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Equivariant graph neural networks have emerged as foundational architectures for machine-learned interatomic potentials, approaching quantum-chemical accuracy at a fraction of the computational cost. These models describe local atomic environments accurately, but finite spatial cutoffs truncate long-range information flow, and stacking message-passing layers can lead to over-smoothing and over-squashing. Existing long-range extensions either prescribe a fixed analytical propagation kernel, restrict long-range communication to scalars or degree-preserving channels, are only approximately equivariant, or incur super-linear computational cost. Combining learnable long-range equivariant transport with multiscale many-body expressivity and efficient scaling for larger systems remains a central challenge. We introduce Neural Equivariant Multipole Operators (NEMORA), a neural equivariant extension of the Fast Multipole Method (FMM) for learning long-range tensorial representations. NEMORA generalizes the FMM's analytical multipole expansion and translation operators to learned equivariant counterparts on an adaptive spatial hierarchy. Its operators couple angular degrees and form many-body interactions across length scales, retaining the FMM's hierarchical organization and analytical radial factors as physical inductive biases while learning data-dependent long-range couplings. NEMORA evaluates in linear time and memory complexity, allowing it to treat larger systems than other long-range methods reaching hundreds of thousands of atoms, and it augments both symmetry-constrained and unconstrained short-range backbones. On non-local benchmarks, it reduces force and energy errors relative to the short-range backbones by over an order of magnitude and up to three orders of magnitude, respectively, which is better than or competitive with existing long-range extensions in accuracy.
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اقتبس هذه المقالة
APA 7
Kaplan, J. L., Varner, S., Willett, R., & de Pablo, J. J. (2026). NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى. https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning
MLA 9
Kaplan, Jay L., et al. "NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى." https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning.
شيكاغو (المؤلف–التاريخ)
Kaplan, Jay L., Samuel Varner, Rebecca Willett, and Juan J. de Pablo. 2026. "NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى." https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning.
هارفارد
Kaplan, J. L., Varner, S., Willett, R. and de Pablo, J. J. (2026) 'NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى', Available at: https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning.
فانكوفر
Kaplan JL, Varner S, Willett R, de Pablo JJ. NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى. https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning
IEEE
J. L. Kaplan, S. Varner, R. Willett, and J. J. de Pablo, "NEMORA: مشغّلات متعددة الأقطاب متكافئة عصبياً للتعلم الذري بعيد المدى," https://omanscience.com/ar/articles/nemora-neural-equivariant-multipole-operators-for-long-range-atomistic-learning.