
Traild is a powerful AP automation solution that helps businesses take full control of their accounts payable operations. It connects directly with popular ERP and accounting platforms to deliver a fully automated, paperless AP workflow. From invoice capture to payment execution, Traild eliminates manual processing and reduces operational costs. The platform automatically approves low-risk, matched invoices while escalating high-risk invoices with detailed context for faster decision-making. Traild is built fraud-prevention first, using AI, behavioral analysis, and network intelligence to stop duplicate payments, errors, and invoice fraud. Finance leaders gain real-time visibility into approvals, liabilities, and cash flow across the organization. The system adapts to industry-specific requirements that many generic AP tools cannot handle. Traild Pay extends automation into secure, one-click digital payments. Implementation is fast, with plug-and-play ERP integrations. Traild delivers efficiency, accuracy, and security at scale.
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Built specifically for subcontractors, Onetrace is construction management software that connects job planning, on-site evidence capture, and compliance sign-off in a single workflow. Rather than juggling spreadsheets and paper records, teams get one system covering everything from the first site visit to final handover, with audit-ready documentation ready for clients, main contractors, and regulators whenever it's needed.
The platform supports a wide range of trades, including passive fire protection, drylining, roofing, and M&E. For fire protection specialists in particular, Onetrace works as dedicated fire protection software — linking photographs, sign-off forms, and approvals to the exact job and location they cover, so compliant installations are easy to evidence. Teams also get live visibility of projects, timesheets, signed documentation, and site progress as it happens.
Key functionality: customisable forms, drag-and-drop scheduling, GPS-verified time-tracking, scope variation tracking, cost calculation, and mobile drawing markups with photo capture.
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ESMFold2
ESMFold2 builds upon its predecessor, ESMFold, by establishing a new benchmark in single-sequence structure prediction and facilitating the creation of novel functional proteins via exploration of the latent space within the ESMC model. This advanced model is capable of forecasting high-resolution, all-atom 3D structures of biomolecular complexes straight from the amino acid sequence, and it allows for the incorporation of multiple sequence alignments to improve accuracy on difficult targets. Tailored for predicting structures through both sequence and structure modalities, it employs ESM representations that drive a series of looped folding layers while a diffusion model translates pairwise representations into atomic-resolution outcomes. ESMFold2 excels in predicting protein structures from amino acid sequences, providing detailed structural data, including precise all-atom coordinates for both backbone and side chains, along with confidence metrics and optional distogram predictions for in-depth structural evaluation. Furthermore, its innovative approach enhances the understanding of protein folding dynamics and functional implications, making it a valuable tool for researchers in the field.
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LAMMPS
LAMMPS, which stands for Large-scale Atomic/Molecular Massively Parallel Simulator, is a powerful molecular dynamics software tailored for materials modeling. It has the capability to simulate various particle ensembles across liquid, solid, and gas phases, accommodating a diverse range of systems including atomic, polymeric, biological, solid-state, granular, coarse-grained, mesoscopic, and macroscopic forms by utilizing numerous interatomic potentials, force fields, and boundary conditions. Designed for two or three-dimensional simulations, LAMMPS can handle systems ranging from a handful of particles to billions, ensuring efficient performance on parallel computing architectures while also being user-friendly for modifications and extensions. The software incorporates potentials that cater to solid-state materials like metals and semiconductors, soft matter such as biomolecules and polymers, as well as coarse-grained or mesoscopic systems. Additionally, it serves as a versatile tool for modeling atomic interactions or, more broadly, as a parallel particle simulator applicable across atomic, meso, or continuum scales, making it a valuable resource in computational materials science.
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