Logo
  • Proxies
  • Pricing
  • Locations
  • Learn
  • API

Training-Data Proxy

Web-Scale Collection for LLMs & Domain Models
 
arrow22M+ ethically sourced IPs
arrowCountry and City level targeting
arrowProxies from 229 countries
banner

Top locations

Types of Training-Data proxies for your tasks

Premium proxies in other Academic & Research Solutions

Training-Data proxies intro

Training-Data Proxy: Web-Scale Collection for LLMs & Domain Models

A training data proxy provides the connective tissue between large scale web crawlers and the storage and governance systems that feed large language models and domain specific models, allowing teams to collect diverse, high quality text, code and structured content from the public web without turning their infrastructure into a tangle of ad hoc scrapers and unmanaged IP addresses. Instead of letting each research or product group spin up its own crawl with different behaviours, a centralised proxy layer such as Gsocks exposes consistent, policy aware access to the internet, handling rotation, observability and throttling while upstream components focus on URL discovery, content filtering and quality scoring. This separation of concerns is critical when collection volumes reach web scale, because it keeps legal, security and cost controls anchored in one place while still giving model builders the flexibility to design campaigns tailored to specific domains, languages or risk profiles.

Designing a Training-Data-Optimised Proxy Architecture for Large Crawls

Designing a training data optimised proxy architecture for large crawls begins with acknowledging that model builders are not just running one more web scraping job; they are orchestrating long lived, high volume collection campaigns that may span months, traverse billions of URLs and feed multi petabyte storage systems, all while remaining subject to legal, ethical and infrastructure constraints. To handle this scale, the proxy layer must separate concerns between frontier management, fetch scheduling, content negotiation and storage integration, exposing clean interfaces for crawl planners and quality filters while taking responsibility for low level mechanics such as IP rotation, TLS fingerprinting, connection reuse and congestion control. A well designed architecture decomposes the fleet into specialised roles: resilient gateway nodes that terminate client connections and apply policy, geographically distributed egress nodes that present diverse residential and datacenter identities, and observability services that aggregate metrics, logs and content fingerprints in near real time. Within this framework, large crawls are expressed as campaigns made of many segments, each with its own domain allow lists, politeness rules, target MIME types, expected depth and cadence, so that documentation portals, newspapers, forums, code repositories and academic sites can all be collected under strategies tuned to their structure and sensitivity. The proxy layer tracks not only HTTP status codes but also content length distributions, redirect chains, robots directive interpretations and per host backoff behaviour, feeding this telemetry back to crawl controllers that adaptively reallocate bandwidth, retire low value routes and prioritise high quality sources, turning a brute force crawl into a curated acquisition process optimised for model training objectives rather than raw page counts.

Edge Features: Robust Rotation Policies, MIME-Type Filtering & De-Duplication Signals

Edge features for a training data proxy focus on maximising the usefulness and cleanliness of what is captured rather than simply inflating traffic volume, and robust rotation policies are the first line of defence against both collection bias and operational fragility. Instead of naive per request rotation, which wastes resources and can look suspicious to some targets, the system assigns session budgets that combine a limit on requests, elapsed time and bytes transferred, ensuring that each IP address sees enough of a host to amortise connection setup while still capping exposure and avoiding long lived correlations that might trigger defensive heuristics. These policies are aware of content type and host behaviour, allowing, for example, tighter budgets on highly dynamic or sensitive domains and more generous ones on static asset CDNs where the risk of targeted blocking is low. MIME type filtering then helps prevent storage pipelines from being flooded with irrelevant or harmful content by enforcing whitelists and blacklists at the proxy edge, based on response headers, magic bytes and lightweight content sniffing, so that binary blobs, tracking pixels, infinite scroll noise or malformed pages can be discarded before they consume bandwidth and disk. De duplication signals complete the picture by tagging responses with stable fingerprints such as shingled hashes, URL normalisation keys and similarity scores, which downstream systems use to collapse near duplicates, detect boilerplate heavy pages and avoid over representing particular sites or templates in the final corpus, thereby reducing training skew and improving the diversity of examples that models see during pretraining and fine tuning.

Strategic Uses: Vertical-Specific Corpora, Synthetic Benchmark Sets & Evaluation Datasets

With such an optimised proxy layer in place, organisations can pursue strategic uses for training data beyond a single monolithic crawl, building vertical specific corpora, synthetic benchmark sets and finely tuned evaluation datasets that align with product goals and risk tolerances. Vertical corpora, for domains such as finance, healthcare, law, software engineering or scientific research, rely on carefully curated seed lists and link expansion rules that prioritise high quality, reputable sources; the proxy ensures that each domain is visited under appropriate cadence and identity profiles, for example using domestic residential exits when collecting consumer banking FAQs or public health advisories in specific countries. The resulting text, tables, code snippets and diagrams are tagged with rich metadata about source, geography, language, publication time and access conditions, enabling model builders to assemble training mixes that intentionally weight or exclude particular regions, periods, site categories or licensing regimes. Synthetic benchmark sets use the proxy to maintain up to date, public reference material from which evaluation prompts and answer keys can be generated or checked, allowing teams to track model performance on tasks like question answering, summarisation or reasoning using data that mirrors what end users will encounter in the wild. Evaluation datasets, finally, draw on targeted micro crawls of niche communities, long tail technical documentation and regulatory or standards bodies, yielding compact but carefully balanced collections that probe edge cases, minority dialects and compliance critical topics; because every item in these sets is traceable back through the proxy’s logs, legal and governance teams can review and, if necessary, adjust the inclusion criteria without guessing where the data came from.

Selecting a Training-Data Proxy Vendor: Cost per GB, Crawl Telemetry & Storage/Cloud Hooks

Selecting a training data proxy vendor therefore hinges on understanding cost per gigabyte of useful content, the richness of crawl telemetry and the quality of storage and cloud hooks they provide, rather than simply comparing headline IP pool sizes or generic uptime statistics. Cost per gigabyte should reflect transfer of successfully captured, policy compliant payloads into your storage systems, with clear distinctions between lightweight HTML or JSON, heavier media assets and expensive headless sessions, so that teams can forecast spend for baseline pretraining, domain adaptation and evaluation refreshes under different strategy mixes. Crawl telemetry must go beyond basic counters to include per host success distributions, latency histograms, robots and HTTP error taxonomies, content type breakdowns, duplication ratios and trend lines for new versus previously seen URLs, all exposed through dashboards and APIs that data platform engineers can integrate with orchestration tools and quality monitors. Storage and cloud hooks determine how smoothly the proxy layer fits into existing infrastructure; leading vendors will offer direct delivery into object stores, streaming into message buses or lakehouse ingestion frameworks, as well as metadata channels that carry fingerprints, policy decisions and routing context alongside the raw bytes. Providers such as Gsocks emphasise outcome oriented pricing, fine grained observability and flexible integration options across major clouds, allowing model teams to treat web scale data acquisition as a managed, tunable utility that can be dialled up or down as experiments demand, rather than an opaque, fragile pipeline that threatens to blow up budgets or compliance reviews whenever requirements change.

Ready to get started?
back