requirements have the choice to deploy their data to any of our eight existing Regions in Europe (Ireland, Frankfurt, London, Paris, Stockholm, Milan, Zurich, and Spain) to keep their data securely in Europe.
For customers who need to meet additional stringent operational autonomy and data residency requirements within the European Union (EU), the AWS European Sovereign Cloud will be available as another option, with infrastructure wholly located within the EU and operated independently from existing Regions. The AWS European Sovereign Cloud will allow customers to keep all customer data and the metadata they create (such as the roles, permissions, resource labels, and configurations they use to run AWS) in the EU. Customers who need options to address stringent isolation and in-country data residency needs will be able to use AWS Dedicated Local Zones or AWS Outposts to deploy AWS European Sovereign Cloud infrastructure in locations they select. We continue to work with our customers and partners to shape the AWS European Sovereign Cloud, applying learnings from our engagements with European regulators and national cybersecurity authorities.
Continued investment in Europe
Over the last 25 years, we’ve driven economic development through our investment in infrastructure, jobs, and skills in communities and countries across Europe. Since 2010, Amazon has invested more than €150 billion in the EU, and we’re proud to employ more than 150,000 people in permanent roles across the European Single Market.
AWS now plans to invest €7.8 billion in the AWS European Sovereign Cloud by 2040, building on our long-term commitment to Europe and ongoing support of the region’s sovereignty needs. This long-term investment is expected to lead to a ripple effect in the local cloud community through accelerating productivity gains, empowering the digital transformation of businesses, empowering the AWS Partner Network (APN), upskilling the cloud and digital workforce, developing renewable energy projects, and creating a positive impact in the communities where AWS operates. In total, the AWS planned investment is estimated to contribute €17.2 billion to Germany’s total Gross Domestic Product (GDP) through 2040, and support an average 2,800 full-time equivalent jobs in local German businesses each year. These positions, including construction, facility maintenance, engineering, telecommunications, and other jobs within the broader local economy, are part of the AWS data center supply chain.
In addition, AWS is also creating new highly skilled permanent roles to build and operate the AWS European Sovereign Cloud. These jobs will include software engineers, systems developers, and solutions architects. This is part of our commitment that all day-to-day operations of the AWS European Sovereign Cloud will be controlled exclusively by personnel located in the EU, including access to data centers, technical support, and customer service.
In Germany, we also collaborate with local communities on long-term, innovative programs that will have a lasting impact in the areas where our infrastructure is located. This includes developing cloud workforce and education initiatives for learners of all ages, helping to solve for the skills gap and prepare for the tech jobs of the future. For example, last year AWS partnered with Siemens AG to design the first apprenticeship program for AWS data centers in Germany, launched the first national cloud computing certification with the German Chamber of Commerce (DIHK), and established the AWS Skills to Jobs Tech Alliance in Germany. We will work closely with local partners to roll out these skills programs and make sure they are tailored to regional needs.
“High performing, reliable, and secure infrastructure is the most important prerequisite for an increasingly digitalized economy and society. Brandenburg is making progress here. In recent years, we have set on a course to invest in modern and sustainable data center infrastructure in our state, strengthening Brandenburg as a business location. State-of-the-art data centers for secure cloud computing are the basis for a strong digital economy. I am pleased Amazon Web Services (AWS) has chosen Brandenburg for a long-term investment in its cloud computing infrastructure for the AWS European Sovereign Cloud.”
— Brandenburg’s Minister of Economic Affairs, Prof. Dr. Jörg Steinbach
Build confidently with AWS
For customers that are early in their cloud adoption journey and are considering the AWS European Sovereign Cloud, we provide a wide range of resources to help adopt the cloud effectively. From lifting and shifting workloads to migrating entire data centers, customers get the organizational, operational, and technical capabilities needed for a successful migration to AWS. For example, we offer the AWS Cloud Adoption Framework (AWS CAF) to provide best practices for organizations to develop an efficient and effective plan for cloud adoption, and AWS Migration Hub to help assess migration needs, define migration and modernization strategy, and leverage automation. We frequently host AWS events, webinars, and workshops focused on cloud adoption and migration strategies, where customers can learn from AWS experts and connect with other customers and partners.
We’re committed to giving customers more control and more choice to help meet their unique digital sovereignty needs, without compromising on the full power of AWS. The AWS European Sovereign Cloud is a testament to this. To help customers and partners continue to plan and build, we will share additional updates as we drive towards launch. You can discover more about the AWS European Sovereign Cloud on our European Digital Sovereignty website.
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AWS European Sovereign Cloud bis Ende 2025: AWS plant Investitionen in Höhe von 7,8 Milliarden Euro
Amazon Web Services (AWS) ist davon überzeugt, dass es für Kunden von essentieller Bedeutung ist, die Kontrolle über ihre Daten und Auswahlmöglichkeiten zu haben, wie sie diese Daten in der Cloud sichern und verwalten. Daher können Kunden flexibel wählen, wie und wo sie ihre Workloads ausführen. Dazu gehört auch eine langjährige Erfolgsbilanz von Innovationen zur Unterstützung spezialisierter Workloads auf der ganzen Welt. Viele Kunden können bereits ihre strengen Sicherheits-, Souveränitäts- und Datenschutzanforderungen mit unseren AWS-Regionen unter dem „sovereign-by-design“-Ansatz erfüllen. Aber wir wissen ebenso: Es gibt keine Einheitslösung für alle. Daher arbeitet AWS kontinuierlich an Innovationen, die auf jenen Kriterien basieren, die für unsere Kunden am wichtigsten sind und ihnen mehr Auswahl sowie Kontrolle bieten. Vor diesem Hintergrund haben wir letztes Jahr die AWS European Sovereign Cloud angekündigt. Mit ihr entsteht eine neue, unabhängige Cloud für Europa. Sie soll Organisationen des öffentlichen Sektors und Kunden in stark regulierten Branchen dabei helfen, die sich wandelnden Anforderungen an die digitale Souveränität zu erfüllen.
Heute freuen wir uns, dass wir weitere Details über die Roadmap der AWS European Sovereign Cloud bekanntgeben können. So können unsere Kunden und Partner mit ihren weiteren Planungen beginnen. Der Start der ersten Region der AWS European Sovereign Cloud ist in Brandenburg bis zum Jahresende 2025 geplant. Dieses Angebot steht allen AWS-Kunden zur Verfügung und wird von einer Investition in Höhe von 7,8 Milliarden Euro in die Infrastruktur, Arbeitsplatzschaffung und Kompetenzentwicklung unterstützt.
Die AWS European Cloud in Brandenburg bietet die volle Leistungsfähigkeit, mit der bekannten Architektur, dem umfangreichen Angebot an Services und denselben APIs, die Millionen von Kunden bereits kennen. Das bedeutet: Kunden der AWS European Sovereign Cloud profitieren somit bei voller Unabhängigkeit von den bekannten Vorteilen der AWS-Infrastruktur, einschließlich der branchenführenden Sicherheit, Verfügbarkeit, Leistung und Resilienz.
AWS-Kunden haben Zugriff auf ein breites Spektrum an Services – darunter ein umfangreiches Angebot bestehend aus Datenbanken, Datenverarbeitung, Datenspeicherung, Analytics, maschinellem Lernen (ML) und künstlicher Intelligenz (KI), Netzwerken, mobilen Applikationen, Entwickler-Tools, Internet of Things (IoT), Sicherheit und Unternehmensanwendungen. Bereits heute können Kunden Anwendungen in jeder bestehenden Region entwickeln und diese einfach in die AWS European Sovereign Cloud auslagern, sobald die erste AWS-Region 2025 startet. Die Partner im AWS-Partnernetzwerks (APN), das mehr als 130.000 Partner umfasst, bietet bereits eine Reihe von Angeboten in den bestehenden AWS-Regionen an. Dadurch unterstützen sie Kunden dabei, ihre Anforderungen zu erfüllen und Anwendungen einfach in der AWS European Sovereign Cloud bereitzustellen.
Mehr Kontrolle, größere Auswahl
Die AWS European Sovereign Cloud nutzt wie auch unsere bestehenden Regionen das AWS Nitro System. Dabei handelt es sich um einen Computing-Backbone für AWS, bei dem Sicherheit und Leistung im Mittelpunkt stehen. Die spezialisierte Hardware und zugehörige Firmware sind so konzipiert, dass strikte Beschränkungen gelten und niemand, auch nicht AWS selbst, auf die Workloads oder Daten von Kunden zugreifen kann, die auf Amazon Elastic Compute Cloud (Amazon EC2) Nitro-basierten Instanzen laufen. Dieses Design wurde von der NCC Group validiert, einem unabhängigen Unternehmen für Cybersicherheit. Die Kontrollen, die den Zugriff durch Betreiber verhindern, sind grundlegend für das Nitro System. Daher haben wir sie in unsere AWS Service Terms aufgenommen, um allen unseren Kunden diese zusätzliche vertragliche Zusicherung zu geben.
Bis heute haben wir 33 Regionen rund um den Globus mit unserem sicheren und „sovereign-by-design“-Ansatz gestartet. Unsere Kunden nutzen AWS, weil sie auf einer sicheren Cloud-Umgebung migrieren und aufbauen möchten. Für Kunden, die europäische Anforderungen an den Ort der Datenverarbeitung erfüllen müssen, bietet AWS die Möglichkeit, ihre Daten in einer unserer acht bestehenden Regionen in Europa zu verarbeiten: Irland, Frankfurt, London, Paris, Stockholm, Mailand, Zürich und Spanien. So können sie ihre Daten sicher innerhalb Europas halten.
Müssen Kunden zusätzliche Anforderungen an die betriebliche Autonomie und den Ort der Datenverarbeitung innerhalb der Europäischen Union erfüllen, steht die AWS European Sovereign Cloud als weitere Option zur Verfügung. Die Infrastruktur hierfür ist vollständig in der EU angesiedelt und wird unabhängig von den bestehenden Regionen betrieben. Sie ermöglicht es AWS-Kunden, ihre Kundeninhalte und von ihnen erstellten Metadaten in der EU zu behalten – etwa Rollen, Berechtigungen, Ressourcenbezeichnungen und Konfigurationen für den Betrieb von AWS.
Sollten Kunden weitere Optionen benötigen, um eine Isolierung zu ermöglichen und strenge Anforderungen an den Ort der Datenverarbeitung in einem bestimmten Land zu erfüllen, können sie auf AWS Dedicated Local Zones oder AWS Outposts zurückgreifen. Auf diese Weise können sie die Infrastruktur der AWS European Sovereign Cloud am Ort ihrer Wahl einsetzen. Wir arbeiten mit unseren Kunden und Partnern kontinuierlich daran, die AWS European Sovereign Cloud so zu gestalten, dass sie den benötigten Anforderungen entspricht. Dabei nutzen wir auch Feedback aus unseren Gesprächen mit europäischen Regulierungsbehörden und nationalen Cybersicherheitsbehörden.
„Eine funktionierende, verlässliche und sichere Infrastruktur ist die wichtigste Vorrausetzung für eine zunehmend digitalisierte Wirtschaft und Gesellschaft. Brandenburg schreitet hier voran. Wir haben in den vergangenen Jahren entscheidende Weichen gestellt, um Investitionen in eine moderne und nachhaltige Rechenzentruminfrastruktur in unserem Land auszubauen und so den Wirtschaftsstandort Brandenburg zu stärken. Hochmoderne Rechenzentren für sicheres Cloud-Computing sind die Basis für eine digitale Wirtschaft. Für unsere digitale Souveränität ist es wichtig, dass Rechenleistungen vor Ort in Deutschland erbracht werden. Ich freue mich, dass Amazon Web Services Brandenburg für ein langfristiges Investment in ihre Cloud-Computing-Infrastruktur für die AWS European Sovereign Cloud ausgewählt hat.“
— sagt Brandenburgs WirtschaftsministerProf. Dr.-Ing. Jörg Steinbach
Kontinuierliche Investitionen in Europa
Im Laufe der vergangenen 25 Jahre haben wir die wirtschaftliche Entwicklung in europäischen Ländern und Gemeinden vorangetrieben und in Infrastruktur, Arbeitsplätze sowie den Ausbau von Kompetenzen investiert. Seit 2010 hat Amazon über 150 Milliarden Euro in der Europäischen Union investiert und wir sind stolz darauf, im gesamten europäischen Binnenmarkt mehr als 150.000 Menschen in Festanstellung zu beschäftigen.
AWS plant bis zum Jahr 2040 7,8 Milliarden Euro in die AWS European Sovereign Cloud zu investieren. Diese Investition ist Teil der langfristigen Bestrebungen von AWS, das europäische Bedürfnis nach digitaler Souveränität zu unterstützen. Mit dieser langfristigen Investition löst AWS einen Multiplikatoreffekt für Cloud-Computing in Europa aus. Sie wird die digitale Transformation der Verwaltung und von Unternehmen vorantreiben, das AWS Partner Network (APN) stärken, die Zahl der Cloud- und Digitalfachkräfte erhöhen, erneuerbare Energieprojekte vorantreiben und eine positive Wirkung in den Gemeinden erzielen, in denen AWS präsent ist. Insgesamt wird die geplante AWS-Investition bis 2040 voraussichtlich 17,2 Milliarden Euro zum deutschen Bruttoinlandsprodukt und zur Schaffung von 2.800 Vollzeitstellen bei regionalen Unternehmen beitragen. Diese Arbeitsplätze in den Bereichen Bau, Instandhaltung, Ingenieurwesen, Telekommunikation und der breiteren regionalen Wirtschaft sind Teil der Lieferkette für AWS-Rechenzentren.
Darüber hinaus wird AWS neue Stellen für hochqualifizierte festangestellte Fachkräfte wie Softwareentwickler, Systemingenieure und Lösungsarchitekten schaffen, um die AWS European Sovereign Cloud aufzubauen und zu betreiben. Die Investition in zusätzliches Personal unterstreicht unser Commitment, dass der gesamte Betrieb dieser souveränen Cloud-Umgebung – angefangen bei der Zugangskontrolle zu den Rechenzentren über den technischen Support bis hin zum Kundendienst – ausnahmslos durch Fachkräfte innerhalb der Europäischen Union kontrolliert und gesteuert wird.
In Deutschland arbeitet AWS mit den Beteiligten vor Ort auch an langfristigen und innovativen Programmen zusammen. Diese sollen einen nachhaltigen positiven Einfluss auf die Gemeinden haben, in denen sich die Infrastruktur des Unternehmens befindet. AWS konzentriert sich auf die Entwicklung von Cloud-Fachkräften und Schulungsinitiativen für Lernende aller Altersgruppen. Diese Maßnahmen tragen dazu bei, den Fachkräftemangel zu beheben und sich auf die technischen Berufe der Zukunft vorzubereiten. Im vergangenen Jahr hat AWS beispielsweise gemeinsam mit der Siemens AG das erste Ausbildungsprogramm für AWS-Rechenzentren in Deutschland entwickelt. Ebenso hat das Unternehmen in Kooperation mit dem Deutschen Industrie und Handelstag (DIHK) den bundeseinheitlichen Zertifikatslehrgang zum „Cloud Business Expert“ entwickelt sowie die AWS Skills to Jobs Tech Alliance in Deutschland ins Leben gerufen. AWS wird gemeinsam mit lokalen Partnern daran arbeiten, Ausbildungsprogramme und Fortbildungen anzubieten, die auf die Bedürfnisse vor Ort zugeschnitten sind.
Vertrauensvoll bauen mit AWS
Für Kunden, die sich noch am Anfang ihrer Cloud-Reise befinden und die AWS European Sovereign Cloud in Betracht ziehen, bieten wir eine Vielzahl von Ressourcen an, um den Wechsel in die Cloud effektiv zu gestalten. Egal ob einzelne Workloads verlagert oder ganze Rechenzentren migriert werden sollen – Kunden erhalten von uns die nötigen organisatorischen, operativen und technischen Fähigkeiten für eine erfolgreiche Migration zu AWS. Beispielsweise bieten wir das AWS Cloud Adoption Framework (AWS CAF) an, das Unternehmen bei der Entwicklung eines effizienten und effektiven Cloud-Adoptionsplans mit Best Practices unterstützt. Auch der AWS Migration Hub hilft bei der Bewertung des Migrationsbedarfs, der Definition der Migrations- und Modernisierungsstrategie und der Nutzung von Automatisierung. Darüber hinaus veranstalten wir regelmäßig AWS-Events, Webinare und Workshops rund um die Themen Cloud-Adoption und Migrationsstrategie. Dabei können Kunden von AWS-Experten lernen und sich mit anderen Kunden und Partnern vernetzen.
Wir sind bestrebt, unseren Kunden mehr Kontrolle und weitere Optionen anzubieten, damit diese ihre ganz individuellen Anforderungen an die digitale Souveränität erfüllen können, ohne dabei auf die volle Leistungsfähigkeit von AWS verzichten zu müssen.
Um Kunden und Partnern bei der weiteren Planung und Entwicklung zu unterstützen, werden wir laufend zusätzliche Updates bereitstellen, während wir auf den Start der AWS European Sovereign Cloud hinarbeiten. Mehr über die AWS European Sovereign Cloud erfahren Sie auf unserer Website zur European Digital Sovereignty.
AWS is pleased to announce the publication of a checklist to help customers align with the requirements of the European Union’s electronic identification, authentication, and trust services (eIDAS) regulation regarding the use of electronic identities and trust services. The eIDAS regulation covers electronic identification and trust services for electronic transactions in the European single market.
This checklist is intended as a reference and supporting document to help institutions align with the requirements of eIDAS and the European Telecommunications Standards Institute (ETSI). Where applicable, under the AWS Shared Responsibility Model, this checklist provides supporting details and references in relation to AWS to assist institutions when adopting eIDAS and ETSI for their workloads on AWS services.
For the controls that AWS is fully or partially responsible for, the checklist compares the eIDAS and ETSI requirements to the following:
This checklist is valid until the current eIDAS EU regulation 910/2014, published July 23rd, 2014, ceases to be in force. The checklist is available upon request.
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