What MFT Is and How to Choose
7 entriesManaged file transfer (MFT) software moves files between systems, partners and customers securely and reliably, with the controls that plain FTP lacks: encryption in transit and at rest, authentication and access control, automation and scheduling, guaranteed delivery and retries, audit trails and monitoring, and support for protocols such as SFTP, FTPS, HTTPS and AS2. Gartner's Peer Insights describes the market as software for managing and monitoring file movement across internal systems, partners and customers with encryption, automation and compliance features. Platforms differ in whether they are on-premises servers, cloud services or hybrid; in how far they extend into workflow automation and B2B integration; and in their security record, since file transfer servers are attractive targets (the 2023 MOVEit and 2024 Cleo incidents are examples). The vendors on this page include those shown on that Gartner market page in search results, which could not be opened directly, plus others in the category. Inclusion is not a ranking or endorsement.
Enterprise MFT Platforms
11 entriesFull-featured platforms for secure, automated, audited file exchange.
Automation & Orchestration-Integrated MFT
2 entriesFile transfer built into workload automation platforms.
Cloud Services & SaaS File Transfer
6 entriesHosted SFTP and file movement without running servers.
High-Speed & Large-File Transfer
4 entriesAccelerated transfer for very large files and long distances.
Secure Content Exchange & Governance
2 entriesPlatforms that add content security and compliance controls.
Servers & Open Source
5 entriesFile transfer servers and open tools.
Protocols, Standards & Security Guidance
8 entriesThe protocols MFT platforms speak and the security notices to watch.
Related Pages
8 entriesNeighbouring pages on this site.
Frequently Asked Questions
Why does deep learning need statistics?
Training objectives such as cross-entropy and squared error are maximum likelihood estimates under assumed noise models, and questions about overfitting, evaluation, uncertainty and data shift are statistical questions. Without them it is hard to tell a real improvement from noise.
What statistics topics should I learn first for deep learning?
Start with random variables and distributions, expectation and variance, maximum likelihood and Bayes' theorem, then the bias-variance tradeoff, cross-validation and the bootstrap. After that, calibration, hypothesis testing for model comparison and distribution shift matter most in practice.
How do I know whether one model is really better than another?
Evaluate on held-out data, report uncertainty (for example confidence intervals from the bootstrap or variation across random seeds), and use an appropriate test when comparing models. The evaluation section lists papers on comparing classifiers and on error bars for language-model evaluations.
What is calibration and why does it matter?
A model is calibrated when its stated probabilities match observed frequencies. Guo et al. found that modern neural networks are often overconfident, and the uncertainty section lists methods such as temperature scaling, deep ensembles and conformal prediction.
Does the bias-variance tradeoff still apply to large neural networks?
The classical U-shaped curve describes many models, but work on double descent shows that test error can fall again as models grow past the point of fitting the training data. The generalisation section lists the main papers.
How is this page different from Probability Theory for AI?
That page covers probability, Bayesian inference and generative models. This page focuses on statistical practice for deep learning: estimation and regularisation, generalisation, evaluation and significance, uncertainty, distribution shift and experiment design.