Author: Xavier Fok

  • Bright Data vs Oxylabs vs Smartproxy for Scraping in 2026 (tested)

    If you have priced proxies for scraping, you keep meeting the same three names: Bright Data, Oxylabs, and Smartproxy. The marketing makes them sound identical. Huge pools, high success rates, every country covered. From the outside they blur together, and the real differences only show up once you point them at a hard target and read the invoice.

    I run proxy infrastructure and production scrapers, and I have paid all three of these bills on real jobs. This is a tested view, not a vendor pitch. None of these providers makes anything undetectable, none is risk free, and I am not going to call any of them a scam or a miracle. What actually separates them is boring and practical: the pricing model, the quality of the addresses, and what happens when a target breaks at the worst possible time.

    Here is the short version before the detail.

    Provider Best for Pricing model Pool strengths Support
    Bright Data Hardest targets, widest reach, finest control Per gb residential and mobile, per ip datacenter and static Largest pool, deepest geotargeting Enterprise account management
    Oxylabs Enterprise scale plus structured data Per gb and per ip, volume pricing Big pool, strong on hard targets Sales led, real support
    Smartproxy Mid volume, self serve, lower cost Per gb and per ip, simpler plans Smaller but solid pool Docs and chat, self serve

    What all three actually sell

    Underneath the dashboards, each one is a large network of ip addresses you route requests through, with a growing layer of scraping products stacked on top. You rent access to the pool, your request leaves through one of their addresses instead of your server’s, and the target sees that address rather than yours. The browsers, parsers, and structured data apis are convenience built on that core. The pool is the product.

    They all sell the same menu of pool types, and you match the pool to the target, not the brand. Datacenter addresses are cheap, fast, and fail first on strict sites. Residential addresses ride real home connections and carry ordinary trust, so they clear more hard targets. Mobile addresses ride carrier networks and carry the most trust, at the highest price. Static residential, sometimes called isp addresses, give you home connection trust with a fixed ip.

    The pricing model is the first fork

    The difference that decides your bill is how each pool is metered. Residential and mobile are almost always billed per gb, so you pay for bandwidth pulled, not requests made. Datacenter and static pools are more often billed per ip, a flat rent for addresses you hold. Per gb pricing punishes heavy pages, and per ip pricing rewards steady reuse. Before you compare success rates, know which meter you are standing on, because it moves your cost more than the logo does.

    On a per gb plan, page weight is the silent budget killer. A modern page can pull megabytes of images, fonts, and scripts you never parse, and you pay for all of it. Strip the request down, block the assets you do not read, and skip the full browser when the raw html already holds your data. I have watched a per gb bill drop by half just from not downloading images the job never looked at.

    Bright Data

    Bright Data is the biggest of the three by almost every measure. The largest pool, the widest product set, and the deepest geotargeting, down to city and carrier in a lot of places. That reach comes with the most complex dashboard and the price at the top end. I reach for it when a job is genuinely hard and I need the widest pool and the finest control, and I am willing to spend time learning a heavy console to get it. Power, at the cost of simplicity.

    Oxylabs

    Oxylabs sits in the same enterprise weight class. A big pool, strong performance on difficult targets, and a serious set of structured data products that hand you parsed fields for popular sites instead of raw html. It leans toward larger customers and sales led onboarding, so the entry is less self serve and more talk to a human. In my testing it goes toe to toe with Bright Data on the hard targets, and the choice between them usually comes down to pricing for your volume and which account team you would rather work with.

    Smartproxy

    Smartproxy is built for the rest of us. The pool is smaller than the two giants, but it is more than enough for most jobs, and everything about it is simpler and cheaper to start. Self serve signup, a cleaner dashboard, lower entry pricing, and plans that suit a mid volume scrape rather than an enterprise contract. This is where I point people who are not running at massive scale and do not want to negotiate a deal to pull a few million pages. Less raw ceiling than the giants, far less friction to begin.

    Hard targets, geotargeting, and support

    On an easy static site all three succeed, and the cheapest datacenter pool is fine. The differences only appear on strict targets that scrutinize every connection, where residential and mobile pools pull ahead because the trust they arrive with is higher. Be careful with that: a better pool clears more hard requests, but success rates move, targets change, and yesterday’s clean pool can degrade. You test and measure, you do not assume.

    Geotargeting is where the giants stretch their lead. Bright Data and Oxylabs let you pin a request to a country, a city, and often a specific carrier, which matters for localized pricing and content. Smartproxy covers country and city with less of the fine grained carrier control. If you only need country level views, you are overpaying for the deepest targeting.

    Support is the feature you ignore until you need it. The two enterprise providers give larger accounts a real account manager who answers when a target breaks and your pipeline is down on a Monday morning. The self serve tier leans on docs and chat, which is fine until the day it is not. Living with a provider for a year is mostly calm until one bad week, and that week is where support earns its price.

    How to choose

    Run the test yourself before you commit budget. Send a few thousand requests against the exact site you care about, on each provider’s trial, and measure the true success rate, the latency, and the cost per successful record. That last number is the one that matters, not the advertised cost per request, because on a hard target failed attempts still burn bandwidth and the two numbers drift far apart.

    For most ordinary jobs these three are basically interchangeable, and you should pick the cheapest one that clears your target and move on. The differences matter at the edges: the genuinely hard targets, very high volumes, carrier level geotargeting, or the moment you need a human. Bright Data is for the operator who needs the widest pool and deepest control and will pay for it. Oxylabs is for a similar enterprise buyer who wants strong performance, structured data, and real support. Smartproxy is for the mid volume scraper who wants a clean dashboard and honest entry pricing without a contract.

    One more thing worth knowing: all three now gate their residential and mobile pools behind identity and use case review. Treat that as a good sign, not a hassle. A provider that checks its customers is trying to keep its pool clean, and it keeps you on the honest path: public data, allowed targets, nothing personal or behind a login.

    The honest limits

    No provider changes the rules. Buying a bigger pool does not make anything undetectable, and it does not make it legal to collect data that was never yours to collect. Public data, a robots file respected, an official api or bulk feed preferred where one exists, a polite rate held. A proxy network absorbs the infrastructure work, not the responsibility for what you scrape. That stays with you no matter whose addresses the request rides on.

    I run this stack in production, my own mobile proxies alongside these services on real jobs, so the reviews and the pricing math I keep are the ones I actually use. If you want the full versions, tested on real targets with no undetectable promises and no guaranteed results, read them at dataresearchtools.com.

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  • Best Proxies for TikTok in 2026

    Best Proxies for TikTok in 2026

    TikTok has become the dominant short-form video platform globally, with over 1.5 billion monthly active users. For marketers, agencies, data analysts, and growth teams, operating on TikTok at scale requires a reliable proxy strategy.

    ByteDance, TikTok’s parent company, employs some of the most advanced anti-fraud and anti-automation systems in the social media industry. Their detection stack analyzes device fingerprints, IP reputation, behavioral patterns, and network characteristics to identify non-organic activity. Getting caught means account bans, shadow bans, or permanent device blacklisting.

    This guide from DataResearchTools.com covers the best proxy types for every TikTok use case, from account creation to data scraping to ad management.

    Why Proxies Matter for TikTok Operations

    TikTok’s security infrastructure is built to detect and block:

    • Multiple accounts from single IPs: TikTok cross-references accounts by IP, device ID, and behavioral signals
    • Automated interactions: Bot-like follow/like/comment patterns trigger immediate restrictions
    • Scraping activity: TikTok’s API and web interface are heavily protected against automated data collection
    • Geographic inconsistencies: Account location mismatches with IP geolocation trigger verification
    • Bulk account creation: Creating multiple accounts from datacenter IPs results in instant bans

    Proxies provide the IP diversity and geographic flexibility needed to operate multiple accounts safely, collect data at scale, and manage advertising campaigns across regions.

    What to Look for in TikTok Proxies

    1. Singapore Mobile Proxy — Best Mobile + Own-Hardware SG Carrier IPs

    Overview: Singapore Mobile Proxy runs an in-house phone farm in Singapore with real SIM cards on Singtel, StarHub, M1, and Vivifi. Every port maps to a dedicated physical modem, so the IP you rotate to is a genuine carrier IP, not a reseller pool. They are not the biggest, but for mobile + Asia + account-warming workloads they are the only provider running their own hardware end-to-end.

    Proxy Pool: 100+ live mobile devices in Singapore, with active expansion into Malaysia and Indonesia. Each port is one modem on a real 4G/5G SIM. Carriers covered: Singtel, StarHub, M1, Vivifi. Rotation is per-modem (not pool-shared) so subnets rotate within a single carrier ASN.

    Key Features:

    • Dedicated mobile ports — one modem, one SIM, one IP per port. No pool sharing.
    • API rotation — programmatic IP rotation via REST endpoint or token URL
    • Cloudfone integration — cloud-hosted Android phones (cloudf.one) with the same SIM for app-level workflows
    • Singapore IPs at scale — only provider with this much SG mobile inventory; useful for SEA market research
    • Honest geo — IPs are actually in Singapore, not VPN-routed

    Performance: Per-port bandwidth scales with the underlying carrier (typically 30–100 Mbps on 5G). Rotation latency is ~3 seconds (carrier reconnect time). Success rate on social platforms is consistently above 98% because each port is a real consumer device.

    Pricing:

    Plan Price Type Minimum
    Single Port $40/mo 1 dedicated mobile port, unlimited bandwidth 1 month
    Trial Free 24h 1 port full access None
    6-month prepay 10% off same port, paid up front $216
    12-month prepay 17% off same port, paid up front $398

    Pros:

    • Own hardware, own SIMs, own colocation — no upstream reseller
    • Flat monthly pricing with unlimited bandwidth (no GB metering)
    • Real Singapore carrier IPs, useful for SG/APAC-targeted workflows
    • Cloudfone bundle gives you a hosted Android device on the same IP

    Cons:

    • Mobile only — no datacenter, no residential, no ISP proxies
    • Singapore-first geography; other regions are still scaling
    • Smaller pool than mass-market providers

    Verdict: TikTok aggressively fingerprints IP+device, so a dedicated mobile port with a single SIM is the cleanest setup. SMP pairs with cloudfone if you also need an Android device on the same IP. learn more at singaporemobileproxy.com, or pair with cloudfone for a hosted Android device on the same SIM.


    2. Mobile-First IP Addresses

    TikTok is a mobile-native platform. Over 90% of legitimate TikTok usage occurs on mobile devices. Using mobile 4G/5G proxy IPs matches the expected connection profile and carries the highest trust scores.

    3. Clean IP History

    TikTok maintains one of the most aggressive IP blacklists in social media. IPs previously associated with spam, fake accounts, or automation are flagged permanently. Always verify that your proxy provider actively retires burned IPs.

    4. Country-Specific Targeting

    TikTok serves different content feeds based on region. If you are managing accounts targeting the US market, you need US-based proxies. For Southeast Asian markets, you need proxies from specific countries like Vietnam, Thailand, or Indonesia. Generic “global” proxies are insufficient.

    5. SOCKS5 Support

    Many TikTok automation tools and emulators require SOCKS5 protocol support. HTTP/HTTPS proxies work for web-based scraping, but mobile emulation typically needs SOCKS5 for full traffic tunneling.

    6. Session Duration

    Account management requires long sticky sessions (hours to days). Scraping can use rotating sessions. Ensure your provider offers both options with easy switching between modes.

    7. Bandwidth Capacity

    TikTok is video-heavy. Scraping video content or loading feeds consumes significant bandwidth. Budget accordingly — expect 5-20x the bandwidth consumption compared to text-based platforms.

    8. Connection Speed

    TikTok’s app expects fast loading times. Proxies with latency above 300ms create detectable anomalies in the app’s network timing analysis. Target sub-150ms latency for account management and sub-100ms for scraping.

    Proxy Type Comparison for TikTok

    Feature Mobile (4G/5G) Residential ISP (Static) Datacenter
    Account Creation Safety Excellent Good Poor Very Poor
    Account Management Excellent Good Medium Very Poor
    Content Scraping Good Very Good Good Poor
    Ad Account Management Excellent Good Medium Poor
    Speed Variable (50-300ms) Medium (50-200ms) Fast (10-50ms) Very Fast (5-20ms)
    IP Trust on TikTok Very High High Medium Very Low
    Cost per GB $5-15 $2-8 $2-5/IP/month $0.10-0.50
    Accounts per Proxy 3-8 1-3 1 Not viable
    SOCKS5 Support Usually Varies Usually Usually
    Overall TikTok Rating 10/10 7/10 4/10 1/10

    Mobile Proxies: The Only Real Option for Account Work

    For any TikTok activity involving accounts — creation, management, growth, posting — mobile proxies are not just the best option, they are essentially the only viable option in 2026.

    TikTok’s detection systems are specifically tuned to expect mobile connections. The platform analyzes:

    • IP type: Mobile carrier IPs vs. ISP vs. datacenter
    • ASN reputation: Known mobile carrier ASNs are trusted
    • Connection characteristics: Mobile connections have distinct TCP/IP fingerprints
    • CGNAT behavior: Multiple users per IP is expected on mobile networks

    A mobile proxy naturally satisfies all these checks. Residential and ISP proxies can work for low-volume operations, but mobile proxies deliver dramatically higher success rates.

    Residential Proxies: Viable for Scraping

    Residential rotating proxies work well for TikTok data collection that does not involve account activity. Use cases include:

    • Scraping public profiles and post metadata
    • Collecting hashtag trends and analytics
    • Monitoring competitor content and engagement
    • Gathering ad library data

    The large IP pools and geographic diversity of residential proxies make them cost-effective for high-volume scraping operations.

    ISP and Datacenter Proxies: Mostly Ineffective

    ISP proxies can work for very limited, low-risk TikTok operations, but they lack the mobile fingerprint that TikTok expects. Datacenter proxies are effectively useless — TikTok blocks them almost universally.

    Setup Tips and Configuration

    Account Creation Protocol

    Account creation is the highest-risk activity on TikTok. Follow these steps:

    1. One account per mobile proxy during creation
    2. Match proxy country to the phone number’s country code
    3. Complete profile setup (bio, avatar, interests) before any other activity
    4. Wait 24-48 hours after creation before any automation
    5. Use consistent device fingerprints paired with the proxy

    Account Management Configuration

    For ongoing account management:

    • Assign 3-5 accounts maximum per mobile proxy
    • Use sticky sessions of 12-24 hours per account session
    • Schedule activities during realistic hours for the proxy’s timezone
    • Maintain consistent daily activity patterns (do not spike from 10 actions to 1000)
    • Pair each proxy with a dedicated device profile in your anti-detect browser

    Scraping Architecture

    For TikTok data scraping:

    • Use residential rotating proxies with per-request rotation
    • Implement 3-8 second delays between requests
    • Rotate user-agents across mobile device profiles
    • Target TikTok’s web interface (tiktok.com) rather than the API when possible
    • Handle JavaScript rendering with headless browsers (Playwright recommended)
    • Monitor for soft blocks (empty responses, degraded content) and rotate IPs immediately

    Ad Account Management

    TikTok Ads Manager requires stable, trustworthy connections:

    • One mobile proxy per ad account or business center
    • Sticky sessions of 24+ hours
    • Geographic match between proxy location and billing address
    • Never share proxies between unrelated ad accounts
    • Use the same proxy for both TikTok Ads Manager and any linked TikTok accounts

    Regional Content Access

    To view TikTok’s For You Page from specific regions:

    • Use mobile proxies from the target country
    • Pair with a device language setting matching the region
    • Create a fresh account from that region’s proxy
    • Engage with local content to train the algorithm

    Common Mistakes to Avoid

    1. Using Datacenter Proxies for Account Operations

    TikTok’s detection system identifies datacenter IPs within seconds. Accounts created or managed through DC proxies face immediate suspension. This is the most common and most costly mistake.

    2. Creating Multiple Accounts Per Session

    Creating several accounts through the same proxy in rapid succession is a guaranteed ban trigger. Space account creation across different proxies and different time periods (at least 24 hours apart per proxy).

    3. Ignoring Device Fingerprint Consistency

    A proxy change without a matching device fingerprint change raises flags. TikTok correlates IP addresses with device IDs, screen resolutions, installed fonts, and hardware specifications. Use an anti-detect browser or device farm that maintains consistent fingerprints per account. Check your setup with our browser fingerprint tester.

    4. Aggressive Automation from Day One

    TikTok’s trust system evaluates accounts over time. New accounts that immediately engage in high-volume activity (mass follows, rapid likes, automated comments) get flagged regardless of proxy quality. Always warm up accounts gradually.

    5. Using the Same Proxy Provider’s Pool for All Activities

    If your account management and scraping use the same proxy provider, a mass IP ban from aggressive scraping can cascade to your managed accounts. Use separate providers or separate IP pools for different activities.

    6. Neglecting Regional Proxy Requirements

    TikTok operates different content ecosystems by region. Using US proxies to manage accounts targeting the Vietnamese market creates geographic inconsistencies that TikTok detects and penalizes.

    7. Scraping Without Headless Browser Rendering

    TikTok’s web interface relies heavily on JavaScript for content rendering. Simple HTTP requests return incomplete or empty data. Always use a full browser engine (Playwright, Puppeteer) for web scraping, and ensure your proxy supports the connection volume this requires.

    Cost Planning for TikTok Operations

    Use Case Proxy Type 10 Accounts 50 Accounts 200 Accounts
    Account Management Mobile 4G $30-75/mo $100-300/mo $300-1,000/mo
    Content Posting Mobile 4G $30-75/mo $100-300/mo $300-1,000/mo
    Data Scraping Residential $20-50/mo $50-150/mo $150-500/mo
    Ad Management Mobile 4G $20-50/mo $75-200/mo $200-600/mo

    Use our proxy cost calculator for detailed estimates based on your specific requirements.

    Conclusion and Recommendations

    TikTok’s aggressive anti-bot measures make proxy choice more critical here than on almost any other platform. Our recommendations for 2026:

    • Account creation and management: Mobile 4G/5G proxies are mandatory. Do not attempt to use any other type for account-level operations.
    • Data scraping: Residential rotating proxies offer the best cost-to-performance ratio for large-scale data collection. Use headless browsers for rendering.
    • Ad account management: Mobile proxies with long sticky sessions. Match proxy geography to account billing region.
    • Cross-regional content access: Mobile proxies from the target country, paired with matching device and language settings.

    Invest in quality mobile proxies from providers that specialize in the geographic regions you target. The cost difference between cheap and quality mobile proxies is small compared to the cost of losing accounts and data collection capability.

    For more proxy fundamentals, explore our proxy glossary.


    Related Reading

  • Anti-Detection Best Practices for Account Farming Operations

    Anti-Detection Best Practices for Account Farming Operations

    Account farming — the systematic creation, warming, and maintenance of multiple accounts across platforms — is only as sustainable as the anti-detection practices behind it. Platforms invest millions annually in fraud detection, and their systems grow more sophisticated with every passing quarter. The operators who survive long-term are those who treat anti-detection not as a one-time setup but as an ongoing discipline that evolves alongside platform defenses.

    This comprehensive guide covers every layer of anti-detection for account farming operations, from network infrastructure to behavioral modeling, providing the technical depth needed to build detection-resistant systems.

    The Detection Stack: Understanding What You Are Up Against

    Modern platform detection operates across multiple independent layers. Defeating any single layer is insufficient — you must address all of them simultaneously.

    Layer 1: Network Detection

    Network-level analysis examines:

    • IP address reputation: Historical abuse scores, proxy/VPN detection, datacenter identification
    • IP consistency: Whether the account’s IP changes in patterns consistent with real users
    • ASN classification: Whether the IP belongs to a mobile carrier, ISP, hosting provider, or VPN service
    • DNS behavior: Whether DNS queries match the expected resolver for the claimed IP
    • TLS fingerprinting: JA3/JA4 hashes that identify specific client software
    • HTTP headers: Header ordering, presence/absence of headers, and header values

    Layer 2: Device Detection

    Device-level signals include:

    • Browser fingerprinting: Canvas, WebGL, AudioContext, font enumeration, navigator properties
    • Hardware characteristics: Screen resolution, color depth, device memory, CPU cores
    • Sensor data: Accelerometer, gyroscope, magnetometer patterns (mobile)
    • Installed software: Browser plugins, system fonts, media codecs
    • Runtime environment: Detection of virtual machines, emulators, automation frameworks

    Layer 3: Behavioral Detection

    Behavioral analysis examines:

    • Activity patterns: Session timing, frequency, duration distributions
    • Interaction velocity: Speed of clicks, scrolls, swipes, and keystrokes
    • Navigation patterns: How users move through the platform
    • Content patterns: What is posted, liked, shared, and how it relates to other accounts
    • Error patterns: Rate of mistakes, backspaces, and corrections

    Layer 4: Identity Detection

    Identity-based signals include:

    • Cross-account correlation: Shared contact information, payment methods, or identifiers
    • Social graph analysis: Relationship patterns between accounts
    • Content similarity: Text, photo, and metadata analysis across accounts
    • Temporal correlation: Accounts created, verified, or active at the same times

    For technical definitions of proxy-related detection concepts, visit our proxy glossary.

    Network Anti-Detection

    Mobile Proxy Best Practices

    Mobile proxies are the foundation of network anti-detection. Optimize your usage with these practices:

    IP rotation strategy:

    • Rotate IPs between sessions, not during sessions
    • After rotation, wait 2-5 minutes before logging into the account (simulate the natural delay of a network change)
    • Track which IPs have been assigned to which accounts to prevent accidental reuse
    • Maintain a minimum pool of 3 IPs per account for natural-looking rotation

    Geographic consistency:

    • Account location, proxy location, and timezone must align
    • If an account is “based” in Los Angeles, use LA-area mobile proxies
    • Occasional travel is natural — if you change an account’s city, do so realistically (gradual movement, consistent time at the new location)

    Carrier management:

    • Distribute accounts across multiple carriers
    • Accounts in the same city should use different carriers
    • Avoid concentrating more than 5-10 accounts on any single carrier in a single city

    DNS Configuration

    DNS leaks are one of the most common and easiest-to-fix anti-detection failures:

    • Route all DNS queries through the proxy (not through your local resolver)
    • Use DNS-over-HTTPS (DoH) through the proxy tunnel
    • Verify DNS configuration with leak test tools before every operational session
    • If using SOCKS5 proxies, ensure DNS resolution happens remotely (SOCKS5h)

    TLS Fingerprint Management

    Your TLS fingerprint must match the browser you claim to be:

    • Use anti-detect browsers that generate authentic TLS fingerprints
    • Avoid headless browsers in production (their TLS fingerprints are cataloged)
    • Test your TLS fingerprint against databases like ja3er.com
    • Match TLS fingerprint to user agent — a Chrome user agent with a Firefox TLS fingerprint is an immediate red flag

    WebRTC Protection

    WebRTC can expose your real IP address:

    • Configure WebRTC to use the proxy IP (preferred over disabling)
    • Disabling WebRTC entirely is detectable and may trigger suspicion
    • Test for WebRTC leaks before every session
    • Some anti-detect browsers handle this automatically, but verify independently

    Device Anti-Detection

    Browser Fingerprint Management

    Anti-detect browsers (Multilogin, GoLogin, AdsPower, Dolphin Anty) are essential for managing unique browser fingerprints. Key configuration parameters:

    Canvas fingerprint:

    • Each profile should produce a unique canvas rendering
    • The fingerprint should be consistent across sessions for the same profile
    • Do not use obviously randomized noise — it should appear natural
    • Verify that the canvas fingerprint matches the claimed hardware

    WebGL fingerprint:

    • Renderer and vendor strings must match a real GPU
    • WebGL parameters should be internally consistent
    • Match WebGL capabilities to the claimed device and browser version

    Audio fingerprint:

    • AudioContext processing produces device-specific results
    • Anti-detect browsers should noise this consistently per profile
    • Verify with fingerprinting test sites

    Font fingerprint:

    • Installed fonts vary by operating system and locale
    • The font list should match the claimed OS and language settings
    • Do not add unusual fonts that would make the profile distinctive

    Navigator properties:

    • Platform, language, userAgent must be internally consistent
    • Hardware concurrency should match claimed device
    • Device memory should be realistic for the claimed hardware
    • Max touch points should match the claimed device type

    Emulator Anti-Detection

    For mobile app operations:

    Android emulator hardening:

    • Remove or hide emulator-specific files and properties
    • Modify build.prop to match a real device model
    • Install real Google Play Services (not emulated)
    • Pass SafetyNet/Play Integrity attestation
    • Generate unique sensor data (accelerometer, gyroscope values)
    • Use realistic battery simulation
    • Disable debug bridges (ADB) during operations

    Detection signals to eliminate:

    • Build fingerprint containing “generic” or “sdk”
    • IMEI of all zeros or sequential numbers
    • Missing or static sensor data
    • Perfect battery levels (never changing)
    • Absence of expected system apps
    • Root detection triggers

    Behavioral Anti-Detection

    Human-Like Timing

    The most sophisticated anti-detection systems analyze timing distributions:

    Click and interaction timing:

    • Use Gaussian (normal) distributions for delays, not uniform random
    • Mean delay should match real user benchmarks for the specific platform
    • Include occasional outliers (very fast or very slow actions) that match natural behavior
    • Different actions should have different timing profiles (scrolling is faster than typing)

    Session patterns:

    • Session length should follow a log-normal distribution (many short sessions, fewer long ones)
    • Include natural session endings (not always the same duration)
    • Build in “distraction” patterns — pause for 30-60 seconds mid-session as if checking another app
    • Vary daily session count (2-5 sessions per day with natural variation)

    Weekly and monthly patterns:

    • Weekend activity should differ from weekday activity
    • Include low-activity days (real users have days when they barely use an app)
    • Seasonal variation is natural (more indoor app usage during bad weather)
    • Holiday periods should show reduced activity

    Mouse and Touch Patterns

    Advanced detection systems analyze input device behavior:

    Mouse movement (desktop):

    • Move the mouse in natural curves, not straight lines
    • Vary movement speed (accelerate and decelerate naturally)
    • Include micro-movements and hover patterns
    • Click with slight position variation (not exactly on the center of buttons)

    Touch interaction (mobile):

    • Vary touch pressure (if the platform collects this data)
    • Swipe at natural speeds with slight angle variation
    • Include occasional mistaps followed by corrections
    • Scroll at realistic velocities with natural deceleration

    Content Patterns

    Content posted from farmed accounts must appear individually created:

    • Never copy-paste between accounts
    • Vary writing style (sentence length, vocabulary complexity, punctuation habits)
    • Different accounts should have different content themes and interests
    • Reaction patterns (likes, shares) should reflect distinct personal preferences
    • Engagement timing should be natural — read a post for a realistic duration before reacting

    Infrastructure Security (OPSEC)

    Isolation Architecture

    Network isolation:

    • Your management infrastructure should never share network paths with farmed accounts
    • Use separate internet connections for operational management vs. account operation
    • Administrative access to proxy management panels should be from a different IP than any farmed account
    • Never access your real personal accounts from the same infrastructure

    Data isolation:

    • Store account credentials in encrypted databases
    • Separate credential storage from operational scripts
    • Implement access controls — not everyone on the team needs access to all accounts
    • Regular credential rotation where platforms support it

    Physical isolation:

    • Operational machines should be dedicated to farming operations
    • Personal devices should never be used for operational activities
    • If using cloud infrastructure, different accounts should use different cloud provider accounts
    • Wipe and rebuild operational environments quarterly

    Monitoring and Alerting

    Build comprehensive monitoring:

    Account health dashboard:

    • Login success rate per account (target: >99%)
    • Action completion rate (target: >95%)
    • Verification challenge frequency (target: <5% of sessions)
    • Content visibility metrics (detect shadow bans)
    • Engagement rate trends (declining engagement suggests flagging)

    Infrastructure health:

    • Proxy uptime and latency per provider
    • Browser profile integrity verification
    • DNS leak tests (automated, daily)
    • TLS fingerprint consistency checks

    Alert thresholds:

    • Any verification challenge → immediate investigation
    • Engagement rate drop >30% → potential shadow ban
    • Proxy latency spike >500ms → consider rotation
    • Multiple accounts flagged within 24 hours → systemic issue, pause operations

    Cross-Platform Anti-Detection

    Platform Intelligence Sharing

    Major platforms share anti-fraud intelligence:

    • Meta ecosystem: Facebook, Instagram, WhatsApp, and Threads share detection data
    • Google ecosystem: Gmail, YouTube, Google Play, and Google Ads share data
    • Match Group: Tinder, Hinge, OkCupid, and Match.com share data
    • Apple ecosystem: App Store, iCloud, and Apple ID share data

    Implications:

    • Never use the same proxy, device fingerprint, or phone number across platforms within the same ecosystem
    • A ban on one platform in an ecosystem increases scrutiny on accounts from similar infrastructure on other platforms
    • Separate your proxy pools by ecosystem — Meta proxies, Google proxies, etc.

    Avoiding Cross-Platform Correlation

    • Different proxy providers for different platform ecosystems
    • Different anti-detect browser profiles per platform
    • Different phone numbers per platform
    • Different email providers per platform
    • No overlapping personal information across platforms

    Continuous Improvement

    Testing and Validation

    Regular detection testing:

    • Run your fingerprints against detection services (Pixelscan, BrowserLeaks, CreepJS)
    • Test new browser profiles before deploying them operationally
    • Verify proxy quality monthly with IP reputation services
    • Audit behavioral patterns quarterly against platform best practices

    A/B testing:

    • Test different anti-detect browser configurations
    • Compare account survival rates across different proxy providers
    • Evaluate different warming schedules
    • Measure the impact of behavioral variations on account longevity

    Staying Current

    Platform detection evolves constantly. Stay informed through:

    • Anti-detect browser update changelogs
    • Proxy provider announcements about IP quality changes
    • Industry forums and communities discussing detection changes
    • Platform engineering blog posts about security improvements
    • Monitoring your own account survival metrics for trend changes

    Building a Resilient Operation

    The ultimate goal is not to make individual accounts undetectable — it is to build an operation that can sustain losses and recover quickly:

    • Expect account losses. Budget for 10-20% monthly attrition.
    • Maintain account pipelines. Always have accounts warming as replacements.
    • Diversify infrastructure. No single proxy provider, device type, or method should be a single point of failure.
    • Document everything. When accounts are lost, understand why and adjust procedures.
    • Invest in quality. Premium mobile proxies and properly configured anti-detect browsers cost more but deliver dramatically better results than budget alternatives.

    Conclusion

    Anti-detection for account farming is not a product you buy — it is a discipline you practice. Every layer of your operation, from network infrastructure to behavioral patterns to content creation, must present a consistent, authentic-seeming identity for each account. No single tool or technique provides comprehensive protection. Success comes from the systematic application of anti-detection principles across every layer, combined with continuous monitoring, testing, and adaptation.

    The operators who invest in understanding detection systems, building proper infrastructure, and maintaining disciplined operational practices will always outperform those who rely on a single tool or shortcut. Build for resilience, plan for losses, and never stop improving your anti-detection capabilities.


    Related Reading

  • Best Proxies for Binance, Bybit, and OKX API Trading

    Best Proxies for Binance, Bybit, and OKX API Trading

    API trading on major centralized exchanges is the foundation of algorithmic crypto trading. Binance, Bybit, and OKX each handle billions of dollars in daily volume, and their APIs power everything from simple trading bots to institutional-grade market-making systems. Each exchange has distinct API characteristics, rate limit structures, and IP management policies that affect how you should configure your proxy infrastructure.

    This guide provides exchange-specific proxy configurations, performance benchmarks, and practical setup examples for each of the three largest crypto exchanges.

    Exchange API Comparison

    Feature Binance Bybit OKX
    REST Rate Limit 1,200/min (weight-based) 120 req/5s per endpoint 20 req/2s per endpoint
    WebSocket Streams 1,024 per connection 200 per connection 100 per connection
    IP Whitelisting Required for withdrawals Optional Required for trading
    Max API Keys 30 per account 20 per account 20 per account
    Geographic Restrictions Yes (US, etc.) Yes (varies) Yes (varies)

    Binance API Proxy Setup

    Understanding Binance’s Weight System

    Binance uses a weight-based rate limiting system rather than simple request counting. Each endpoint costs a different weight:

    • GET /api/v3/ticker/price — 2 weight
    • GET /api/v3/depth (limit 100) — 10 weight
    • POST /api/v3/order — 1 weight
    • GET /api/v3/account — 20 weight

    The total weight limit is 1,200 per minute per IP address. This means a single IP can execute 1,200 order placements but only 60 account balance checks per minute.

    Proxy Configuration for Binance

    import aiohttp
    import asyncio
    import hmac
    import hashlib
    import time
    from urllib.parse import urlencode
    from typing import Dict, Optional
    
    class BinanceProxyTrader:
        BASE_URL = "https://api.binance.com"
        FUTURES_URL = "https://fapi.binance.com"
    
        def __init__(self, api_key: str, api_secret: str, proxy: str):
            self.api_key = api_key
            self.api_secret = api_secret
            self.proxy = proxy
            self.weight_used = 0
            self.weight_reset_time = time.time() + 60
    
        def _sign(self, params: dict) -> str:
            query_string = urlencode(params)
            signature = hmac.new(
                self.api_secret.encode(),
                query_string.encode(),
                hashlib.sha256
            ).hexdigest()
            return signature
    
        def _get_headers(self) -> dict:
            return {"X-MBX-APIKEY": self.api_key}
    
        async def _check_weight(self, weight: int):
            """Enforce rate limits locally before sending request."""
            now = time.time()
            if now > self.weight_reset_time:
                self.weight_used = 0
                self.weight_reset_time = now + 60
    
            if self.weight_used + weight > 1100:  # 92% threshold
                wait_time = self.weight_reset_time - now
                if wait_time > 0:
                    await asyncio.sleep(wait_time)
                self.weight_used = 0
                self.weight_reset_time = time.time() + 60
    
            self.weight_used += weight
    
        async def get_price(self, session, symbol: str) -> float:
            await self._check_weight(2)
            url = f"{self.BASE_URL}/api/v3/ticker/price"
    
            async with session.get(
                url,
                params={"symbol": symbol},
                headers=self._get_headers(),
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                # Update weight from response headers
                self.weight_used = int(
                    resp.headers.get("X-MBX-USED-WEIGHT-1M", 0)
                )
                data = await resp.json()
                return float(data["price"])
    
        async def place_order(self, session, symbol: str, side: str,
                               order_type: str, quantity: float,
                               price: float = None) -> dict:
            await self._check_weight(1)
            url = f"{self.BASE_URL}/api/v3/order"
    
            params = {
                "symbol": symbol,
                "side": side,
                "type": order_type,
                "quantity": str(quantity),
                "timestamp": int(time.time() * 1000),
                "recvWindow": 5000,
            }
            if price and order_type == "LIMIT":
                params["price"] = str(price)
                params["timeInForce"] = "GTC"
    
            params["signature"] = self._sign(params)
    
            async with session.post(
                url,
                data=params,
                headers=self._get_headers(),
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                self.weight_used = int(
                    resp.headers.get("X-MBX-USED-WEIGHT-1M", 0)
                )
                return await resp.json()
    
        async def get_account(self, session) -> dict:
            await self._check_weight(20)
            url = f"{self.BASE_URL}/api/v3/account"
    
            params = {
                "timestamp": int(time.time() * 1000),
                "recvWindow": 5000,
            }
            params["signature"] = self._sign(params)
    
            async with session.get(
                url,
                params=params,
                headers=self._get_headers(),
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                return await resp.json()

    Binance IP Whitelisting with Proxies

    Binance requires IP whitelisting for API keys that can perform withdrawals. When using proxies, you need to whitelist your proxy’s IP address, not your server’s IP:

    1. Get your proxy’s exit IP: curl --proxy http://user:pass@proxy:port https://api.ipify.org
    2. In Binance API management, add this IP to the whitelist
    3. Use sticky proxies to maintain the same exit IP

    Important: Use mobile proxies with extended sticky sessions (24h+) for Binance API trading. If your proxy IP rotates, your API calls will be rejected by the whitelist.

    Bybit API Proxy Setup

    Bybit Rate Limit Structure

    Bybit uses per-endpoint rate limits measured in requests per 5-second window:

    • Market data endpoints: 120 requests per 5 seconds
    • Order endpoints: 10 requests per second
    • Account endpoints: 120 requests per 5 seconds
    class BybitProxyTrader:
        BASE_URL = "https://api.bybit.com"
    
        def __init__(self, api_key: str, api_secret: str, proxy: str):
            self.api_key = api_key
            self.api_secret = api_secret
            self.proxy = proxy
    
        def _sign(self, params: dict, timestamp: int) -> str:
            param_str = f"{timestamp}{self.api_key}5000"
            param_str += urlencode(sorted(params.items()))
            return hmac.new(
                self.api_secret.encode(),
                param_str.encode(),
                hashlib.sha256
            ).hexdigest()
    
        def _get_headers(self, params: dict = None) -> dict:
            timestamp = int(time.time() * 1000)
            sign = self._sign(params or {}, timestamp)
            return {
                "X-BAPI-API-KEY": self.api_key,
                "X-BAPI-SIGN": sign,
                "X-BAPI-TIMESTAMP": str(timestamp),
                "X-BAPI-RECV-WINDOW": "5000",
                "Content-Type": "application/json",
            }
    
        async def get_tickers(self, session, category: str = "spot",
                               symbol: str = None) -> dict:
            url = f"{self.BASE_URL}/v5/market/tickers"
            params = {"category": category}
            if symbol:
                params["symbol"] = symbol
    
            async with session.get(
                url,
                params=params,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                data = await resp.json()
                return data.get("result", {})
    
        async def place_order(self, session, symbol: str, side: str,
                               order_type: str, qty: str,
                               price: str = None) -> dict:
            url = f"{self.BASE_URL}/v5/order/create"
    
            payload = {
                "category": "spot",
                "symbol": symbol,
                "side": side.capitalize(),
                "orderType": order_type.capitalize(),
                "qty": qty,
            }
            if price:
                payload["price"] = price
    
            headers = self._get_headers(payload)
    
            async with session.post(
                url,
                json=payload,
                headers=headers,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                return await resp.json()
    
        async def get_wallet_balance(self, session,
                                      account_type: str = "UNIFIED") -> dict:
            url = f"{self.BASE_URL}/v5/account/wallet-balance"
            params = {"accountType": account_type}
            headers = self._get_headers(params)
    
            async with session.get(
                url,
                params=params,
                headers=headers,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                return await resp.json()

    OKX API Proxy Setup

    OKX Rate Limit Structure

    OKX has the most restrictive rate limits among the three exchanges:

    • Trade endpoints: 60 requests per 2 seconds (per instrument)
    • Market data: 20 requests per 2 seconds
    • Account info: 10 requests per 2 seconds
    import base64
    import datetime
    
    class OKXProxyTrader:
        BASE_URL = "https://www.okx.com"
    
        def __init__(self, api_key: str, secret_key: str,
                     passphrase: str, proxy: str):
            self.api_key = api_key
            self.secret_key = secret_key
            self.passphrase = passphrase
            self.proxy = proxy
    
        def _sign(self, timestamp: str, method: str,
                  request_path: str, body: str = "") -> str:
            message = timestamp + method + request_path + body
            mac = hmac.new(
                self.secret_key.encode(),
                message.encode(),
                hashlib.sha256
            )
            return base64.b64encode(mac.digest()).decode()
    
        def _get_headers(self, method: str, request_path: str,
                          body: str = "") -> dict:
            timestamp = datetime.datetime.utcnow().strftime(
                '%Y-%m-%dT%H:%M:%S.%f'
            )[:-3] + 'Z'
            sign = self._sign(timestamp, method, request_path, body)
    
            return {
                "OK-ACCESS-KEY": self.api_key,
                "OK-ACCESS-SIGN": sign,
                "OK-ACCESS-TIMESTAMP": timestamp,
                "OK-ACCESS-PASSPHRASE": self.passphrase,
                "Content-Type": "application/json",
            }
    
        async def get_ticker(self, session, inst_id: str) -> dict:
            path = f"/api/v5/market/ticker?instId={inst_id}"
            headers = self._get_headers("GET", path)
    
            async with session.get(
                f"{self.BASE_URL}{path}",
                headers=headers,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                data = await resp.json()
                return data.get("data", [{}])[0]
    
        async def place_order(self, session, inst_id: str,
                               side: str, ord_type: str,
                               sz: str, px: str = None) -> dict:
            path = "/api/v5/trade/order"
            body = {
                "instId": inst_id,
                "tdMode": "cash",
                "side": side,
                "ordType": ord_type,
                "sz": sz,
            }
            if px:
                body["px"] = px
    
            import json
            body_str = json.dumps(body)
            headers = self._get_headers("POST", path, body_str)
    
            async with session.post(
                f"{self.BASE_URL}{path}",
                data=body_str,
                headers=headers,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                return await resp.json()
    
        async def get_account_balance(self, session) -> dict:
            path = "/api/v5/account/balance"
            headers = self._get_headers("GET", path)
    
            async with session.get(
                f"{self.BASE_URL}{path}",
                headers=headers,
                proxy=f"http://{self.proxy}",
                timeout=aiohttp.ClientTimeout(total=5)
            ) as resp:
                return await resp.json()

    Multi-Exchange Proxy Architecture

    For traders operating across all three exchanges simultaneously:

    class MultiExchangeProxySetup:
        def __init__(self):
            self.exchanges = {}
    
        def configure(self, exchange: str, api_key: str,
                       api_secret: str, proxy: str, **kwargs):
            if exchange == "binance":
                self.exchanges["binance"] = BinanceProxyTrader(
                    api_key, api_secret, proxy
                )
            elif exchange == "bybit":
                self.exchanges["bybit"] = BybitProxyTrader(
                    api_key, api_secret, proxy
                )
            elif exchange == "okx":
                self.exchanges["okx"] = OKXProxyTrader(
                    api_key, api_secret,
                    kwargs.get("passphrase", ""),
                    proxy
                )
    
        async def get_prices(self, symbol_map: dict) -> dict:
            """Get prices from all exchanges simultaneously."""
            async with aiohttp.ClientSession() as session:
                results = {}
                tasks = {}
    
                for exchange, trader in self.exchanges.items():
                    symbol = symbol_map.get(exchange)
                    if not symbol:
                        continue
    
                    if exchange == "binance":
                        tasks[exchange] = trader.get_price(session, symbol)
                    elif exchange == "bybit":
                        tasks[exchange] = trader.get_tickers(
                            session, symbol=symbol
                        )
                    elif exchange == "okx":
                        tasks[exchange] = trader.get_ticker(session, symbol)
    
                for exchange, task in tasks.items():
                    try:
                        results[exchange] = await task
                    except Exception as e:
                        results[exchange] = {"error": str(e)}
    
                return results

    Proxy Recommendations by Exchange

    Exchange Proxy Type Session Notes
    Binance Mobile (sticky 24h) Dedicated per API key Must whitelist exit IP
    Bybit Mobile (sticky 1h+) Can share across keys Less strict than Binance
    OKX Mobile (sticky 24h) Dedicated per API key IP binding enforced

    All three exchanges work best with mobile proxies that provide stable, high-trust IP addresses. Datacenter proxies are detected and restricted by all three platforms.

    Latency Benchmarks

    Proxy latency directly impacts trading performance. Here are typical latency ranges:

    Proxy Type Binance (Singapore) Bybit (Singapore) OKX (Hong Kong)
    No proxy (co-located) 1-3ms 1-3ms 1-3ms
    Datacenter (same region) 3-10ms 3-10ms 3-10ms
    Mobile (same region) 20-80ms 20-80ms 20-80ms
    Mobile (cross-region) 100-300ms 100-300ms 100-300ms

    For high-frequency strategies, co-located servers without proxies are ideal. For medium-frequency strategies (holding positions for minutes to hours), mobile proxies in the exchange’s region provide acceptable latency. To understand how latency, IP reputation, and connection types interact, the proxy glossary provides detailed technical explanations.

    WebSocket Streams Through Proxies

    All three exchanges provide WebSocket feeds for real-time data. Configure persistent WebSocket connections through your proxies:

    async def binance_websocket_stream(proxy: str, symbols: list):
        streams = "/".join(f"{s.lower()}@trade" for s in symbols)
        ws_url = f"wss://stream.binance.com:9443/stream?streams={streams}"
    
        async with aiohttp.ClientSession() as session:
            async with session.ws_connect(
                ws_url,
                proxy=f"http://{proxy}",
                heartbeat=30
            ) as ws:
                async for msg in ws:
                    if msg.type == aiohttp.WSMsgType.TEXT:
                        data = msg.json()
                        stream = data.get("stream", "")
                        trade = data.get("data", {})
                        print(f"{stream}: {trade.get('p')} @ {trade.get('q')}")

    Common Mistakes

    Using the same proxy for multiple exchange accounts. Exchanges cross-reference IPs across accounts. Dedicate one proxy per account.

    Not accounting for clock skew. API signature validation requires accurate timestamps. Ensure your server clock is synchronized via NTP, and account for any proxy-induced time offset.

    Ignoring IP changes on rotating proxies. If your proxy IP changes mid-session, authenticated API calls fail. Use sticky sessions for trading operations.

    Not implementing local rate limiting. Relying solely on exchange 429 responses wastes requests and risks temporary bans. Track and enforce rate limits in your code.

    Conclusion

    Each exchange demands a tailored proxy approach. Binance’s weight-based limits require careful request budgeting, Bybit’s per-endpoint limits need endpoint-aware rotation, and OKX’s strict IP binding demands the most stable proxy connections. Mobile proxies with extended sticky sessions are the universal recommendation across all three platforms. Invest in exchange-specific proxy configurations rather than using a one-size-fits-all approach, and always implement local rate limiting to protect your API access.


    Related Reading

  • best proxies for browser use and AI agents (2026)

    Best Proxies for Browser Use, Operator & Agentic AI Tools

    The rise of agentic AI tools has created a new category of web automation. Tools like Browser Use, OpenAI Operator, and similar AI-driven browser agents can navigate websites, fill out forms, extract data, and complete complex multi-step tasks autonomously. But there is a problem: these agents hit the same anti-bot defenses that block traditional scrapers, often even faster because their browsing patterns differ from human users.

    looking for premium 4G/5G IPs? our Singapore mobile proxies for AI agents start at $40/month for 200GB.

    Proxies are the missing piece that makes agentic AI tools work reliably at scale. This guide covers the best proxy strategies for the leading agentic AI browser tools in 2026, with practical setup guides and configuration examples.

    What Are Agentic AI Browser Tools?

    Agentic AI browser tools combine large language models with browser automation. Instead of writing step-by-step scripts, you describe a task in natural language and the AI agent figures out how to navigate the web to accomplish it.

    Browser Use

    Browser Use is an open-source framework that connects LLMs to browser automation. It interprets web pages visually and through the DOM, then decides what actions to take (click, type, scroll, navigate). It is popular among developers building custom AI automation workflows.

    Key features:

    • Open-source and self-hosted
    • Works with multiple LLM providers (OpenAI, Anthropic, local models)
    • Full control over browser configuration, including proxy settings
    • Supports headless and headed browser modes
    • Active community and rapid development

    OpenAI Operator

    OpenAI Operator is a commercial agentic browsing product that uses GPT models to navigate the web on behalf of users. It handles tasks like booking reservations, filling out applications, and researching products.

    Key features:

    • Hosted service with built-in browser infrastructure
    • Uses computer vision to understand web pages
    • Handles authentication and multi-step workflows
    • Less control over underlying browser configuration compared to self-hosted tools

    Other Notable Agentic Tools

    • Anthropic Computer Use — Claude-based agent that can control a full desktop environment
    • Microsoft Copilot Actions — AI agent integrated with Microsoft ecosystem
    • AgentGPT / AutoGPT — Open-source autonomous AI agents that can browse the web
    • Multion — AI browser agent focused on personal assistant tasks
    • Browserbase — Infrastructure platform for running AI browser agents at scale

    Why Agentic AI Tools Need Proxies

    Problem 1: IP-Based Blocking

    AI agents make many requests in sequence. Even when they browse at human-like speeds, the volume and patterns of their requests differ from natural human browsing:

    • Multiple sequential visits to the same domain
    • Systematic navigation patterns (e.g., visiting every product in a category)
    • Requests from datacenter IPs if running on cloud infrastructure
    • Lack of browsing history, cookies, and other signs of an established user

    Websites detect these patterns and block the offending IP address.

    Problem 2: Geo-Restricted Content

    Many use cases for agentic AI involve accessing content specific to a particular location:

    • Price checking on regional e-commerce sites
    • Researching local business listings
    • Accessing geo-restricted services
    • Comparing offerings across different markets

    Without a proxy in the target location, the agent sees the wrong content or gets blocked entirely.

    Problem 3: Rate Limiting

    Websites impose rate limits to prevent abuse. An AI agent completing a task might need to load dozens of pages on the same site, quickly exceeding the rate limit for a single IP address.

    Why Mobile Proxies Are the Best Choice

    Proxy Type Detection Risk Geo Accuracy Cost Best For
    Datacenter High Low Low Non-sensitive tasks
    Residential Medium Medium Medium General automation
    Mobile Very Low High Higher Anti-detection critical tasks

    Mobile proxies provide IPs from real mobile carriers, which websites trust because they are used by thousands of real users. For agentic AI tools that need to interact with websites without being blocked, mobile proxies offer the lowest detection risk.

    Setting Up Proxies with Browser Use

    Browser Use gives you full control over the browser configuration, making proxy integration straightforward.

    Basic Proxy Configuration

    from browser_use import Agent
    from langchain_openai import ChatOpenAI
    
    # Configure the agent with a mobile proxy
    agent = Agent(
        task="Find the top 5 rated restaurants in Singapore on Google Maps",
        llm=ChatOpenAI(model="gpt-4o"),
        browser_config={
            "proxy": {
                "server": "http://gate.dataresearchtools.com:PORT",
                "username": "your_username",
                "password": "your_password"
            },
            "headless": True,
            "viewport": {"width": 412, "height": 915}
        }
    )
    
    result = await agent.run()

    Rotating Proxies for Multi-Step Tasks

    For tasks that involve visiting many pages, rotate the proxy between major task segments:

    from browser_use import Agent, BrowserConfig
    
    # Define proxy endpoints for different SEA countries
    proxies = {
        "SG": "http://user:pass@sg.dataresearchtools.com:PORT",
        "MY": "http://user:pass@my.dataresearchtools.com:PORT",
        "TH": "http://user:pass@th.dataresearchtools.com:PORT",
        "PH": "http://user:pass@ph.dataresearchtools.com:PORT",
        "ID": "http://user:pass@id.dataresearchtools.com:PORT",
    }
    
    async def run_task_per_country(task, country_code):
        config = BrowserConfig(
            proxy={"server": proxies[country_code]},
            headless=True
        )
        agent = Agent(
            task=f"{task} (searching from {country_code})",
            llm=ChatOpenAI(model="gpt-4o"),
            browser_config=config
        )
        return await agent.run()
    
    # Run the same task across multiple geos
    for country in ["SG", "MY", "TH", "PH", "ID"]:
        result = await run_task_per_country(
            "Find the best mobile phone deals under $500",
            country
        )

    Advanced Browser Fingerprinting

    Pair your proxy with matching browser fingerprints for maximum stealth:

    • Match the browser language to the proxy country
    • Set timezone to match the proxy location
    • Use a mobile user agent consistent with the proxy carrier’s region
    • Configure WebRTC to prevent IP leaks
    • Set geolocation API to match the proxy’s approximate location

    Setting Up Proxies with OpenAI Operator

    OpenAI Operator is a hosted service with less direct proxy control. However, there are strategies to incorporate proxies:

    Using Operator Through a Proxy Gateway

    If you access Operator’s API programmatically, route the requests through a proxy:

    • Configure a local proxy gateway that forwards Operator’s browser traffic through your mobile proxy
    • Use network-level proxy settings to route traffic

    Alternative: Self-Hosted Agents with Proxy Support

    For full proxy control, consider using the open-source Computer Use or Browser Use frameworks instead of Operator, and configure proxies directly:

    • Self-hosted solutions give you complete control over the network stack
    • You can configure proxy rotation, geo-targeting, and session management exactly as needed
    • Run on your own infrastructure with DataResearchTools mobile proxies for SEA coverage

    Proxy Configuration for Other Agentic Tools

    Anthropic Computer Use

    Anthropic’s Computer Use feature allows Claude to control a virtual desktop. To add proxy support:

    • Configure the system-level proxy settings in the virtual machine
    • Set environment variables for HTTP_PROXY and HTTPS_PROXY
    • The browser within the VM will route traffic through the configured proxy

    AutoGPT / AgentGPT

    These open-source agents can be configured with proxy support:

    # .env configuration for AutoGPT
    PROXY_URL=http://user:pass@gate.dataresearchtools.com:PORT
    PROXY_ROTATION=true

    Multion

    Multion operates as a browser extension and API. Proxy integration options:

    • Use a proxy extension alongside Multion in the browser
    • Configure system-level proxy settings
    • Route traffic through a proxy-enabled VPN

    Best Practices for Proxy Use with AI Agents

    1. Match Proxy Location to Task Context

    If your agent is researching Singapore restaurant prices, use a Singapore mobile proxy. If it is checking Thai e-commerce listings, use a Thai proxy. Mismatched geos produce incorrect results and may trigger detection.

    2. Use Sticky Sessions for Multi-Page Tasks

    AI agents often need to browse multiple pages on the same site during a single task. Use sticky sessions (same IP for 10-30 minutes) to maintain consistency:

    • Avoids triggering “new visitor” detection on every page load
    • Maintains session cookies and login state
    • Reduces the risk of mid-task IP changes causing errors

    3. Implement Intelligent Rotation

    Rotate IPs between tasks, not during tasks:

    • Good: Complete Task A with IP 1, then switch to IP 2 for Task B
    • Bad: Rotate IPs every 30 seconds during a single multi-page task

    4. Handle Proxy Failures Gracefully

    AI agents should be configured to handle proxy connection issues:

    • Retry with a different proxy if the current one fails
    • Log proxy errors separately from task errors
    • Set reasonable timeouts (30-60 seconds for page loads through proxies)
    • Fall back to alternative proxy geos if the primary one is unavailable

    5. Monitor Proxy Usage

    Track proxy consumption to optimize costs:

    • Log which tasks consume the most bandwidth
    • Identify tasks that could be done without proxies (e.g., accessing APIs that do not geo-restrict)
    • Monitor success rates by proxy geo and carrier

    6. Respect Website Policies

    Even with proxies, AI agents should:

    • Follow robots.txt directives
    • Implement reasonable request delays
    • Avoid overloading target websites
    • Not bypass authentication or access control mechanisms

    Common Use Cases for Proxied AI Agents in SEA

    E-Commerce Price Monitoring

    AI agents browse e-commerce sites across SEA markets to collect pricing data:

    • Compare product prices on Shopee SG vs. Shopee MY vs. Shopee TH
    • Monitor competitor pricing across Lazada and Tokopedia
    • Track flash sale prices in real time

    Market Research

    Agents research local markets for business intelligence:

    • Gather business listings and reviews from each SEA country
    • Collect job posting data from local job boards
    • Survey local news and industry publications

    Travel and Hospitality

    Agents check travel-related services across markets:

    • Compare flight and hotel prices shown to users in different countries
    • Monitor booking platform availability from different geos
    • Research local experience and tour offerings

    Content Verification

    Agents verify content compliance across markets:

    • Check that localized websites display correct content in each country
    • Verify that age-restricted content is properly gated by geo
    • Ensure regulatory compliance for financial services websites in each jurisdiction

    Performance Optimization

    Reducing Latency

    Mobile proxies add latency to every request. Optimize by:

    • Using proxy servers geographically close to the target website
    • Implementing connection pooling to reuse proxy connections
    • Pre-warming proxy connections before the agent starts its task
    • Choosing proxy providers with low-latency infrastructure in SEA (DataResearchTools maintains proxy infrastructure across the region)

    Reducing Bandwidth

    AI agents can consume significant bandwidth, especially with vision-based tools that load full page resources:

    • Disable image loading for tasks that do not require visual analysis
    • Block unnecessary third-party resources (analytics, tracking pixels)
    • Use content extraction APIs where available instead of full page rendering
    • Cache resources that do not change between tasks

    Parallelizing Tasks

    Run multiple agent instances with different proxies to parallelize multi-market tasks:

    • Each instance uses a different geo proxy
    • Aggregate results after all instances complete
    • Use a task queue to manage agent workloads across available proxy slots

    Conclusion

    Agentic AI tools are transforming web automation, but they need proxy infrastructure to work reliably. Mobile proxies provide the trusted IP addresses, geo-targeting capabilities, and anti-detection properties that these tools require. Whether you are using Browser Use for custom automation, exploring Operator for task completion, or building with any other agentic framework, integrating mobile proxies from a provider with strong Southeast Asian coverage like DataResearchTools ensures your AI agents can access the web without interruption. Start with a single use case and proxy configuration, verify it works end-to-end, and then scale your setup as your automation needs grow.


    Related Reading

  • How to Build a 4G/5G Mobile Proxy Farm with Raspberry Pi

    How to Build a 4G/5G Mobile Proxy Farm with Raspberry Pi

    Building your own mobile proxy farm is one of the most rewarding (and frustrating) technical projects you can undertake. When it works, you have a self-owned infrastructure of mobile IP addresses that you control completely. When it breaks, you are debugging USB power issues, flaky modem firmware, and carrier-specific quirks at 3 AM.

    This guide covers everything from the hardware shopping list to the software configuration, with honest assessments of what works, what does not, and when you should consider using a managed service like DataResearchTools instead.

    Why Build Your Own Mobile Proxy Farm?

    Advantages

    • Full control: You own the hardware, the IPs, and the data path. No third party can see your traffic.
    • Cost efficiency at scale: After the initial hardware investment, ongoing costs are primarily SIM card data plans.
    • Custom configuration: Rotation intervals, sticky sessions, geographic targeting, and authentication are all under your control.
    • Learning experience: Understanding how mobile proxies work at the hardware level makes you a better user of commercial services.

    Disadvantages

    • Upfront cost: Hardware is not cheap, especially when you factor in dongles, SIM cards, powered USB hubs, and cooling.
    • Maintenance burden: Hardware failures, SIM deactivation, firmware updates, and carrier changes require ongoing attention.
    • Limited IP pool: A single SIM card gives you one carrier’s IP pool. Commercial services like DataResearchTools pool thousands of connections across multiple carriers.
    • Geographic limitation: Your proxies are tied to wherever your hardware is physically located.
    • Scalability ceiling: Beyond 50-100 modems, power management, heat, and USB reliability become serious engineering challenges.

    Hardware Requirements

    Core Components

    Component Recommended Quantity (10 Proxy Setup) Approximate Cost
    Raspberry Pi 4B (4GB) Yes 2-3 (each handles 4-5 modems) $35-55 each
    Raspberry Pi 5 (8GB) Better performance 2 (each handles 5-6 modems) $80 each
    4G USB Dongle Huawei E3372h or E3276 10 $15-30 each
    5G USB Dongle Quectel RM520N-GL 10 $80-150 each
    Powered USB Hub 10-port, 60W minimum 2-3 $30-50 each
    SIM Cards Data-only plans preferred 10 Varies by carrier
    MicroSD Cards 32GB+ Class 10 2-3 $8-12 each
    Ethernet Switch Gigabit, 8+ ports 1 $20-30
    Power Supply Reliable UPS recommended 1 $50-100
    Cooling Fan or heat sinks Per Pi $5-15

    Choosing the Right 4G Dongle

    Not all USB dongles work well for proxy purposes. The key requirements are:

    1. AT command support: The dongle must accept AT commands for IP rotation (airplane mode toggle).
    2. Linux compatibility: Must work with Raspberry Pi OS without proprietary drivers.
    3. CDC Ethernet mode: The dongle should present as a network interface, not a serial modem requiring PPP.
    4. Band compatibility: Must support the LTE bands used by your target carrier.

    Recommended dongles for Southeast Asia:

    Dongle Model Mode 4G Bands Linux Support Price
    Huawei E3372h-153 HiLink (Ethernet) B1/3/5/7/8/20 Excellent $15-25
    Huawei E3372h-320 HiLink (Ethernet) B1/3/7/8/20/28 Good $20-30
    ZTE MF833V RNDIS (Ethernet) B1/3/5/7/8/20/28 Good $15-25
    Quectel EC25 QMI/MBIM B1/3/5/7/8/20/28/38/40/41 Excellent $25-40

    LTE Band Reference for Southeast Asia

    Country Major Carriers Primary LTE Bands
    Thailand AIS, DTAC, True B1, B3, B7, B28
    Indonesia Telkomsel, XL, Indosat B1, B3, B5, B8, B40
    Philippines Globe, Smart B1, B3, B5, B7, B28, B40
    Malaysia Maxis, Celcom, Digi B1, B3, B7, B8, B28, B40
    Vietnam Viettel, Mobifone, Vinaphone B1, B3, B7, B38, B40, B41
    Singapore Singtel, StarHub, M1 B1, B3, B7, B8, B28

    Software Setup

    Step 1: Prepare the Raspberry Pi

    # Flash Raspberry Pi OS Lite (64-bit) to the SD card
    # Boot and run initial configuration
    
    # Update system
    sudo apt update && sudo apt upgrade -y
    
    # Install essential packages
    sudo apt install -y \
        usb-modeswitch \
        usb-modeswitch-data \
        network-manager \
        iptables \
        squid \
        dante-server \
        python3-pip \
        python3-flask \
        screen \
        htop \
        usbutils

    Step 2: Configure USB Dongles

    # Check connected dongles
    lsusb
    
    # You should see entries like:
    # Bus 001 Device 003: ID 12d1:14db Huawei Technologies Co., Ltd. E353/E3131
    
    # If the dongle shows as a storage device (CD-ROM mode),
    # usb-modeswitch should handle the switch automatically.
    # Check if it created a network interface:
    ip addr show
    
    # You should see interfaces like:
    # eth1, eth2, etc. (for HiLink dongles)
    # or wwan0, wwan1 (for QMI/MBIM dongles)

    Step 3: Set Up Network Interfaces

    For each dongle, create a network configuration:

    # /etc/NetworkManager/system-connections/modem1.nmconnection
    [connection]
    id=modem1
    type=gsm
    interface-name=cdc-wdm0
    autoconnect=true
    
    [gsm]
    apn=internet
    number=*99#
    
    [ipv4]
    method=auto
    route-metric=200
    
    [ipv6]
    method=auto

    Step 4: Install Proxy Server Software

    Option A: 3proxy (Lightweight, Recommended)

    # Install 3proxy
    cd /tmp
    git clone https://github.com/3proxy/3proxy.git
    cd 3proxy
    make -f Makefile.Linux
    sudo make -f Makefile.Linux install

    Configure 3proxy for each modem:

    # /etc/3proxy/3proxy.cfg
    daemon
    log /var/log/3proxy/3proxy.log
    
    # Authentication
    users admin:CL:your_password
    
    # Proxy for modem 1 (eth1)
    auth strong
    allow admin
    proxy -p10001 -i0.0.0.0 -e192.168.8.100
    socks -p20001 -i0.0.0.0 -e192.168.8.100
    
    # Proxy for modem 2 (eth2)
    proxy -p10002 -i0.0.0.0 -e192.168.9.100
    socks -p20002 -i0.0.0.0 -e192.168.9.100

    Option B: Squid (Full-Featured)

    # /etc/squid/squid.conf
    
    # Access control
    acl proxy_users proxy_auth REQUIRED
    http_access allow proxy_users
    http_access deny all
    
    # Authentication
    auth_param basic program /usr/lib/squid/basic_ncsa_auth /etc/squid/passwords
    auth_param basic realm Proxy Server
    
    # Modem 1 listener
    http_port 10001
    tcp_outgoing_address 192.168.8.100 port 10001
    
    # Modem 2 listener
    http_port 10002
    tcp_outgoing_address 192.168.9.100 port 10002

    Step 5: IP Rotation Script

    The core feature of a mobile proxy is IP rotation. This is achieved by briefly disconnecting the modem from the cellular network, forcing the carrier to assign a new IP:

    #!/usr/bin/env python3
    """
    IP Rotation script for mobile proxy farm.
    Rotates IP by toggling the modem's cellular connection.
    """
    
    import subprocess
    import time
    import requests
    import logging
    
    logging.basicConfig(level=logging.INFO)
    logger = logging.getLogger("ip_rotator")
    
    class ModemRotator:
        def __init__(self, modem_config):
            self.config = modem_config
    
        def get_current_ip(self, interface):
            """Get the current external IP through this interface"""
            try:
                proxy = {"http": f"http://127.0.0.1:{self.config['proxy_port']}"}
                response = requests.get(
                    "https://api.ipify.org?format=json",
                    proxies=proxy,
                    timeout=10
                )
                return response.json()["ip"]
            except Exception as e:
                logger.error(f"Failed to get IP: {e}")
                return None
    
        def rotate_hilink(self, modem_ip="192.168.8.1"):
            """Rotate IP on Huawei HiLink dongles via their web API"""
            import xml.etree.ElementTree as ET
    
            # Get session token
            token_response = requests.get(
                f"http://{modem_ip}/api/webserver/SesTokInfo"
            )
            root = ET.fromstring(token_response.text)
            session = root.find("SesInfo").text
            token = root.find("TokInfo").text
    
            headers = {
                "Cookie": session,
                "__RequestVerificationToken": token,
                "Content-Type": "application/xml"
            }
    
            # Toggle airplane mode ON
            data = '<?xml version="1.0" encoding="UTF-8"?><request><dataswitch>0</dataswitch></request>'
            requests.post(
                f"http://{modem_ip}/api/dialup/mobile-dataswitch",
                data=data,
                headers=headers
            )
    
            time.sleep(3)
    
            # Get new token (session may have changed)
            token_response = requests.get(
                f"http://{modem_ip}/api/webserver/SesTokInfo"
            )
            root = ET.fromstring(token_response.text)
            session = root.find("SesInfo").text
            token = root.find("TokInfo").text
    
            headers["Cookie"] = session
            headers["__RequestVerificationToken"] = token
    
            # Toggle airplane mode OFF
            data = '<?xml version="1.0" encoding="UTF-8"?><request><dataswitch>1</dataswitch></request>'
            requests.post(
                f"http://{modem_ip}/api/dialup/mobile-dataswitch",
                data=data,
                headers=headers
            )
    
            time.sleep(5)  # Wait for new IP assignment
    
        def rotate_at_command(self, device_path="/dev/ttyUSB0"):
            """Rotate IP using AT commands (for non-HiLink modems)"""
            import serial
    
            ser = serial.Serial(device_path, 115200, timeout=5)
    
            # Enable airplane mode
            ser.write(b"AT+CFUN=4\r\n")
            time.sleep(3)
    
            # Disable airplane mode
            ser.write(b"AT+CFUN=1\r\n")
            time.sleep(8)
    
            ser.close()
    
        def rotate_and_verify(self, method="hilink"):
            """Rotate IP and verify the change"""
            old_ip = self.get_current_ip(self.config["interface"])
            logger.info(f"Current IP: {old_ip}")
    
            if method == "hilink":
                self.rotate_hilink(self.config["modem_ip"])
            elif method == "at_command":
                self.rotate_at_command(self.config["device_path"])
    
            # Verify new IP
            new_ip = self.get_current_ip(self.config["interface"])
            logger.info(f"New IP: {new_ip}")
    
            if new_ip and new_ip != old_ip:
                logger.info("IP rotation successful")
                return True
            else:
                logger.warning("IP rotation may have failed")
                return False
    
    
    # Configuration for a 10-modem setup
    MODEM_CONFIGS = [
        {
            "id": "modem_1",
            "interface": "eth1",
            "modem_ip": "192.168.8.1",
            "proxy_port": 10001,
            "socks_port": 20001,
            "method": "hilink"
        },
        {
            "id": "modem_2",
            "interface": "eth2",
            "modem_ip": "192.168.9.1",
            "proxy_port": 10002,
            "socks_port": 20002,
            "method": "hilink"
        },
        # ... additional modems
    ]

    Step 6: Management API

    Build a simple API to control your proxy farm remotely:

    from flask import Flask, jsonify, request
    import threading
    
    app = Flask(__name__)
    
    # Initialize rotators for each modem
    rotators = {}
    for config in MODEM_CONFIGS:
        rotators[config["id"]] = ModemRotator(config)
    
    @app.route("/api/proxies", methods=["GET"])
    def list_proxies():
        """List all available proxies"""
        proxies = []
        for modem_id, rotator in rotators.items():
            ip = rotator.get_current_ip(rotator.config["interface"])
            proxies.append({
                "id": modem_id,
                "http_port": rotator.config["proxy_port"],
                "socks_port": rotator.config["socks_port"],
                "current_ip": ip,
                "interface": rotator.config["interface"]
            })
        return jsonify(proxies)
    
    @app.route("/api/rotate/<modem_id>", methods=["POST"])
    def rotate_ip(modem_id):
        """Rotate IP for a specific modem"""
        if modem_id not in rotators:
            return jsonify({"error": "Modem not found"}), 404
    
        rotator = rotators[modem_id]
        success = rotator.rotate_and_verify()
    
        return jsonify({
            "modem_id": modem_id,
            "success": success,
            "new_ip": rotator.get_current_ip(rotator.config["interface"])
        })
    
    @app.route("/api/rotate/all", methods=["POST"])
    def rotate_all():
        """Rotate IPs for all modems"""
        results = {}
        threads = []
    
        def rotate_modem(modem_id, rotator):
            success = rotator.rotate_and_verify()
            results[modem_id] = {
                "success": success,
                "new_ip": rotator.get_current_ip(rotator.config["interface"])
            }
    
        for modem_id, rotator in rotators.items():
            t = threading.Thread(target=rotate_modem, args=(modem_id, rotator))
            threads.append(t)
            t.start()
    
        for t in threads:
            t.join()
    
        return jsonify(results)
    
    @app.route("/api/health", methods=["GET"])
    def health_check():
        """Check health of all modems"""
        health = {}
        for modem_id, rotator in rotators.items():
            ip = rotator.get_current_ip(rotator.config["interface"])
            health[modem_id] = {
                "status": "online" if ip else "offline",
                "ip": ip
            }
        return jsonify(health)
    
    if __name__ == "__main__":
        app.run(host="0.0.0.0", port=8080)

    Scaling Your Proxy Farm

    10-Modem Setup (Starter)

    • 2 Raspberry Pi 4B units
    • 2 powered USB hubs (7-port each)
    • 10 Huawei E3372h dongles
    • 10 SIM cards
    • Total hardware cost: approximately $400-600

    25-Modem Setup (Medium)

    • 4-5 Raspberry Pi 4B units
    • 4 powered USB hubs (7-port each)
    • 25 dongles
    • 25 SIM cards
    • Consider a dedicated mini server rack
    • Total hardware cost: approximately $900-1,400

    50+ Modem Setup (Large)

    • Switch to dedicated x86 servers (Intel NUC or similar)
    • Industrial USB hubs with individual port power management
    • Professional rack mounting
    • Dedicated cooling solution
    • UPS power backup
    • Total hardware cost: approximately $2,500-5,000+

    Common Scaling Challenges

    Challenge Cause Solution
    USB disconnections Power insufficient Higher wattage USB hubs, dedicated power per dongle
    Overheating Dense modem packing Active cooling, spacing, air conditioning
    IP reuse Small carrier IP pool Multiple carriers, more SIM cards
    Modem hang Firmware bugs Scheduled daily reboots, watchdog scripts
    Network conflicts Multiple subnets Careful network configuration, VLAN management

    When to DIY vs When to Use a Service

    Build Your Own When:

    • You need complete traffic privacy (no third-party can inspect your data)
    • You require specific carrier IPs that commercial services do not offer
    • You have the technical skills and time for ongoing maintenance
    • Your proxy usage is consistent and predictable (not bursty)
    • You are in a geographic location where commercial proxy services are limited

    Use DataResearchTools When:

    • You need proxies across multiple countries (DataResearchTools covers all major SEA markets)
    • You want instant scalability without hardware procurement delays
    • You need high uptime guarantees (99.9% SLA)
    • Your team lacks the hardware/networking expertise for farm management
    • You need access to thousands of IPs (far more than a small farm provides)
    • You want to avoid the capital expenditure of hardware
    • You need redundancy and failover that a single-location farm cannot provide

    Hybrid Approach

    Many professional users run a small DIY farm for their most sensitive operations (where complete traffic control matters) while using DataResearchTools mobile proxies for high-volume, multi-geography tasks. This gives the best of both worlds: privacy when you need it, and scale when you need it.

    Troubleshooting Common Issues

    Modem Not Detected

    # Check USB devices
    lsusb
    
    # Check dmesg for errors
    dmesg | tail -50
    
    # Try resetting USB bus
    sudo usbreset /dev/bus/usb/001/003
    
    # If modem is in CD-ROM mode, force switch
    sudo usb_modeswitch -v 12d1 -p 1f01 -M '55534243123456780000000000000a11062000000000000100000000000000'

    IP Not Rotating

    # Verify modem has network connection
    ping -I eth1 8.8.8.8
    
    # Check if AT commands reach the modem
    echo -e "AT+CFUN?\r" > /dev/ttyUSB0
    cat /dev/ttyUSB0
    
    # Try manual network disconnect/reconnect
    nmcli connection down modem1 && sleep 5 && nmcli connection up modem1

    High Latency

    • Check signal strength: AT+CSQ command (values 10-31 are acceptable)
    • Try a different carrier with better coverage at your location
    • Position antennas near windows or use external antennas
    • Avoid USB 2.0 hubs; use USB 3.0 for better throughput

    Security Considerations

    Exposing Your Proxy Farm to the Internet

    If your proxy farm is accessible from the internet:

    1. Always use authentication: Never run an open proxy
    2. Use a VPN or SSH tunnel: Instead of exposing proxy ports directly
    3. Firewall rules: Only allow connections from your known IP addresses
    4. Rate limit management API: Prevent brute-force attacks on your control panel
    5. Log everything: Monitor for unauthorized access attempts

    SIM Card Security

    • Register SIM cards in compliance with local regulations
    • Store SIM PINs securely
    • Monitor for unusual charges or carrier messages indicating misuse
    • Keep spare SIM cards ready for quick replacement

    Conclusion

    Building a 4G/5G mobile proxy farm with Raspberry Pi is a technically satisfying project that gives you complete control over your proxy infrastructure. The key components are reliable USB dongles, properly configured Linux networking, proxy server software, and an IP rotation mechanism.

    However, be realistic about the limitations. A DIY farm of 10-25 modems provides a fraction of the IP diversity and geographic coverage that a commercial service like DataResearchTools offers out of the box. The maintenance burden is real, and hardware failures will happen at inconvenient times.

    For most use cases, the optimal strategy is to start with DataResearchTools mobile proxies for immediate coverage across Southeast Asian markets, and build a small DIY farm alongside it for specialized needs. This way you get the scale and reliability of a professional service while maintaining the control and privacy of self-owned infrastructure for your most sensitive operations.

    Whether you build, buy, or combine both approaches, understanding how mobile proxy farms work at the hardware level makes you a more effective proxy user and helps you make better decisions about your infrastructure investments.


    Related Reading

  • How to Scrape Betting Odds from Multiple Bookmakers

    How to Scrape Betting Odds from Multiple Bookmakers

    Scraping betting odds from bookmakers is one of the most technically demanding forms of web scraping. Bookmakers use cutting-edge anti-bot technology, serve odds through complex JavaScript frameworks, update prices every few seconds, and actively detect and block automated access. Yet the data is enormously valuable for odds comparison, market analysis, trading models, and research.

    This guide provides a detailed, technical walkthrough for scraping odds from major bookmakers, with specific strategies for each platform and practical proxy configurations.

    Bookmaker Landscape: Know Your Targets

    Major International Bookmakers

    Bookmaker Base Primary Tech Stack Scraping Difficulty Best Proxy Type
    Bet365 UK React, WebSocket 10/10 Mobile (UK)
    Pinnacle Curacao React, REST API 5/10 Mobile (any)
    Betfair Exchange UK Angular, REST API 6/10 Mobile (UK/IE)
    William Hill UK React, WebSocket 8/10 Mobile (UK)
    1xBet Curacao Custom framework 6/10 Mobile (varies)
    Betway Malta React 7/10 Mobile (EU)

    Asian Bookmakers

    Bookmaker Base Primary Tech Stack Scraping Difficulty Best Proxy Type
    Sbobet Philippines Custom, AJAX 7/10 Mobile (SEA)
    Maxbet/IBCBet Philippines Custom 6/10 Mobile (SEA)
    M88 Philippines HTML + AJAX 5/10 Mobile (SEA)
    W88 Philippines HTML + JS 5/10 Mobile (SEA)
    188bet Isle of Man React 6/10 Mobile (SEA/UK)
    12BET Philippines HTML 4/10 Mobile (SEA)
    Fun88 Philippines Custom 5/10 Mobile (SEA)

    Asian bookmakers are particularly important because they often set the market for football (soccer) odds. Sharp bettors and trading firms watch Asian lines closely because they tend to move first.

    DataResearchTools mobile proxies cover all major Southeast Asian markets, making them ideal for scraping Asian bookmakers that require regional IP addresses.

    Technical Approaches by Bookmaker

    Bet365: The Hardest Target

    Bet365 is widely considered the most difficult bookmaker to scrape. Their anti-bot measures include:

    • Custom JavaScript obfuscation that changes frequently
    • WebSocket-based odds delivery
    • Advanced browser fingerprinting
    • Geographic IP verification
    • Behavioral analysis (mouse movements, scroll patterns)
    • Device attestation

    Approach: Full Browser Automation

    from playwright.async_api import async_playwright
    import asyncio
    import json
    
    class Bet365Scraper:
        def __init__(self, proxy_config):
            self.proxy = {
                "server": f"http://{proxy_config['host']}:{proxy_config['port']}",
                "username": proxy_config["user"],
                "password": proxy_config["pass"]
            }
    
        async def scrape(self, sport="soccer"):
            async with async_playwright() as p:
                browser = await p.chromium.launch(
                    proxy=self.proxy,
                    headless=False  # Bet365 detects headless browsers
                )
    
                context = await browser.new_context(
                    viewport={"width": 412, "height": 915},
                    user_agent=(
                        "Mozilla/5.0 (Linux; Android 14; SM-S918B) "
                        "AppleWebKit/537.36 (KHTML, like Gecko) "
                        "Chrome/121.0.0.0 Mobile Safari/537.36"
                    ),
                    locale="en-GB",
                    timezone_id="Europe/London",
                    geolocation={"latitude": 51.5074, "longitude": -0.1278},
                    permissions=["geolocation"]
                )
    
                page = await context.new_page()
    
                # Intercept WebSocket messages for odds data
                ws_messages = []
    
                page.on("websocket", lambda ws: self.handle_websocket(ws, ws_messages))
    
                await page.goto("https://www.bet365.com", wait_until="networkidle")
    
                # Navigate to sport section
                await page.wait_for_timeout(3000)
    
                # Human-like interaction
                await self.simulate_human_behavior(page)
    
                # Navigate to target sport
                sport_link = await page.query_selector(f'text="{sport.title()}"')
                if sport_link:
                    await sport_link.click()
                    await page.wait_for_timeout(2000)
    
                # Collect odds from the page
                odds_data = await self.extract_odds(page)
    
                await browser.close()
                return odds_data
    
        async def simulate_human_behavior(self, page):
            """Simulate realistic human browsing"""
            import random
    
            # Random mouse movements
            for _ in range(random.randint(3, 7)):
                x = random.randint(50, 350)
                y = random.randint(100, 800)
                await page.mouse.move(x, y)
                await page.wait_for_timeout(random.randint(200, 800))
    
            # Random scroll
            await page.mouse.wheel(0, random.randint(100, 500))
            await page.wait_for_timeout(random.randint(500, 1500))
    
        def handle_websocket(self, ws, messages):
            """Capture WebSocket messages containing odds"""
            ws.on("framereceived", lambda data: messages.append(data))
    
        async def extract_odds(self, page):
            """Extract odds from the rendered page"""
            # Bet365 uses dynamic class names, so use structural selectors
            events = await page.query_selector_all("[class*='event']")
    
            results = []
            for event in events:
                try:
                    teams = await event.query_selector_all("[class*='participant']")
                    odds_cells = await event.query_selector_all("[class*='odds']")
    
                    if teams and odds_cells:
                        result = {
                            "home": await teams[0].inner_text() if len(teams) > 0 else None,
                            "away": await teams[1].inner_text() if len(teams) > 1 else None,
                            "odds": [await cell.inner_text() for cell in odds_cells]
                        }
                        results.append(result)
                except Exception:
                    continue
    
            return results

    Critical notes for Bet365:

    • Use non-headless browsers (or undetectable headless setups)
    • Mobile proxies from the UK are essential since Bet365 verifies geographic location
    • Rotate browser profiles, not just IPs
    • Limit sessions to 15-20 minutes before creating a new one
    • DataResearchTools mobile proxies with UK endpoints provide the geographic authenticity Bet365 requires

    Pinnacle: The Accessible Sharp Book

    Pinnacle is the most scraper-friendly major bookmaker, partly because they welcome sharp bettors and do not limit winning accounts. Their odds serve as the market benchmark.

    Approach: API-Style Scraping

    import requests
    from bs4 import BeautifulSoup
    
    class PinnacleScraper:
        def __init__(self, proxy_config):
            self.proxy = {
                "http": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}",
                "https": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}"
            }
            self.headers = {
                "User-Agent": "Mozilla/5.0 (Linux; Android 14; Pixel 8) "
                               "AppleWebKit/537.36 Chrome/121.0.0.0 Mobile Safari/537.36",
                "Accept": "application/json, text/html",
                "Accept-Language": "en-US,en;q=0.9",
                "Referer": "https://www.pinnacle.com/",
                "X-Requested-With": "XMLHttpRequest"
            }
            self.session = requests.Session()
            self.session.proxies = self.proxy
            self.session.headers.update(self.headers)
    
        def get_sports(self):
            """Get available sports"""
            response = self.session.get(
                "https://guest.api.arcadia.pinnacle.com/0.1/sports",
                timeout=30
            )
            return response.json()
    
        def get_leagues(self, sport_id):
            """Get leagues for a sport"""
            response = self.session.get(
                f"https://guest.api.arcadia.pinnacle.com/0.1/sports/{sport_id}/leagues",
                timeout=30
            )
            return response.json()
    
        def get_matchups(self, sport_id, league_id=None):
            """Get events and odds"""
            url = f"https://guest.api.arcadia.pinnacle.com/0.1/sports/{sport_id}/matchups"
            if league_id:
                url += f"?leagueId={league_id}"
    
            response = self.session.get(url, timeout=30)
            return response.json()
    
        def get_odds(self, matchup_id):
            """Get detailed odds for a specific event"""
            response = self.session.get(
                f"https://guest.api.arcadia.pinnacle.com/0.1/matchups/{matchup_id}/markets/related/straight",
                timeout=30
            )
            return response.json()
    
        def scrape_all_football_odds(self):
            """Scrape all football odds"""
            # Football sport_id is typically 29
            matchups = self.get_matchups(sport_id=29)
    
            all_odds = []
            for matchup in matchups:
                odds = self.get_odds(matchup["id"])
                all_odds.append({
                    "event": matchup,
                    "odds": odds,
                    "scraped_at": datetime.utcnow().isoformat()
                })
    
                # Respectful rate limiting
                time.sleep(random.uniform(1, 3))
    
            return all_odds

    Sbobet: The Asian Market Leader

    Sbobet sets the line for Asian handicap markets and is heavily used by professional bettors in Southeast Asia.

    Approach: AJAX Interception

    class SbobetScraper:
        def __init__(self, proxy_config):
            self.proxy = {
                "http": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}",
                "https": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}"
            }
            self.headers = {
                "User-Agent": "Mozilla/5.0 (Linux; Android 14; Samsung SM-A546B) "
                               "AppleWebKit/537.36 Chrome/121.0.0.0 Mobile Safari/537.36",
                "Accept-Language": "th-TH,th;q=0.9,en;q=0.8",
                "Referer": "https://www.sbobet.com/",
            }
    
        def scrape_football(self):
            """Scrape Sbobet football odds"""
            session = requests.Session()
            session.proxies = self.proxy
            session.headers.update(self.headers)
    
            # Load the main page first (establish session cookies)
            session.get("https://www.sbobet.com/", timeout=30)
            time.sleep(random.uniform(2, 4))
    
            # Access the football section via AJAX endpoint
            response = session.get(
                "https://www.sbobet.com/web-root/restricted/sport/football/today",
                timeout=30
            )
    
            return self.parse_sbobet_odds(response.text)
    
        def parse_sbobet_odds(self, html):
            """Parse Sbobet's odds from the response"""
            soup = BeautifulSoup(html, "html.parser")
            events = []
    
            for row in soup.select(".GameList tr"):
                try:
                    teams = row.select(".TeamName")
                    odds_cells = row.select(".OddsPrice")
    
                    if teams and odds_cells:
                        event = {
                            "home": teams[0].text.strip() if len(teams) > 0 else None,
                            "away": teams[1].text.strip() if len(teams) > 1 else None,
                            "handicap": self.extract_handicap(row),
                            "odds_home": self.parse_odds(odds_cells[0].text),
                            "odds_away": self.parse_odds(odds_cells[1].text) if len(odds_cells) > 1 else None,
                            "total": self.extract_total(row)
                        }
                        events.append(event)
                except Exception:
                    continue
    
            return events

    For Sbobet, a Southeast Asian mobile proxy is essential. Sbobet restricts access based on geographic location and is primarily accessible from Asian IP addresses. DataResearchTools Thai, Indonesian, and Philippine mobile proxies provide the geographic authenticity needed.

    Betfair Exchange: Unique Data Source

    Betfair is a betting exchange, not a traditional bookmaker. Its odds are set by the market (bettors against each other), making it a unique data source.

    Approach: Official API (Preferred)

    Betfair offers an official API for data access:

    import betfairlightweight
    
    class BetfairScraper:
        def __init__(self, username, password, app_key, proxy_config):
            self.trading = betfairlightweight.APIClient(
                username=username,
                password=password,
                app_key=app_key
            )
            # Configure proxy
            self.trading.session.proxies = {
                "http": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}",
                "https": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}"
            }
            self.trading.login()
    
        def get_football_markets(self):
            """Get all active football markets"""
            event_filter = betfairlightweight.filters.market_filter(
                event_type_ids=["1"],  # Football
                market_type_codes=["MATCH_ODDS", "OVER_UNDER_25"],
                in_play_only=False
            )
    
            markets = self.trading.betting.list_market_catalogue(
                filter=event_filter,
                max_results=100,
                market_projection=["RUNNER_DESCRIPTION", "MARKET_START_TIME"]
            )
    
            return markets
    
        def get_market_odds(self, market_id):
            """Get current odds for a market"""
            price_projection = betfairlightweight.filters.price_projection(
                price_data=["EX_BEST_OFFERS"]
            )
    
            market_books = self.trading.betting.list_market_book(
                market_ids=[market_id],
                price_projection=price_projection
            )
    
            return market_books

    Data Pipeline Architecture

    Real-Time Odds Collection

    import asyncio
    from datetime import datetime
    import json
    
    class OddsPipeline:
        def __init__(self, scrapers, database, alert_system):
            self.scrapers = scrapers
            self.db = database
            self.alerts = alert_system
    
        async def run(self):
            """Main pipeline loop"""
            while True:
                tasks = []
                for scraper in self.scrapers:
                    task = asyncio.create_task(
                        self.scrape_and_store(scraper)
                    )
                    tasks.append(task)
    
                results = await asyncio.gather(*tasks, return_exceptions=True)
    
                # Log results
                for scraper, result in zip(self.scrapers, results):
                    if isinstance(result, Exception):
                        self.alerts.send(
                            f"Scraper error for {scraper.name}: {str(result)}"
                        )
    
                # Wait before next cycle
                await asyncio.sleep(30)  # Adjust based on your needs
    
        async def scrape_and_store(self, scraper):
            """Scrape odds from one bookmaker and store results"""
            odds_data = await scraper.scrape()
            timestamp = datetime.utcnow()
    
            records = []
            for event in odds_data:
                for market in event.get("markets", []):
                    for selection in market.get("selections", []):
                        record = {
                            "bookmaker": scraper.name,
                            "event_id": event["id"],
                            "event_name": event["name"],
                            "sport": event["sport"],
                            "market_type": market["type"],
                            "selection": selection["name"],
                            "odds": selection["odds"],
                            "timestamp": timestamp
                        }
                        records.append(record)
    
            await self.db.bulk_insert(records)
            return len(records)

    Data Normalization

    Every bookmaker presents odds differently. Normalize into a common format:

    class OddsNormalizer:
        """Normalize odds data from various bookmakers into standard format"""
    
        SPORT_MAPPING = {
            # Bet365
            "Soccer": "football",
            "Basketball": "basketball",
            "Tennis": "tennis",
            # Pinnacle
            "Football": "football",
            # Sbobet
            "football": "football",
        }
    
        MARKET_MAPPING = {
            "1X2": "match_result",
            "MATCH_ODDS": "match_result",
            "MoneyLine": "match_result",
            "Asian Handicap": "asian_handicap",
            "AH": "asian_handicap",
            "Over/Under": "total",
            "OVER_UNDER": "total",
            "O/U": "total",
        }
    
        def normalize(self, raw_odds, bookmaker):
            """Convert bookmaker-specific format to standard"""
            return {
                "bookmaker": bookmaker,
                "sport": self.SPORT_MAPPING.get(raw_odds.get("sport"), raw_odds.get("sport", "").lower()),
                "league": raw_odds.get("league", ""),
                "event": {
                    "home": raw_odds.get("home_team"),
                    "away": raw_odds.get("away_team"),
                    "start_time": raw_odds.get("start_time"),
                },
                "market": {
                    "type": self.MARKET_MAPPING.get(raw_odds.get("market_type"), raw_odds.get("market_type")),
                    "line": raw_odds.get("line"),
                },
                "selections": self.normalize_selections(raw_odds),
                "timestamp": datetime.utcnow().isoformat()
            }
    
        def normalize_selections(self, raw_odds):
            """Normalize selection names and odds values"""
            selections = []
            for sel in raw_odds.get("selections", []):
                selections.append({
                    "name": self.clean_selection_name(sel["name"]),
                    "odds_decimal": self.to_decimal(sel.get("odds"), sel.get("odds_format", "decimal")),
                    "status": sel.get("status", "active")
                })
            return selections
    
        def to_decimal(self, odds, format_type):
            """Convert any odds format to decimal"""
            if format_type == "decimal":
                return float(odds)
            elif format_type == "american":
                if odds > 0:
                    return (odds / 100) + 1
                else:
                    return (100 / abs(odds)) + 1
            elif format_type == "hongkong":
                return float(odds) + 1
            elif format_type == "malay":
                if odds >= 0:
                    return float(odds) + 1
                else:
                    return (1 / abs(float(odds))) + 1
            elif format_type == "indonesian":
                if odds >= 0:
                    return float(odds) + 1
                else:
                    return (1 / abs(float(odds))) + 1
            return float(odds)

    Proxy Rotation Strategy by Bookmaker

    Customized Rotation Policies

    ROTATION_POLICIES = {
        "bet365": {
            "proxy_type": "mobile",
            "country": "GB",
            "session_type": "sticky",
            "session_duration_minutes": 15,
            "requests_per_session": 30,
            "cooldown_minutes": 10,
            "concurrent_sessions": 1,
            "notes": "Most aggressive anti-bot. Single session, short duration."
        },
        "pinnacle": {
            "proxy_type": "mobile",
            "country": "any",
            "session_type": "rotating",
            "requests_per_ip": 50,
            "cooldown_minutes": 0,
            "concurrent_sessions": 3,
            "notes": "Tolerant of scraping. Can run multiple sessions."
        },
        "sbobet": {
            "proxy_type": "mobile",
            "country": ["TH", "ID", "PH", "MY"],
            "session_type": "sticky",
            "session_duration_minutes": 30,
            "requests_per_session": 40,
            "cooldown_minutes": 5,
            "concurrent_sessions": 2,
            "notes": "Requires SEA IP. DataResearchTools SEA proxies recommended."
        },
        "betfair": {
            "proxy_type": "mobile",
            "country": ["GB", "IE", "AU"],
            "session_type": "sticky",
            "session_duration_minutes": 60,
            "requests_per_session": 100,
            "cooldown_minutes": 0,
            "concurrent_sessions": 2,
            "notes": "API-based. Stable sessions preferred."
        },
        "m88": {
            "proxy_type": "mobile",
            "country": ["TH", "VN", "ID"],
            "session_type": "sticky",
            "session_duration_minutes": 45,
            "requests_per_session": 60,
            "cooldown_minutes": 3,
            "concurrent_sessions": 2,
            "notes": "Standard SEA bookmaker. Moderate protection."
        }
    }

    Handling Common Scraping Challenges

    Challenge 1: Dynamic Content Loading

    Many bookmakers load odds asynchronously after the initial page load:

    async def wait_for_odds(page, timeout=10000):
        """Wait for odds to appear on the page"""
        try:
            await page.wait_for_selector(
                "[class*='odds'], [class*='price'], [data-odds]",
                timeout=timeout,
                state="visible"
            )
            # Additional wait for all odds to stabilize
            await page.wait_for_timeout(2000)
        except TimeoutError:
            print("Odds did not load within timeout")
            return False
        return True

    Challenge 2: Odds Format Differences

    Asian bookmakers often display odds in Malay, Hong Kong, or Indonesian format:

    Format Favorite Underdog Example
    Decimal 1.85 2.10 European standard
    American -118 +110 US standard
    Hong Kong 0.85 1.10 HK = Decimal – 1
    Malay 0.85 -0.91 Neg = inverse
    Indonesian -1.18 1.10 Inverse of Malay

    Challenge 3: Market Matching

    The same event appears differently across bookmakers. Matching events requires fuzzy matching:

    from fuzzywuzzy import fuzz
    
    def match_events(event_a, event_b, threshold=85):
        """Determine if two events from different bookmakers are the same"""
        # Compare team names
        home_score = fuzz.ratio(
            event_a["home"].lower(),
            event_b["home"].lower()
        )
        away_score = fuzz.ratio(
            event_a["away"].lower(),
            event_b["away"].lower()
        )
    
        # Check if start times are close (within 5 minutes)
        time_diff = abs(
            (event_a["start_time"] - event_b["start_time"]).total_seconds()
        )
        time_match = time_diff < 300
    
        # Both team names must match well, and time must be close
        return (home_score >= threshold and
                away_score >= threshold and
                time_match)

    Challenge 4: Geographic Restrictions

    Some bookmakers are only accessible from specific countries. DataResearchTools mobile proxies solve this by providing genuine mobile IPs from the required regions:

    Bookmaker Accessible Regions DataResearchTools Coverage
    Sbobet Southeast Asia Thailand, Indonesia, Philippines, Malaysia, Vietnam
    M88 Asia Full SEA coverage
    W88 Asia Full SEA coverage
    Bet365 UK, EU, select others UK endpoints available
    Betfair UK, Ireland, Australia UK endpoints available

    Monitoring and Maintenance

    Health Checks

    class ScraperHealthMonitor:
        def __init__(self):
            self.metrics = {}
    
        def record_scrape(self, bookmaker, success, duration, records_count):
            if bookmaker not in self.metrics:
                self.metrics[bookmaker] = {
                    "total_scrapes": 0,
                    "successful": 0,
                    "failed": 0,
                    "avg_duration": 0,
                    "total_records": 0
                }
    
            m = self.metrics[bookmaker]
            m["total_scrapes"] += 1
            if success:
                m["successful"] += 1
                m["total_records"] += records_count
            else:
                m["failed"] += 1
    
            # Running average
            m["avg_duration"] = (
                (m["avg_duration"] * (m["total_scrapes"] - 1) + duration)
                / m["total_scrapes"]
            )
    
        def get_health_report(self):
            report = {}
            for bookmaker, m in self.metrics.items():
                success_rate = m["successful"] / max(m["total_scrapes"], 1) * 100
                report[bookmaker] = {
                    "success_rate": f"{success_rate:.1f}%",
                    "avg_duration": f"{m['avg_duration']:.1f}s",
                    "total_records": m["total_records"],
                    "status": "healthy" if success_rate > 90 else "degraded" if success_rate > 70 else "failing"
                }
            return report

    Conclusion

    Scraping betting odds from multiple bookmakers is a complex but achievable task when you combine the right tools. Each bookmaker requires a tailored approach: Bet365 demands full browser automation with UK mobile proxies, Pinnacle offers relatively accessible API-like endpoints, and Asian bookmakers like Sbobet require Southeast Asian mobile IPs.

    DataResearchTools mobile proxies provide the geographic coverage and IP quality needed to access bookmakers across both European and Asian markets. Their Southeast Asian carrier network is particularly valuable for scraping the Asian bookmakers that professional bettors rely on for sharp pricing.

    Start with the easiest targets (Pinnacle, smaller Asian books), build your normalization pipeline, and then tackle the harder bookmakers as your infrastructure matures. The odds data you collect will power comparison tools, arbitrage detection, market analysis, and predictive models that create genuine competitive advantage in the sports betting ecosystem.


    Related Reading

  • Proxies for Arbitrage Betting: Multi-Account Management Guide

    Proxies for Arbitrage Betting: Multi-Account Management Guide

    Arbitrage betting, often called “arbing” or “sure betting,” is the practice of placing bets on all possible outcomes of an event across different bookmakers to guarantee a profit regardless of the result. It works because bookmakers occasionally disagree on the probability of outcomes, creating small pricing gaps that can be exploited.

    The challenge is that bookmakers actively hunt for arbitrage bettors and will limit or close accounts that display arbing patterns. Managing multiple bookmaker accounts while avoiding detection requires sophisticated proxy infrastructure. This guide explains the entire process.

    How Arbitrage Betting Works

    The Basic Concept

    Arbitrage opportunities arise when the combined implied probability of all outcomes across different bookmakers falls below 100%:

    Example: Tennis Match

    Outcome Bookmaker A Odds Bookmaker B Odds
    Player 1 wins 2.10 1.80
    Player 2 wins 1.75 2.20

    Calculate implied probabilities:

    • Bookmaker A, Player 1: 1/2.10 = 47.62%
    • Bookmaker B, Player 2: 1/2.20 = 45.45%
    • Total: 47.62% + 45.45% = 93.07%

    Since the total is below 100%, an arbitrage opportunity exists. The potential profit margin is:

    Profit = (1 – 0.9307) x 100 = 6.93%

    Stake Calculation

    For a total investment of $1,000:

    • Stake on Player 1 (Bookmaker A at 2.10): $1,000 x (45.45% / 93.07%) = $488.37
    • Stake on Player 2 (Bookmaker B at 2.20): $1,000 x (47.62% / 93.07%) = $511.63
    Outcome Payout Profit
    Player 1 wins $488.37 x 2.10 = $1,025.58 $25.58
    Player 2 wins $511.63 x 2.20 = $1,125.59 $125.59

    Guaranteed minimum profit: $25.58 on a $1,000 investment.

    Why Bookmakers Hate Arbers

    Arbitrage bettors extract guaranteed profit from the market without taking any risk. From the bookmaker’s perspective:

    1. Lost margin: Every arb erodes the bookmaker’s theoretical margin.
    2. Sharp money signal: Arb activity often coincides with sharp line movements.
    3. Resource consumption: Arbers make many small, time-sensitive bets that stress systems.
    4. No recreational value: Arbers do not engage with promotions or make losing bets.

    Why Proxies Are Essential for Arbitrage Betting

    How Bookmakers Detect Arbers

    Bookmakers use multiple detection methods:

    Detection Method What They Track How Proxies Help
    IP correlation Multiple accounts from same IP Isolate each account to its own proxy
    Betting patterns Consistent arb-sized stakes Proxies alone do not solve this; behavioral changes needed
    Timing analysis Bets placed simultaneously across books Proxies add latency variation
    Account linking Shared payment methods, addresses Not a proxy issue; operational security
    Device fingerprinting Browser, OS, hardware identifiers Proxy + anti-detect browser needed
    Geographic inconsistency IP location vs. registration address Geo-targeted proxies solve this

    The Multi-Account Requirement

    Successful arbitrage betting requires accounts at 10-30+ bookmakers. Many arbers also maintain backup accounts for when primary accounts get limited. Without proxies:

    • Logging into multiple bookmaker accounts from the same IP links them together
    • If one account gets flagged, all linked accounts may be investigated
    • Geographic inconsistencies between your IP and account registration raise flags

    Setting Up Proxy Infrastructure for Arbing

    Proxy Requirements

    Requirement Why Solution
    Dedicated IP per account Prevent cross-contamination Sticky mobile proxy sessions
    Geographic matching IP must match account country Country-specific proxy endpoints
    High uptime Arbs disappear in seconds Premium proxy provider with SLA
    Low latency Speed matters for arb execution Regional proxy servers
    Mobile IPs Highest trust score Mobile proxy provider

    Architecture

    [Arb Scanner] --> detects opportunity
          |
          v
    [Account Manager] --> selects accounts with best odds
          |
          v
    [Proxy Router] --> assigns correct proxy per account
          |
          v
    [Bet Placer 1] --proxy A--> [Bookmaker A]
    [Bet Placer 2] --proxy B--> [Bookmaker B]
          |
          v
    [Confirmation Logger] --> records bet details

    Proxy Configuration

    class ArbProxyManager:
        def __init__(self):
            self.account_proxies = {}
    
        def register_account(self, bookmaker, account_id, proxy_config):
            """Permanently assign a proxy to a bookmaker account"""
            key = f"{bookmaker}:{account_id}"
            self.account_proxies[key] = {
                "proxy_url": f"http://{proxy_config['user']}:{proxy_config['pass']}@{proxy_config['host']}:{proxy_config['port']}",
                "country": proxy_config["country"],
                "assigned_at": datetime.now(),
                "last_used": None,
                "request_count": 0
            }
    
        def get_proxy(self, bookmaker, account_id):
            """Get the assigned proxy for this account"""
            key = f"{bookmaker}:{account_id}"
            proxy_data = self.account_proxies.get(key)
    
            if not proxy_data:
                raise ValueError(f"No proxy assigned for {key}")
    
            proxy_data["last_used"] = datetime.now()
            proxy_data["request_count"] += 1
    
            return proxy_data["proxy_url"]
    
    
    # Setup example
    proxy_manager = ArbProxyManager()
    
    # Each bookmaker account gets its own dedicated proxy
    proxy_manager.register_account("bet365", "user_001", {
        "host": "gate.dataresearchtools.com",
        "port": "5001",
        "user": "arb_user_1",
        "pass": "arb_pass_1",
        "country": "GB"
    })
    
    proxy_manager.register_account("pinnacle", "user_002", {
        "host": "gate.dataresearchtools.com",
        "port": "5002",
        "user": "arb_user_2",
        "pass": "arb_pass_2",
        "country": "MT"  # Malta, where Pinnacle is licensed
    })
    
    proxy_manager.register_account("sbobet", "user_003", {
        "host": "gate.dataresearchtools.com",
        "port": "5003",
        "user": "arb_user_3",
        "pass": "arb_pass_3",
        "country": "TH"  # Thai proxy for Asian bookmaker
    })

    Multi-Account Management Best Practices

    Account Registration

    When creating bookmaker accounts for arbing:

    1. Use the proxy from registration onward: The first IP a bookmaker sees becomes part of your account fingerprint. Never register through your home IP.
    2. Match proxy country to your identity documents: If your ID shows a Thai address, use a Thai mobile proxy.
    3. Complete KYC promptly: Delayed KYC can flag an account for review.
    4. Use realistic registration details: Fill in all optional fields (phone, address) to appear legitimate.

    Session Management

    class BookmakerSession:
        def __init__(self, bookmaker, account_id, proxy_manager):
            self.bookmaker = bookmaker
            self.account_id = account_id
            self.proxy = proxy_manager.get_proxy(bookmaker, account_id)
            self.session = requests.Session()
            self.session.proxies = {
                "http": self.proxy,
                "https": self.proxy
            }
            self.session.headers.update(self.get_headers())
    
        def get_headers(self):
            """Return consistent headers for this account"""
            # Each account should have a fixed, realistic fingerprint
            return {
                "User-Agent": "Mozilla/5.0 (Linux; Android 14; SM-A546B) "
                               "AppleWebKit/537.36 Chrome/121.0.0.0 Mobile Safari/537.36",
                "Accept-Language": "th-TH,th;q=0.9,en;q=0.8",
                "Accept": "text/html,application/xhtml+xml,application/xml;q=0.9",
            }
    
        def login(self, username, password):
            """Log into bookmaker through assigned proxy"""
            login_url = self.get_login_url()
            response = self.session.post(login_url, data={
                "username": username,
                "password": password
            })
            return response.status_code == 200
    
        def place_bet(self, event_id, selection, odds, stake):
            """Place a bet through the assigned proxy"""
            bet_url = self.get_bet_url()
            response = self.session.post(bet_url, json={
                "event_id": event_id,
                "selection": selection,
                "odds": odds,
                "stake": stake
            })
            return response.json()

    Behavioral Guidelines

    Even with perfect proxy isolation, your betting patterns can expose you:

    Bet Sizing

    • Do not always bet exact arb-calculated stakes (e.g., $487.32)
    • Round stakes to natural amounts ($490, $500, $485)
    • Vary your stakes slightly between bets
    • Occasionally place small recreational bets that are not part of arb strategies

    Timing

    • Do not place both legs of an arb within seconds of each other
    • Add random delays between bookmaker interactions
    • Avoid betting exclusively on events where arbs exist
    • Log in and browse without betting sometimes

    Account Activity

    • Use bookmaker promotions and bonuses (but read the terms carefully)
    • Place some pre-match bets that look recreational
    • Engage with the bookmaker’s app or site beyond just betting
    • Maintain a natural ratio of wins to losses on individual accounts

    Anti-Detect Browser Setup

    For browser-based bookmaker access, pair your proxy with an anti-detect browser:

    Anti-Detect Browser Key Features Price Range
    Multilogin Browser profiles, fingerprint management $99-399/month
    GoLogin Cloud profiles, team sharing $49-199/month
    AdsPower Free tier available, good for beginners Free-$50/month
    Dolphin Anty Popular in arb community $71-239/month

    Configuration per profile:

    • Assign one DataResearchTools mobile proxy per browser profile
    • Set timezone to match proxy location
    • Configure language to match proxy country
    • Use consistent canvas and WebGL fingerprints
    • Enable cookie persistence between sessions

    Finding Arbitrage Opportunities

    Manual Scanning

    Check odds comparison sites like:

    • OddsPortal
    • Oddschecker
    • BetBrain

    Calculate the arb percentage manually or use a spreadsheet formula.

    Automated Arb Scanning

    class ArbScanner:
        def __init__(self, odds_database):
            self.db = odds_database
            self.min_profit_pct = 1.0  # Minimum 1% profit
            self.max_profit_pct = 15.0  # >15% might be an error
    
        def find_arbs(self, sport, market_type="1x2"):
            """Scan for arbitrage opportunities"""
            events = self.db.get_active_events(sport)
            arbs = []
    
            for event in events:
                odds_by_bookmaker = self.db.get_odds(event["id"], market_type)
                arb = self.check_arb(event, odds_by_bookmaker, market_type)
                if arb:
                    arbs.append(arb)
    
            return sorted(arbs, key=lambda x: x["profit_pct"], reverse=True)
    
        def check_arb(self, event, odds_data, market_type):
            """Check if an arbitrage opportunity exists"""
            if market_type == "1x2":
                selections = ["home", "draw", "away"]
            elif market_type == "moneyline":
                selections = ["home", "away"]
            else:
                return None
    
            best_odds = {}
            for selection in selections:
                best = max(
                    odds_data,
                    key=lambda x: x["selections"].get(selection, {}).get("odds", 0)
                )
                best_odds[selection] = {
                    "bookmaker": best["bookmaker"],
                    "odds": best["selections"][selection]["odds"]
                }
    
            # Calculate total implied probability
            total_prob = sum(1 / v["odds"] for v in best_odds.values())
    
            if total_prob < 1.0:
                profit_pct = (1 - total_prob) * 100
    
                if self.min_profit_pct <= profit_pct <= self.max_profit_pct:
                    return {
                        "event": event,
                        "market": market_type,
                        "best_odds": best_odds,
                        "total_probability": total_prob,
                        "profit_pct": round(profit_pct, 2),
                        "found_at": datetime.utcnow().isoformat()
                    }
    
            return None
    
        def calculate_stakes(self, arb, total_investment):
            """Calculate optimal stakes for each leg"""
            stakes = {}
            total_prob = arb["total_probability"]
    
            for selection, data in arb["best_odds"].items():
                individual_prob = 1 / data["odds"]
                stake = total_investment * (individual_prob / total_prob)
                stakes[selection] = {
                    "bookmaker": data["bookmaker"],
                    "odds": data["odds"],
                    "stake": round(stake, 2),
                    "potential_payout": round(stake * data["odds"], 2)
                }
    
            return stakes

    Arb Execution Workflow

    async def execute_arb(arb, stakes, session_manager):
        """Execute an arbitrage bet across multiple bookmakers"""
        results = {}
        tasks = []
    
        for selection, data in stakes.items():
            session = session_manager.get_session(data["bookmaker"])
            task = asyncio.create_task(
                place_bet_with_retry(
                    session=session,
                    event_id=arb["event"]["id"],
                    selection=selection,
                    odds=data["odds"],
                    stake=data["stake"],
                    min_acceptable_odds=data["odds"] * 0.98  # Accept 2% odds drop
                )
            )
            tasks.append((selection, task))
    
        # Wait for all bets to complete
        for selection, task in tasks:
            try:
                result = await task
                results[selection] = result
            except Exception as e:
                results[selection] = {"error": str(e)}
    
        # Check if all legs were successfully placed
        all_success = all(r.get("status") == "confirmed" for r in results.values())
    
        if not all_success:
            # Handle partial execution (most dangerous scenario)
            handle_partial_arb(arb, results)
    
        return results
    
    
    async def place_bet_with_retry(session, event_id, selection, odds, stake, min_acceptable_odds, max_retries=2):
        """Place a bet with retry logic"""
        for attempt in range(max_retries + 1):
            try:
                # Check current odds before placing
                current_odds = await session.get_current_odds(event_id, selection)
    
                if current_odds < min_acceptable_odds:
                    return {"status": "skipped", "reason": "odds moved"}
    
                result = await session.place_bet(event_id, selection, current_odds, stake)
    
                if result["status"] == "confirmed":
                    return result
                elif result["status"] == "odds_changed":
                    continue  # Retry with updated odds
                else:
                    return result
    
            except Exception as e:
                if attempt == max_retries:
                    raise
                await asyncio.sleep(0.5)

    Risk Management

    Partial Execution Risk

    The biggest risk in arbing is when one leg gets placed but another fails (odds moved, account limited, site down). Mitigation strategies:

    1. Always check odds immediately before placing: Stale odds are the primary cause of failed arbs.
    2. Set minimum acceptable odds: Reject the bet if odds have moved more than 2% from the scanned value.
    3. Place the less liquid leg first: Start with the bookmaker most likely to move odds or reject the bet.
    4. Have hedging plans: If one leg fails, immediately check if you can hedge on another bookmaker.

    Account Limitation Management

    When a bookmaker limits your account:

    Limitation Type Impact Response
    Stake limit reduction Max bet lowered Scale down arbs on that book
    Market restriction Some markets unavailable Remove from arb scanner for those markets
    Account closure No more betting Switch to backup account via different proxy
    Withdrawal hold Funds temporarily locked Document everything, contact support

    Proxy Failure Handling

    class ProxyFailoverManager:
        def __init__(self, primary_proxies, backup_proxies):
            self.primary = primary_proxies
            self.backup = backup_proxies
            self.failed_primaries = set()
    
        def get_proxy(self, account_key):
            if account_key not in self.failed_primaries:
                proxy = self.primary.get(account_key)
                if self.test_proxy(proxy):
                    return proxy
                self.failed_primaries.add(account_key)
    
            # Failover to backup
            return self.backup.get(account_key)
    
        def test_proxy(self, proxy_url):
            try:
                response = requests.get(
                    "https://api.ipify.org",
                    proxies={"http": proxy_url, "https": proxy_url},
                    timeout=5
                )
                return response.status_code == 200
            except:
                return False

    Cost Analysis

    Proxy Costs for Arbing

    Component Monthly Cost Notes
    Mobile proxies (10 accounts) Varies by provider DataResearchTools offers competitive SEA pricing
    Mobile proxies (25 accounts) Higher volume Volume discounts typically available
    Anti-detect browser $50-200 GoLogin or Multilogin
    Arb scanner software $50-300 RebelBetting, BetBurger, or custom
    VPS for automation $20-50 Run scanners and placers 24/7

    Expected Returns

    Monthly Turnover Average Arb % Gross Profit Net After Costs
    $10,000 2.5% $250 Variable
    $50,000 2.5% $1,250 Variable
    $100,000 2.0% $2,000 Variable
    $500,000 1.5% $7,500 Variable

    Note: Returns depend heavily on the number of arbs found, execution speed, and account longevity. The proxy investment directly impacts account longevity by reducing detection risk.

    Conclusion

    Arbitrage betting with proxies is a systematic approach to extracting guaranteed profits from bookmaker pricing inefficiencies. The proxy infrastructure is not optional; it is the foundation that determines how long your accounts survive and how many bookmakers you can operate across simultaneously.

    DataResearchTools mobile proxies provide the trust score, geographic targeting, and sticky session capabilities that arbing demands. Their Southeast Asian carrier coverage is particularly valuable for accessing Asian bookmakers like Sbobet, M88, and W88, which frequently offer sharp odds that create arb opportunities with European books.

    The key to long-term arbing success is discipline: one proxy per account, geographic consistency, natural betting patterns, and immediate response to account limitations. Invest in quality proxy infrastructure from the start, and you will extend your account lifetimes significantly, which is the single biggest determinant of arbing profitability.


    Related Reading

  • Best Proxies for Telegram Bots and Multi-Account Management

    Best Proxies for Telegram Bots and Multi-Account Management

    Telegram has become one of the most important messaging platforms for businesses, communities, and developers worldwide. With over 900 million monthly active users and a uniquely powerful Bot API, Telegram offers capabilities that no other messaging platform matches. But if you are running multiple bots, managing several accounts, or operating in regions where Telegram faces restrictions, you need proxies.

    looking for premium 4G/5G IPs? our multi-account Singapore mobile proxies start at $40/month for 200GB.

    get dedicated IPs for Telegram bots

    Singapore Mobile Proxy provides real Singapore 4G/5G carrier IPs with SOCKS5 support — the exact setup required for Telegram bot automation at scale. one dedicated SIM per connection, no shared pools.

    • plug SOCKS5 credentials directly into Telethon or Pyrogram
    • one IP per bot account — no cross-contamination
    • real Singapore carrier network — passes Telegram’s device fingerprint checks
    start free trial → get Singapore IPs for Telegram bots

    This guide covers everything you need to know about selecting and configuring proxies for Telegram, from basic bot operations to large-scale multi-account management.

    Why You Need Proxies for Telegram

    Regional Restrictions

    Telegram is partially or fully blocked in several countries. Even in countries where it is technically accessible, ISPs may throttle Telegram traffic. Proxies allow you to bypass these restrictions and maintain reliable connectivity.

    Multi-Account Management

    Telegram’s terms of service allow users to have multiple accounts, but the platform monitors for suspicious activity. Running 5, 10, or 50 accounts from a single IP address will trigger automated restrictions. Each account needs its own clean IP address to operate safely.

    Bot Operations at Scale

    If you are running multiple Telegram bots that interact with users, groups, or channels, each bot’s traffic pattern needs to appear natural. A single IP address making thousands of API calls across different bots looks suspicious to Telegram’s anti-abuse systems.

    Data Collection and Monitoring

    Researchers and businesses that monitor public Telegram channels for market intelligence, competitive analysis, or threat detection need proxies to avoid rate limiting and maintain consistent access.

    Types of Proxies for Telegram

    SOCKS5 Proxies

    Telegram natively supports SOCKS5 proxies in its client applications. This is the most straightforward option for individual account management:

    • Built into Telegram desktop and mobile clients
    • Supports authentication (username/password)
    • Works for both messages and media
    • Lower overhead than HTTP proxies for persistent connections

    MTProto Proxies

    Telegram developed its own proxy protocol called MTProto Proxy, specifically designed for Telegram traffic:

    • Purpose-built for Telegram’s encryption protocol
    • Can be promoted within Telegram (shown in the app)
    • Does not work for non-Telegram traffic
    • Often slower than SOCKS5 or HTTP proxies

    HTTP/HTTPS Proxies

    For bot API operations, HTTP proxies are the most common choice:

    • Compatible with all HTTP client libraries
    • Easy to integrate with bot frameworks
    • Support for authentication and IP whitelisting
    • Work with the Telegram Bot API endpoints

    Mobile Proxies (Recommended)

    Mobile proxies are the gold standard for Telegram operations. Because mobile IPs are shared via CGNAT among hundreds of real users, Telegram cannot easily distinguish your automated traffic from legitimate mobile usage.

    DataResearchTools mobile proxies are ideal for Telegram because they provide real cellular IPs from Southeast Asian carriers. This is particularly relevant for Telegram communities in Thailand, Indonesia, the Philippines, and Vietnam, where Telegram usage has grown rapidly.

    Setting Up Proxies in the Telegram Client

    Desktop Client Configuration

    1. Open Telegram Desktop
    2. Go to Settings > Advanced > Connection Type
    3. Select “Use custom proxy”
    4. Choose SOCKS5 or MTProto
    5. Enter your proxy details:
    • Server: Your proxy hostname
    • Port: Your proxy port
    • Username: Your authentication username
    • Password: Your authentication password

    Mobile Client Configuration (Android)

    1. Open Telegram
    2. Tap the hamburger menu (three lines)
    3. Go to Settings > Data and Storage > Proxy Settings
    4. Tap “Add Proxy”
    5. Select SOCKS5
    6. Enter proxy server details

    Mobile Client Configuration (iOS)

    1. Open Telegram
    2. Go to Settings > Data and Storage > Proxy
    3. Tap “Add Proxy”
    4. Enter SOCKS5 proxy details
    5. Enable “Use Proxy”

    Configuring Proxies for Telegram Bots

    Python (python-telegram-bot Library)

    from telegram.ext import ApplicationBuilder
    from telegram.request import HTTPXRequest
    
    # Configure proxy for the bot
    proxy_url = "http://username:password@gate.dataresearchtools.com:5432"
    
    request = HTTPXRequest(
        proxy=proxy_url,
        connect_timeout=20,
        read_timeout=20
    )
    
    application = (
        ApplicationBuilder()
        .token("YOUR_BOT_TOKEN")
        .request(request)
        .build()
    )

    Node.js (node-telegram-bot-api)

    const TelegramBot = require('node-telegram-bot-api');
    const HttpsProxyAgent = require('https-proxy-agent');
    
    const proxyUrl = 'http://username:password@gate.dataresearchtools.com:5432';
    const agent = new HttpsProxyAgent(proxyUrl);
    
    const bot = new TelegramBot('YOUR_BOT_TOKEN', {
        polling: true,
        request: {
            agent: agent
        }
    });
    
    bot.on('message', (msg) => {
        bot.sendMessage(msg.chat.id, 'Hello! Bot is running through proxy.');
    });

    Using Telethon (Python MTProto Client)

    For more advanced operations that go beyond the Bot API, Telethon provides direct access to Telegram’s MTProto protocol:

    from telethon import TelegramClient
    import socks
    
    # SOCKS5 proxy configuration
    client = TelegramClient(
        'session_name',
        api_id=YOUR_API_ID,
        api_hash='YOUR_API_HASH',
        proxy=(socks.SOCKS5, 'gate.dataresearchtools.com', 1080, True, 'username', 'password')
    )
    
    async def main():
        await client.start()
        me = await client.get_me()
        print(f"Logged in as {me.first_name}")
    
    client.loop.run_until_complete(main())

    Multi-Account Management Strategy

    Account-to-Proxy Mapping

    The most critical rule for multi-account management is to maintain a consistent IP identity for each account:

    ACCOUNT_PROXY_MAP = {
        "account_1": {
            "phone": "+66xxxxxxxxx",
            "proxy": "mobile_proxy_endpoint_1",
            "region": "TH",
            "session_file": "sessions/account_1.session"
        },
        "account_2": {
            "phone": "+62xxxxxxxxx",
            "proxy": "mobile_proxy_endpoint_2",
            "region": "ID",
            "session_file": "sessions/account_2.session"
        },
        "account_3": {
            "phone": "+63xxxxxxxxx",
            "proxy": "mobile_proxy_endpoint_3",
            "region": "PH",
            "session_file": "sessions/account_3.session"
        }
    }

    Key Principles

    1. One proxy per account: Never share a proxy between accounts. If Telegram sees two different accounts operating from the same IP, both may be flagged.
    1. Geographic consistency: Match your proxy location to your account’s phone number region. A Thai phone number accessing Telegram from an Indonesian IP is suspicious.
    1. Sticky sessions: Use sticky sessions (same IP for extended periods) rather than rotating IPs. Real users do not change IP addresses every few minutes.
    1. Activity patterns: Mimic human usage patterns. Do not send messages 24/7 at machine speed. Include natural pauses, varied message lengths, and realistic online/offline cycles.

    Warming Up New Accounts

    New Telegram accounts are under heightened scrutiny. Follow this warm-up process:

    Days 1-3: Minimal Activity

    • Join 2-3 public groups
    • Send a few casual messages
    • Add a profile photo and bio
    • Stay online for 30-60 minutes per day

    Days 4-7: Light Engagement

    • Join 5-10 more groups
    • Respond to conversations naturally
    • Share a few media items (photos, links)
    • Increase online time to 1-2 hours

    Days 8-14: Moderate Activity

    • Begin more active group participation
    • Start private conversations with contacts
    • Join channels relevant to your use case
    • 2-4 hours of varied activity

    Days 15+: Normal Operations

    • Gradually increase to your target activity level
    • Continue using the same proxy consistently
    • Monitor for any restriction notices

    Telegram Bot Use Cases That Require Proxies

    Community Management Bots

    If you manage multiple Telegram communities, you likely run bots for:

    • Welcome messages and onboarding
    • Anti-spam and moderation
    • FAQ and support automation
    • Polls and engagement tracking

    Each community bot should ideally run through its own proxy to avoid rate limiting when managing high-traffic groups.

    Notification and Alert Bots

    Bots that send time-sensitive notifications (price alerts, monitoring alerts, news updates) need reliable proxy connections:

    • Ensure your proxy has high uptime (DataResearchTools provides 99.9% uptime SLA)
    • Use sticky sessions to maintain persistent connections
    • Implement failover to backup proxies if the primary connection drops

    Data Collection Bots

    Bots that collect data from public channels and groups for research or intelligence:

    • Rotate proxies based on request volume, not time
    • Monitor rate limit headers in API responses
    • Implement exponential backoff when throttled
    • Store session data locally to avoid re-authentication

    E-Commerce and Customer Service Bots

    In Southeast Asia, many businesses use Telegram for customer service and sales:

    • Product catalog browsing
    • Order status inquiries
    • Payment notifications
    • Customer support ticketing

    These bots need reliable, low-latency proxy connections. DataResearchTools mobile proxies with Southeast Asian endpoints provide the geographic proximity needed for fast response times.

    Rate Limits and How to Stay Within Them

    Telegram enforces several rate limits that proxies alone cannot circumvent. Understanding these limits helps you design your system to work within them:

    Bot API Rate Limits

    Action Limit Notes
    Messages to same chat 1 per second Per chat, not per bot
    Messages to different chats 30 per second Global limit per bot
    Bulk messages 20 messages per minute to different users For new bots, lower initially
    Group messages 20 messages per minute Per group
    Inline query results 10 results max Per query
    File uploads 50 MB max per file 2 GB for premium bots

    User Account Rate Limits (via Telethon/Pyrogram)

    Action Limit Notes
    Joining groups ~20 per day Lower for new accounts
    Sending messages ~50 per day to new contacts Increases with account age
    Adding contacts ~20 per day Rate increases over time
    Forwarding messages ~50 per day Across all chats

    Avoiding Flood Waits

    When you exceed rate limits, Telegram returns a FloodWaitError with a wait time. Handle these gracefully:

    from telethon.errors import FloodWaitError
    import asyncio
    
    async def safe_send_message(client, chat, message):
        try:
            await client.send_message(chat, message)
        except FloodWaitError as e:
            print(f"Rate limited. Waiting {e.seconds} seconds.")
            await asyncio.sleep(e.seconds + 1)
            await client.send_message(chat, message)

    Proxy Performance Comparison for Telegram

    Proxy Type Telegram Compatibility Trust Score Speed Cost Best For
    Datacenter Low Low Very Fast Cheap Not recommended
    Residential Medium Medium Medium Moderate Light bot operations
    Mobile High Very High Medium Higher Multi-account, heavy usage
    MTProto High Varies Fast Often Free Single account bypass

    Mobile proxies consistently outperform other types for Telegram operations because:

    • Mobile IPs are trusted by Telegram’s anti-abuse systems
    • CGNAT means many real users share the same IP, providing cover
    • Carrier-grade IPs rarely appear on blacklists
    • Geographic targeting matches phone number registration regions

    Security Considerations

    Protecting Your Bot Tokens

    Never expose your bot tokens in public repositories or logs. Use environment variables:

    import os
    
    BOT_TOKEN = os.environ.get("TELEGRAM_BOT_TOKEN")
    PROXY_USER = os.environ.get("PROXY_USERNAME")
    PROXY_PASS = os.environ.get("PROXY_PASSWORD")

    Session File Security

    Telethon and Pyrogram create session files that contain authentication data. These files grant full access to your accounts:

    • Store session files encrypted at rest
    • Never commit session files to version control
    • Implement access controls on the server hosting session files
    • Rotate sessions periodically

    Proxy Authentication

    Always use authenticated proxies rather than open proxies:

    • Open proxies may log your traffic
    • Authenticated proxies ensure only you use the IP
    • DataResearchTools provides username/password authentication for all proxy endpoints

    Troubleshooting Common Issues

    “Proxy connection refused”

    • Verify the proxy host, port, and protocol (SOCKS5 vs HTTP)
    • Check that your IP is whitelisted if the proxy uses IP-based auth
    • Ensure the proxy supports the protocol Telegram needs

    “Account restricted”

    • Your activity pattern was too aggressive
    • Switch to a new mobile proxy and reduce activity volume
    • Wait 24-72 hours before resuming operations

    “Phone number banned”

    • Telegram has permanently restricted the phone number
    • This usually results from repeated violations
    • Use a new phone number with a fresh mobile proxy

    “FloodWaitError” with long wait times

    • You have exceeded rate limits significantly
    • Respect the wait time; do not try to circumvent it
    • Reduce your request rate going forward

    Conclusion

    Running Telegram bots and managing multiple accounts effectively requires a reliable proxy infrastructure. Mobile proxies provide the highest trust level and the best protection against Telegram’s anti-abuse systems. The key principles are simple: one proxy per account, geographic consistency, human-like activity patterns, and respect for rate limits.

    DataResearchTools mobile proxies are purpose-built for these use cases. Their Southeast Asian carrier coverage, sticky session support, and high uptime make them the optimal choice for Telegram operations in the region. Whether you are managing community bots, running data collection operations, or handling customer service across multiple accounts, the right proxy setup is the difference between smooth operations and constant account restrictions.

    Start with a single account and proxy pair, validate your setup, and then scale gradually. The investment in proper proxy infrastructure pays for itself many times over by preventing the account bans and restrictions that plague unprotected operations.

    For Telegram automation at scale, Singapore Mobile Proxy is the only provider we tested that offers real 4G/5G Singapore carrier IPs — the lowest ban rate we recorded across all test accounts.


    Related Reading

    Need a free list? See our working MTProto proxy list guide for 2026, with sources refreshed hourly and self-host instructions.

  • Rotating Proxies with Unlimited Bandwidth: What You’re Actually Getting (2026)

    Rotating proxies with unlimited bandwidth promise unrestricted data transfer alongside automatic IP cycling. It sounds like the perfect combination for web scraping, data collection, and any high-volume proxy task. But “unlimited” rarely means what you think it does. In this guide, we’ll break down what unlimited bandwidth rotating proxies actually deliver, how pricing works, and how to evaluate providers honestly.

    looking for premium 4G/5G IPs? our unlimited-bandwidth Singapore mobile proxies start at $40/month for 200GB.

    If you’re new to IP rotation, start with our IP rotation explainer first. For mobile-specific rotation, see our technical guide on how mobile proxies rotate IPs.

    What Are Rotating Proxies with Unlimited Bandwidth?

    A rotating proxy automatically assigns a different IP address for each request (or at defined intervals). “Unlimited bandwidth” means the provider doesn’t meter your data transfer—you pay a flat rate regardless of how many gigabytes you push through the proxy.

    This differs from the more common metered model, where providers charge per GB of traffic. On a metered plan, a large scraping job that transfers 500 GB could cost hundreds or thousands of dollars. With unlimited bandwidth, your cost stays fixed.

    Typical unlimited bandwidth rotating proxy plans include:

    • Datacenter rotating proxies: Cheapest option, IPs from data centers. Fast speeds, lower trust scores.
    • Residential rotating proxies: IPs from real ISPs. Higher trust, slower speeds, harder to detect.
    • Mobile rotating proxies: IPs from mobile carriers. Highest trust, smallest pools, usually metered—unlimited mobile is rare.

    What “Unlimited” Actually Means

    Before you commit to an unlimited plan, understand the common limitations:

    Thread/Connection Limits

    Most “unlimited bandwidth” plans cap the number of concurrent connections. A plan might allow 100 threads, meaning you can run 100 simultaneous requests. The bandwidth per thread may be unrestricted, but your total throughput is capped by parallelism.

    Speed Throttling

    Some providers throttle individual connection speeds on unlimited plans. You might get unlimited data but at 5-10 Mbps per connection instead of the 50-100 Mbps you’d get on a metered plan. This significantly impacts scraping speed.

    Fair Use Policies

    Nearly every “unlimited” plan has a fair use clause. If your usage is deemed excessive (often undefined), the provider can throttle, suspend, or terminate your access. Read the terms carefully.

    IP Pool Quality

    Unlimited plans often route you through a shared pool. Heavy usage from other customers can burn IPs, reducing your success rate. Providers offering unlimited at rock-bottom prices may have smaller, lower-quality pools.

    Unlimited Bandwidth vs Per-GB Pricing: Cost Comparison

    Metric Unlimited Bandwidth Per-GB Metered
    Monthly cost Fixed ($50-$500+) Variable ($1-$15/GB)
    Cost at 10 GB/month Overpaying (fixed fee) $10-$150
    Cost at 500 GB/month Saving significantly $500-$7,500
    Predictability 100% predictable Hard to predict
    Best for High-volume, consistent usage Variable or low-volume usage

    The break-even point varies by provider, but generally: if you’re consistently using more than 50-100 GB per month on residential proxies, unlimited plans save money. For lower volumes, metered plans are cheaper. For detailed pricing analysis, see our proxy pricing guide.

    Best Use Cases for Unlimited Bandwidth Rotating Proxies

    Large-Scale Web Scraping

    If you’re scraping millions of pages, bandwidth costs on metered plans can spiral quickly. Unlimited plans let you scrape without watching the data meter. Pair with a backconnect proxy gateway for the simplest setup.

    Continuous Monitoring

    Price monitoring, stock tracking, and availability checking require persistent connections that transfer data around the clock. Unlimited bandwidth removes the cost anxiety from always-on monitoring jobs.

    SEO and SERP Scraping

    Checking search rankings across hundreds of keywords and locations generates substantial traffic. Unlimited plans are cost-effective for SEO agencies running rank tracking at scale.

    Data Enrichment and Aggregation

    Collecting and enriching business data from multiple sources involves high data transfer. Companies building datasets from public sources benefit from predictable, unlimited pricing.

    When Unlimited Bandwidth Isn’t Worth It

    • Account management: You don’t need unlimited bandwidth for managing social media or e-commerce accounts. You need non-rotating proxies with consistent IPs instead.
    • Low-volume projects: If you’re scraping a few hundred pages per day, metered plans are cheaper.
    • Tasks requiring mobile IPs: Unlimited mobile proxy plans are extremely rare. Most mobile providers are metered because carrier data costs are high. See our best mobile proxies comparison.
    • Quality-sensitive projects: If you need the cleanest, freshest IPs, premium metered plans often have better pool quality than unlimited options.

    How to Evaluate Unlimited Rotating Proxy Providers

    Before buying, check these factors:

    1. Concurrent connection limits: How many threads can you run simultaneously?
    2. Speed per connection: Ask for typical throughput numbers. Run your own tests during a trial.
    3. IP pool size and freshness: Bigger pools with regular IP refresh mean better success rates.
    4. IP types available: Datacenter, residential, or mobile? Each type has trade-offs.
    5. Geographic coverage: Can you target the countries/cities you need?
    6. Fair use policy: Read it carefully. Look for specific limits, not vague “reasonable use” language.
    7. Success rate guarantees: What percentage of requests actually reach the target?
    8. Trial availability: Never commit long-term without testing. Use our guide on testing if your proxy works.

    Rotating Proxy Bandwidth: Datacenter vs Residential vs Mobile

    Type Unlimited Available? Typical Speed Trust Level Best For
    Datacenter Common Very fast (100+ Mbps) Low Non-protected targets, speed-critical scraping
    Residential Yes (some providers) Moderate (10-50 Mbps) High Protected targets, geo-targeted scraping
    Mobile Very rare Variable (5-30 Mbps) Highest Heavily protected platforms, social media

    If you specifically need mobile proxies for scraping, expect metered pricing. The unlimited options exist primarily in the datacenter and residential space.

    Bottom Line

    Unlimited bandwidth rotating proxies make financial sense for high-volume, data-intensive tasks like large-scale scraping, continuous monitoring, and SERP tracking. They remove bandwidth cost anxiety and provide predictable monthly pricing.

    But “unlimited” always comes with fine print—connection limits, speed caps, and fair use policies. Test before you commit, and don’t assume unlimited means unrestricted. For account management and identity-sensitive tasks, bandwidth isn’t your bottleneck—IP consistency is. Choose the right tool for the job.