Publications

2026

• Where Experts Disagree, Models Fail: Detecting Implicit Legal Citations in French Court Decisions
  
  • Floro Avrile
  • Dhorasoo Tamara
  • Pellez Soline
  • Holzenberger Nils
  , 2026. Computational methods applied to legal scholarship hold the promise of analyzing law at scale. We start from a simple question: how often do courts implicitly apply statutory rules? This requires distinguishing legal reasoning from semantic similarity. We focus on implicit citation of the French Civil Code in first-instance court decisions and introduce a benchmark of 1,015 passage-article pairs annotated by three legal experts. We show that expert disagreement predicts model failures. Inter-annotator agreement is moderate (κ = 0.33) with 43% of disagreements involving the boundary between factual description and legal reasoning. Our supervised ensemble achieves F1 = 0.70 (77% accuracy), but this figure conceals an asymmetry: 68% of false positives fall on the 33% of cases where the annotators disagreed. Despite these limits, reframing the task as top-k ranking and leveraging multi-model consensus yields 76% precision at k = 200 in an unsupervised setting. Moreover, the remaining false positives tend to surface legally ambiguous applications rather than obvious errors.
• Simulation of Fog-Induced Attenuation and Inter-Symbol Interference in Mid-and Long-Infrared Free-Space Optical Communications
  
  • Breton Vicente Alberto
  • Sorrente Béatrice
  • Roux Aurélien
  • Fade Julien
  • Da Silva Anabela
  • Grillot Frédéric
  , 2026. <div><p>Free-space optical (FSO) communications offer large bandwidths but are strongly affected by atmospheric fog. Recent advances in quantum cascade lasers enable high-speed transmission in the mid-and long-infrared ranges (3-6 and 8-12 µm), which are expected to provide increased robustness compared to the conventional visible or 1.55 µm bands. In this work, light propagation through fog is modeled using a time-domain approximate radiative transfer equation solver, accounting for wavelength-dependent scattering, absorption, and droplet size distributions of a realistic fog scenario, demonstrating its advantages against visibility-based models for satisfactory evaluation of FSO links performance in the mid-and long-infrared. The model is applied to an example optical communication link to assess attenuation and inter-symbol interference effects. Quantitative results indicate that long-infrared wavelengths exhibit reduced temporal spreading and improved tolerance to fog-induced impairments.</p></div>
• Towards a systemic framework for assessing the environmental rebound effects of Artificial Intelligence
  
  • Delarue Simon
  , 2025.
• Continuous-variable quantum communication
  
  • Usenko Vladyslav
  • Acín Antonio
  • Alléaume Romain
  • Andersen Ulrik
  • Diamanti Eleni
  • Gehring Tobias
  • Hajomer Adnan A. E.
  • Kanitschar Florian
  • Pacher Christoph
  • Pirandola Stefano
  • Pruneri Valerio
  Reviews of Modern Physics, American Physical Society, 2026, 98 (1), pp.015003. Tremendous progress in experimental quantum optics during the past decades enabled the advent of quantum technologies, one of which is quantum communication. Aimed at novel methods for more secure or efficient information transfer, quantum communication has developed into an active field of research and proceeds toward full-scale implementations and industrialization. Continuous-variable methods of multi-photon quantum state preparation, manipulation, and coherent detection, as well as the respective theoretical tools of phase-space quantum optics, offer the possibility to make quantum communication efficient, applicable and accessible, thus boosting the development of the field. We review the methodology, techniques and protocols of continuous-variable quantum communication, from the first theoretical ideas, through milestone implementations, to the recent developments, covering quantum key distribution as well as other quantum communication schemes, suggested on the basis of continuous-variable states and measurements. (10.1103/mgj7-t6d3)
  DOI : 10.1103/mgj7-t6d3
• An order-reversing embedding of Turing degrees into Arthur-Nimue-Merlin degrees
  
  • Abou-Samra Jean
  • Madore David Alexander
  , 2026. <div><p>The Arthur-Nimue-Merlin degrees are a generalization of the Turing degrees introduced by Kihara as a tangible description of the partially ordered set of Lawvere-Tierney topologies on the effective topos (equivalently, subtoposes of the effective topos). They are defined in terms of a three-player game that introduces both angelic and demonic nondeterminism into oracle queries. We construct an order embedding of the Turing degrees with their order reversed into the Arthur-Nimue-Merlin degrees, whose image we call the "co-Turing degrees"; we then study the order relationship of these co-Turing degrees with the (naturally embedded) Turing degrees within the Arthur-Nimue-Merlin degrees.</p></div>
• The Hi-Audio Online Platform for Recording and Distributing Multi-Track Music Datasets
  
  • Gil Panal José M
  • David Aurélien
  • Richard Gaël
  EURASIP Journal on Audio, Speech, and Music Processing, SpringerOpen, 2026 (Special issue on "Signal Processing for the Internet of Sounds"). This paper introduces the Hi-Audio online platform, an open-source tool designed to support musicians and researchers in the field of Music Information Retrieval (MIR). The platform enables the recording, uploading, and sharing of multitrack musical compositions, aiming to build an open-access audio database to advance research in music technology. Uploaded audio files are automatically analyzed upon synchronization with the server, leveraging signal processing techniques and machine learning models to generate rich metadata. The platform facilitates remote and asynchronous collaboration via a web-based interface accessible at hiaudio.fr. Furthermore, a novel built-in method for accurate and robust round-trip latency estimation in the browser is proposed and integrated into the platform, demonstrating its applicability in real-world distributed recording scenarios. Finally, an initial user evaluation with musicians was conducted to assess usability and practical relevance under realistic usage conditions. The evaluation combined task-based performance analysis with standardized usability and workload measures. The results indicate high task completion rates for core recording functions and show that the platform can be used effectively by musicians with minimal prior training. (10.1186/s13636-026-00459-0)
  DOI : 10.1186/s13636-026-00459-0
• Compression in 3D Gaussian Splatting: A Survey of Methods, Trends, and Future Directions
  
  • Ali Muhammad Salman
  • Zhang Chaoning
  • Cagnazzo Marco
  • Valenzise Giuseppe
  • Tartaglione Enzo
  • Bae Sung-Ho
  IEEE Transactions on Circuits and Systems for Video Technology, Institute of Electrical and Electronics Engineers, 2026, pp.1-1. <div><p>Gaussian Splatting (3DGS) has recently emerged as a pioneering approach in explicit scene rendering and computer graphics. Unlike traditional neural radiance field (NeRF) methods, which typically rely on implicit, coordinatebased models to map spatial coordinates to pixel values, 3DGS utilizes millions of learnable 3D Gaussians. Its differentiable rendering technique and inherent capability for explicit scene representation and manipulation positions 3DGS as a potential game-changer for the next generation of 3D reconstruction and representation technologies. This enables 3DGS to deliver realtime rendering speeds while offering unparalleled editability levels. However, despite its advantages, 3DGS suffers from substantial memory and storage requirements, posing challenges for deployment on resource-constrained devices. In this survey, we provide a comprehensive overview focusing on the scalability and compression of 3DGS. We begin with a detailed background overview of 3DGS, followed by a structured taxonomy of existing compression methods. Additionally, we analyze and compare current methods from the topological perspective, evaluating their strengths and limitations in terms of fidelity, compression ratios, and computational efficiency. Furthermore, we explore how advancements in efficient NeRF representations can inspire future developments in 3DGS optimization. Finally, we conclude with current research challenges and highlight key directions for future exploration.</p></div> (10.1109/TCSVT.2026.3676048)
  DOI : 10.1109/TCSVT.2026.3676048
• 3D Imaging Contribution in Pediatric Surgical Oncology: A Multistakeholder Assessment Study
  
  • Pio Luca
  • Kassir Rani
  • La Barbera Giammarco
  • Lozach Cecile
  • Bonnot Enzo
  • Isla Thomas
  • Pablo de la Plata Alcalde Juan
  • Gori Pietro
  • Bloch Isabelle
  • Sarnacki Sabine
  Scientific Reports, Nature Publishing Group, 2026 (16), pp.14264-1:14264-10. Introduction: Medical imaging is crucial for surgical planning, yet surgeons struggle with mental transformation of 2D images into 3D representations, particularly in complex pediatric pelvic anatomy. This study evaluated perceived benefits of 3D imaging with tractography compared to conventional 2D MRI in pediatric pelvic tumor surgery.<p>Methods: A nationwide study assessed three groups: non-medical personnel (n=30), medical trainees (residents and fellows; primary analysis n=61, excluding 3 medical students), and senior pediatric surgeons (n=12). Using 3-Tesla MRI with specialized protocols including highresolution CoroT2cube and diffusion tensor imaging, participants evaluated five clinical cases in both 2D and 3D formats using 7-point Likert scales. Statistical analysis employed Wilcoxon paired tests with Bonferroni correction.</p><p>Results: All groups showed significant improvements in perceived understanding with 3D imaging. Non-medical personnel scores increased from 4.24 (±0.69) to 6.27 (±0.28) (p&lt;0.001), particularly in understanding disease and surgical objectives. Medical trainees improved from 5.08 (±0.61) to 6.42 (±0.49) (p&lt;0.001), with enhanced understanding of surgical objectives and anatomical relationships. Senior surgeons' scores increased from 5.02 (±0.69) to 6.33 (±0.52) (p&lt;0.001), showing significant improvements in preoperative planning and family communication. Effect sizes were substantial across groups (Cohen's d: 2.80, 1.90, and 1.52 respectively), though the within-subject design likely contributes to effect size inflation.</p><p>Discussion: This study provides preliminary evidence for perceived 3D imaging value in pediatric pelvic tumor surgery. Improved anatomical comprehension among non-medical personnel may benefit informed consent, while enhanced visualization aids surgical education and planning. High surgeon acceptance (92%) suggests strong acceptability, though these exploratory findings require validation before implementation recommendations can be made.</p><p>Prospective studies evaluating objective clinical outcomes, workflow integration and costeffectiveness require further study.</p> (10.1038/s41598-026-44543-z)
  DOI : 10.1038/s41598-026-44543-z
• Microarchitectural Espionage: FPGA-Based Security Analysis of Branch Prediction in RISC-V Out-of-Order Cores
  
  • Khan Mahreen
  • Bin Mohd Shahfie Muhammad Emir
  • Mushtaq Maria
  • Pacalet Renaud
  • Apvrille Ludovic
  , 2026, pp.1-7. <div><p>Modern processor microarchitectural optimizations, while enhancing performance, inadvertently introduce side channels that can leak sensitive information through timing variations. This paper presents an FPGA-based security testbed for studying branch predictor side-channel vulnerabilities in open-source RISC-V out-of-order cores. We demonstrate a configurable platform built on the Berkeley Out-of-Order Machine (BOOM) core, adapted for resource-constrained FPGA deployment with customizable branch predictor configurations. Through baremetal execution and cycle-accurate timing measurements, we implement and evaluate three classes of timing attacks: Conditional Branch Prediction Attacks (CBPA), Indirect Branch Prediction Attacks (IBPA), and a practical smart-lock application attack. Our results show that simplified one-level predictors exhibit deterministic timing separations of 9 to 17 cycles, enabling perfect secret recovery with 100% accuracy for 16-bit secrets within 500 measurement rounds. We further demonstrate practical attack scenarios, including the extraction of a randomly-generated 4-digit smart-lock code, and evaluate the impact of branch predictor complexity on attack feasibility. This work provides an open-source framework for reproducible microarchitectural security research on RISC-V platforms, enabling evaluation of both attacks and countermeasures.</p></div> (10.1109/ISDFS69419.2026.11459082)
  DOI : 10.1109/ISDFS69419.2026.11459082
• Analytical solution of radiative transfer equation of light radiance in turbid slab with inner-medium source under P3-1D approximation
  
  • Fade Julien
  • Roux Aurélien
  • Breton Vicente Alberto
  • Sorrente Béatrice
  • Grillot Frederic
  • Silva Anabela Da
  , 2026. A generalized model of the 1-dimensional radiative transfer equation of the light radiance in a turbid slad is detailed, under the P-3 approximation, including the possibility to model a continuous plane-wave source located at any depth within the scattering slab. This analytical model, which requires significant evolution of the P3-1D model is extensively described and validated by comparison with Monte-Carlo numerical experiments. A series of numerical simulations illustrates some of the modelling possibilities offered by this extended model, which makes it possible to continuously model the transition between a classical slab geometry and a semi-infinite geometry.
• This is not a speculation, this is the reality: Reflection on Speculative Design Workshop in HCI &amp; Design Research
  
  • Huron Samuel
  • Wei Wei
  • Tseng Wen-Jie
  • Bonnail Elise
  • Genest Eleonore
  , 2026. In this paper, we reflect on the qualities of our methods across three speculative design workshops that we designed, ran, and analyzed as part of distinct Human-Computer Interaction research projects. These workshops were conducted over the past four years and each yielded to a research publication on a different topics: visualization, virtual reality, and extended reality. Each workshop employed a different speculative framing that we define in the paper: functional, critical, and exploratory. We summarize the motivations, the process of applying speculative methods, and the outcomes of the speculation. Finally, we reflect on five qualities for speculative design research: speculative plausibility, grounding of speculation, common framing of speculation, synthesis within a framework, and the quality of reflection.
• Artifact: PSMark: a distributed IoT benchmark for publish/subscribe under domain-based workloads
  
  • Badolato Christian
  • Samson Nathan
  • Hajj Hassan Houssam
  • Huang Chih-Kai
  • Bouloukakis Georgios
  • Pappachan Primal
  • Yus Roberto
  , 2026. This artifact paper presents a guide for PSMark, a distributed benchmarking framework to evaluate Publish/Subscribe (pub/sub) systems against real-world representative IoT workloads. PSMark addresses limitations in existing pub/sub benchmarks by supporting: (i) heterogeneous device behaviors (e.g, varying payload sizes, publication rates, and connection stability); (ii) distributed multi-node deployments; and (iii) cross-protocol evaluation across MQTT and DDS.
• Anomaly Detection in Non-stationary Time Series
  
  • Emelchenkov Anton
  , 2026. Anomaly detection is critical for ensuring the reliability of industrial systems, yet remains particularly challenging for complex mechanical assemblies such as electric powertrains due to their non-stationary and multi-component dynamics. This thesis presents two complementary pipelines applied to anomaly detection in electric powertrains, combining interpretable signal-level modelling with data-driven temporal analysis.The first pipeline builds on a non-linear chirp signal model to accurately track multiple time-varying amplitudes at predefined frequencies, enabling reliable and interpretable monitoring of individual mechanical components. We introduce novel amplitude-tracking methods and demonstrate their robustness through extensive numerical experiments and rigorous statistical validation.The second pipeline adopts a holistic view of vibrational signals and leverages deep learning architectures to capture complex temporal dependencies that are difficult to isolate using amplitude-based tracking alone. Within this framework, we propose ALERT, a novel anomaly detection method for non-stationary time series based on a linear autoregressive latent space.To enable systematic development and evaluation, we introduce a comprehensive experimental testbench, first large-scale dataset of non-stationary vibrational signals with synchronized rotational speed measurements, further enriched with diverse expert-guided degradation scenarios derived from real-world operating conditions.Together, these contributions advance the state of the art toward deployable, real-time anomaly detection systems for long-horizon monitoring in complex industrial environments.
• PSMark: a distributed IoT benchmark for publish/subscribe under domain-based workloads
  
  • Badolato Christian
  • Samson Nathan
  • Hajj Hassan Houssam
  • Huang Chih-Kai
  • Bouloukakis Georgios
  • Pappachan Primal
  • Yus Roberto
  , 2026. The Publish/Subscribe (pub/sub) paradigm is widely used in the Internet of Things (IoT). Standalone sensors, wearables, and other devices act as producers that publish messages to consumers such as edge servers or even other IoT devices. Selecting and configuring a pub/sub protocol for an IoT system requires considering network requirements, device reliability, and required Quality-of-Service guarantees. Pub/sub benchmarking suites can help compare expected behavior of various protocols, implementations, and network configurations. However, current pub/sub benchmarks focus primarily on stress testing systems assuming mostly static configurations of homogeneous publishers which are not representative of real-world IoT deployments. To address this, we present PSMark, a distributed, multi-protocol benchmark for evaluating topic-filtered pub/sub systems under workloads representative of real-world IoT environments. PS-Mark supports (i) workloads representative of heterogeneous IoT device deployments including variations in device communication parameters, (ii) evaluation of distributed IoT deployments with multiple data aggregation servers, (iii) cross-protocol measurements across MQTT and DDS, with extensibility to additional protocols, and (iv) a modular design for adding additional metrics and interfaces. We further construct twelve IoT-focused workloads derived from seven real-world datasets in the domains of manufacturing, healthcare, smart homes, and smart cities. Finally, we benchmark five popular MQTT brokers and one DDS implementation using PSMark and analyze their performance across multiple testbeds and Quality-of-Service settings.
• Readability as a multi-measure construct in data visualization
  
  • Cabouat Anne-Flore
  • Huron Samuel
  • Isenberg Tobias
  • Isenberg Petra
  , 2026, pp.1-5. In this paper, we argue that readability cannot be meaningfully discussed without considering multiple complementary measures, and that relying on a single measure constitutes an epistemological choice that constrains the conclusions that can be drawn.
• Frequency-Domain Characterization of Deployed Fiber-Medium Coupling using DAS
  
  • Pruvost Pierre
  • Awwad Élie
  • Huang Heming
  • Jaouën Yves
  , 2026, pp.Th2A.59. An optical cable is monitored using a DAS interrogator and an accelerometer. Frequency-domain analysis shows that, despite notable differences beyond 100Hz, DAS still provides valuable information on the media surrounding the cable.
• Distributed Fiber Sensing Over Deployed Networks: Opportunities and Challenges
  
  • Awwad Élie
  • Prato Diane
  • Pruvost Pierre
  • Freire-Hermelo Maria
  • Gabet Renaud
  • Jaouën Yves
  , 2025. We review opportunities and challenges of deploying Rayleigh-based distributed sensing over existing networks. Focusing on deployment possibilities, sensitivity, phase noise, and large-scale data analysis, we highlight recent advances and future directions. (10.1364/OFC.2026.W4D.1)
  DOI : 10.1364/OFC.2026.W4D.1
• Frequency-Domain Characterization of Deployed Fiber-Medium Coupling using DAS
  
  • Pruvost Pierre
  • Awwad Élie
  • Huang Heming
  • Jaouën Yves
  , 2026, pp.Th2A.59. An optical cable is monitored using a DAS interrogator and an accelerometer. Frequency-domain analysis shows that, despite notable differences beyond 100Hz, DAS still provides valuable information on the media surrounding the cable.
• Integrating musicological knowledge in positional encoding for applications to music generation
  
  • Agarwal Manvi
  , 2026. Attention-based Transformer generative models can produce high-quality, realistic samples.For effective performance, they require two resources: substantial compute budgets and large-scale datasets. The first requirement raises broader questions about, for instance, skewed socio-economic resource allocation and detrimental environmental impact.The second requirement is blocked by the low resource nature of the domain of symbolic music.These factors present an interesting scientific challenge : how can we maintain superior performance on generative symbolic music tasks with limited compute and data? In this thesis, we address this question through empirical and theoretical approachesfocused on a specific component of the Transformer architecture : positional encoding (PE).We explore how the design of positional encoding can be improved to meet the twin challenges of low data and low compute through the introduction of musically-relevant prior knowledge. At an empirical level, we infuse positional encoding with musical structureinformation, exposing the model to appropriate inductive biases through Structure-Informed PositionalEncoding. We introduce Fast, Structure-Informed Positional Encoding (F-StrIPE) by melding together musical structure information with an existing linearcomplexity relative positional encoding method called Stochastic Positional Encoding (SPE). At a theoreticallevel, we show not only that SPE is deeply connected to well-known kernel approximation methods, but also that linearized relative PEs such as SPE and FStrIPE can be understood through a canonical form of PE-enriched attention. We further show that otherwidely-used efficient PE methods from the literature, such as Rotary Positional Encoding (RoPE), also fit within our framework, enabling us to reveal computational principles shared by different efficient PEs. This also allows us to propose a novel efficient positionalencoding method called RoPEPool. Finally, we use our canonical form to provide insights on why well designed priors help empirical performance. Finally, we show that our ideas on structure-informed positional encoding are also applicable to tokenized audio.We introduce a new resource, the Audio909 dataset, through which we show that musically-informed priors benefit performance on music generation.
• Analytical Logit Scaling for High-Resolution Sea Ice Topology Retrieval from Weakly Labeled SAR Imagery
  
  • Elwaradi Reda
  • Gimenez Julien
  • Hordoir Stéphane
  • Ait Hamma Mehdi
  • Chan-Hon-Tong Adrien
  • Weissgerber Flora
  , 2026. High-resolution sea ice mapping using Synthetic Aperture Radar (SAR) is crucial for Arctic navigation and climate monitoring. However, operational ice charts provide only coarse, region-level polygons (weak labels), forcing automated segmentation models to struggle with pixel-level accuracy and often yielding under-confident, blurred concentration maps. In this paper, we propose a weakly supervised deep learning pipeline that fuses Sentinel-1 SAR and AMSR-2 radiometry data using a U-Net architecture trained with a region-based loss. To overcome the severe under-confidence caused by weak labels, we introduce an Analytical Logit Scaling method applied post-inference. By dynamically calculating the temperature and bias based on the latent space percentiles (2% and 98%) of each scene, we force a physical binarization of the predictions. This adaptive scaling acts as a topological extractor, successfully revealing fine-grained sea ice fractures (leads) at a 40-meter resolution without requiring any manual pixel-level annotations. Our approach not only resolves local topology but also perfectly preserves regional macroscopic concentrations, achieving a 78% accuracy on highly fragmented summer scenes, thereby bridging the gap between weakly supervised learning and high-resolution physical segmentation.
• Constant Time with Minimal Preprocessing, a Robust and Extensive Complexity Class
  
  • Grandjean Étienne
  • Jachiet Louis
  , 2025. In this paper, we study the class $\mathtt{cstPP}$ of operations $\mathtt{op}: \mathbb{N}^k\to\mathbb{N}$, of any fixed arity $k\ge 1$, satisfying the following property: for each fixed integer $d\ge 1$, there exists an algorithm for a RAM machine which, for any input integer $N\ge 2$, - pre-computes some tables in $O(N)$ time, - then reads $k$ operands $x_1,\ldots,x_k1$, or conversely, is reduced to $N^{\varepsilon}$, for any positive $\varepsilon&lt;1$ (provided the set of primitive operation includes $+$, $\mathtt{div}$ and $\mathtt{mod}$). To complete the picture, we demonstrate that the $\mathtt{cstPP}$ class degenerates if the preprocessing time reduces to $N^{o(1)}$. (10.48550/ARXIV.2509.10188)
  DOI : 10.48550/ARXIV.2509.10188
• Additivity and Chain Rules for Quantum Entropies via Multi-index Schatten Norms
  
  • Fawzi Omar
  • Kochanowski Jan
  • Rouzé Cambyse
  • van Himbeeck Thomas
  Communications in Mathematical Physics, Springer Verlag, 2026, 407 (4), pp.75 (1-39). The primary entropic measures for quantum states are additive under the tensor product. In the analysis of quantum information processing tasks, the minimum entropy of a set of states, e.g., the minimum output entropy of a channel, often plays a crucial role. A fundamental question in quantum information and cryptography is whether the minimum output entropy remains additive under the tensor product of channels. Here, we establish a general additivity statement for the optimized sandwiched Rényi entropy of quantum channels. For that, we generalize the results of Devetak et al. (Commun Math Phys 266(1):37–63, 2006) to multi-index Schatten norms. As an application, we strengthen the additivity statement of Van Himbeeck and Brown (A tight and general finite-size security proof for quantum key distribution, 2025) thus allowing the analysis of time-adaptive quantum cryptographic protocols. In addition, we establish chain rules for Rényi conditional entropies that are similar to the ones used for the generalized entropy accumulation theorem of Metger et al. (Commun Math Phys 405(11):261, 2024). (10.1007/s00220-026-05567-8)
  DOI : 10.1007/s00220-026-05567-8
• Continuous AI Assistance for Model-Driven Engineering
  
  • Apvrille Ludovic
  • Sultan Bastien
  , 2026. Proactive AI-based assistants are now common in software engineering tools; however, few exist for Model-Driven Engineering (MDE) environments. Most existing AI assistants for MDE, particularly those based on large language models, require user interactions that can interrupt the modeling workflow. However, MDE is inherently a continuous process, involving successive cycles of diagram construction, verification, and modification. Relying on supplementary tools that require intensive interaction can therefore be time-consuming and disrupt engineers focus. Consequently, there is a need to shift AI-based modeling assistance paradigms to mechanisms that integrate naturally into the continuous MDE workflow. To address this need, the paper introduces ContinuousAI, a framework for AI-based continuous MDE assistance. Working alongside MDE engineers, ContinuousAI generates modeling suggestions either on demand or continuously, supporting the improvement of model quality throughout the engineering process. ContinuousAI has been implemented within the MDE toolkit TTool. Evaluation results show that ContinuousAI provides highly relevant suggestions while maintaining computation times and environmental footprints compatible with real-world continuous MDE usage.
• Occlusion Boundary and Depth: Mutual Enhancement via Multi-Task Learning
  
  • Xu Lintao
  • Wang Yinghao
  • Wang Chaohui
  , 2026, pp.4427-4437. Occlusion Boundary Estimation (OBE) identifies boundaries arising from both inter-object occlusions and selfocclusion within individual objects. This task is closely related to Monocular Depth Estimation (MDE), which infers depth from a single image, as Occlusion Boundaries (OBs) provide critical geometric cues for resolving depth ambiguities, while depth can conversely refine occlusion reasoning. In this paper, we aim to systematically model and exploit this mutually beneficial relationship. To this end, we propose MoDOT, a novel framework for joint estimation of depth and OBs, which incorporates a new Cross-Attention Strip Module (CASM) to leverage mid-level OB features for depth prediction, and a novel OB-Depth Constraint Loss (OBDCL) to enforce geometric consistency.<p>To facilitate this study, we contribute OB-Hypersim, a large-scale photorealistic dataset with precise depth and self-occlusion-handled OB annotations. Extensive experiments on two synthetic datasets and NYUD-v2 demonstrate that MoDOT achieves significantly better performance than single-task baselines and multi-task competitors. Furthermore, models trained solely on our synthetic data demonstrate strong generalization to real-world scenes without fine-tuning, producing depth maps with sharper boundaries and improved geometric fidelity. Collectively, these results underscore the significant benefits of jointly modeling OBs and depth. Code and resources are available at HERE.</p> (10.1109/WACV61042.2026.00431)
  DOI : 10.1109/WACV61042.2026.00431
• Optical Functionalities to Curb Network Power Consumption: Can Digital Twins Solve the Cross-Layer Problem?
  
  • Ware Cédric
  • Lourdiane Mounia
  , 2026 (PT-Sustain-ICT26-96). After decades of research, still few all-optical functionalities have been deployed outside the lab, despite their potential to reduce network power consumption by leveraging optical systems' lower energy per bit. A major issue is that optical functionalities typically don't fit neatly into the conventional layered-network paradigm — which on the other hand enables modularity and interoperability. In a complex network environment, operators are pushing to develop digital twins and other types of software tools for network planning and operational management. This raises the question: can such tools also enable integration of more all-optical functionalities by wrapping software layers around their specificities? We are currently working on network simulation tools sufficiently generic and flexible to allow testing this potential in a variety of scenarios and use cases.