Research Notice: This guidance addresses desktop and mobile builds of a hardware-wallet companion application; version numbers, data-directory paths, firmware requirements and known defects differ by release and by operating system, and authoritative values are published on the manufacturer’s official support pages.
How to Fix Ledger Live Stuck Loading Screen problems usually clear after two actions: moving the local data directory aside and re-seating the cable in a port that talks to the device directly. A frozen start-up view follows an interrupted database write or a dropped USB session far more often than it follows a damaged hardware wallet. The checks below separate storage faults from connection faults, so every attempt produces evidence instead of another restart.
The application opens an encrypted local database, reads account indexes and price history, then opens a session with the hardware device and queries remote nodes for balances. The start-up view stays visible until all three tasks report completion, so a single stalled task holds the entire window in that state.
The first stage touches the cache, the local store of account indexes, price quotes and operation history that the application reuses between sessions, and it opens that store in read-write mode. When a previous session ended mid-write – a forced quit, a power loss, a full disk – the file can remain partly written, and the open call waits for a lock that no other process will release. A revoked file permission produces the same silence, which is why the modified timestamp on the cache folder is worth reading before anything is deleted.
After the local read, the application requests a session with the hardware wallet, and that request needs the device authenticated with its PIN plus the transport bridge running, the helper process that relays commands between the two. One application holding the device handle, a charging-only cable, or a Bluetooth pairing that dropped in the background leaves the request pending with no error text on the display. Testing the same cable in a different port, or the same port with another cable, separates a wiring fault from a software one.
The third stage asks node endpoints, either the manufacturer’s public ones or a self-hosted alternative, for the current chain state. A request refused immediately returns an error the application can print, while one dropped silently by a firewall, proxy or DNS filter returns nothing at all, and the interface waits for the built-in timeout before the next attempt. Blocked endpoints therefore look identical to a hung process until that timeout window passes.
Certain setups repeat the same failure far more often: workstations with aggressive endpoint protection, networks behind filtering proxies, machines running several wallet applications at once, hardware devices on firmware older than the installed application expects, and systems recovering from an interrupted update. The pattern points at which start-up stage the environment interrupts rather than at the device itself.
Anti-malware suites inspect the encrypted database on first access and hold the file handle while scanning, which delays or blocks the read-write open. The delay grows with the size of the account history, so a long-used installation appears to hang while a freshly created profile opens at once. Adding the data folder to the scanner’s exclusion list, where the manufacturer’s documentation allows it, removes that inspection step and makes the next launch comparable to a clean profile.
Corporate proxies, campus networks, some mobile carriers and DNS-level filters drop requests to node endpoints without a reply. Because the application retries several endpoints in sequence, the visible effect is a start-up view that sits still for longer than expected before it either continues or reports a network fault. Comparing the same machine on a phone hotspot isolates this cause quickly, and a self-hosted node endpoint avoids it altogether for users who already run one.
Each application release states a minimum firmware version, and a device below that minimum can refuse the session request silently rather than returning a compatibility message. The installed firmware version is readable on the device itself once the PIN is entered, and the required minimum is published in the release notes for the application build in question. When the two disagree, the firmware update must be completed before any further start-up test carries meaning.
Four routes reach the same balances: the manufacturer’s desktop application, its mobile counterpart, a third-party wallet that supports the same hardware protocol, and a public explorer that reads the chain with no device involved. Only the first two manage firmware and account indexes, so the others answer different questions when a start-up view will not clear.
The four options below are compared on what they control, what they cannot do, and what a user can verify while the main application is unresponsive.
| Route | What it controls | Main limit | Verification available |
|---|---|---|---|
| Manufacturer’s desktop application | Accounts, firmware updates, staking and signing | Needs an intact local database and a free USB session | Read the last log entry timestamp |
| Manufacturer’s mobile application | Accounts, firmware updates and signing over Bluetooth | Background limits can pause the session | Confirm battery level and Bluetooth permission |
| Third-party wallet using the same device | Signing with the same hardware, no firmware work | No vendor tooling and no account index migration | Confirm the device answers that client |
| Public block explorer | Chain balances, transaction history and confirmations | No signing and no device interaction | Search the address on a trusted explorer |
Each route suits a different moment. The desktop build fits anyone updating firmware, staking and running several accounts from one machine, and it stops being a diagnostic tool when the local database itself is the fault. The mobile build covers the same ground over Bluetooth but depends on background permissions the operating system can revoke. A third-party client confirms that the device signs correctly and cannot migrate account indexes. An explorer confirms balances and transactions and never touches the hardware. None of the four repairs a damaged data folder.
The desktop build holds the full account index, the staking records and the firmware update tooling in one place, so it stays the working environment for anyone managing more than a single address. That same dependence on the local database is why a corrupt store blocks everything at once. Keeping a dated copy of the data folder beside the application means a damaged store can be replaced in minutes, and the copy also records what the last working configuration contained.
An explorer reads public chain data, so it can confirm that funds arrived, that a transaction was included in a block, or that an address holds a balance, and it does all of that without the device. It cannot produce a signature, cannot move funds, and reports nothing about the local account index or the firmware build. A balance visible on an explorer therefore proves the network is healthy, which is useful evidence, yet it says nothing about why the local application halts before its first window paints.
Repeated force quits, reinstalling over an existing data directory, launching two copies of the application, leaving the device on a hub shared with other peripherals, and ignoring a version mismatch between the application and the device firmware account for most cases that outlast a simple restart. Each mistake removes evidence or recreates the same broken state.
A fresh install over an existing data folder inherits the same damaged files, because the installer writes program files and leaves user data untouched. The application then reopens the same partial database and halts at an identical point, which is often read as proof that reinstalling achieves nothing. Moving the folder aside rather than deleting it turns the same operation into a controlled test, and the moved copy can be restored if the fresh profile behaves no better.
Each forced termination interrupts a write, and each extra window or background instance competes for the same database lock and the same device handle. Two instances can also fight over the transport bridge, so the hardware answers neither of them. Closing every window, confirming through the operating system’s process list that nothing remains, and starting exactly one instance removes both causes before the next attempt.
An application build and a firmware build form a pair, and each release states the minimum the other must meet. Someone who updates the application but leaves the device untouched, or the reverse, can meet a session request that the counterpart refuses without a visible error. Reading both numbers before touching either one keeps the test honest, since a mismatch produces the same silent halt as a corrupted store.
Before removing anything, record five facts: the installed application build, the device firmware version, whether the operating system registers the device once its PIN is entered, the last timestamp in the local log, and a copy of the data directory. That record turns a blind reinstall into a test whose result can be compared.
Note the installed application build and the device firmware version from the settings view before changing anything. Both numbers are needed later to establish whether the halt follows one specific pairing of releases, and the device reports its own version only while the PIN is entered.
Enter the PIN on the device and confirm the operating system registers it as a connected peripheral. If nothing appears in the system device list, the fault sits in the cable, the port or the transport bridge rather than in the application’s database.
Inspect the local log file and note the timestamp of its final entry after a launch attempt. A log that stops at the database stage points to local storage, while one that stops at a node request points to connectivity or to the endpoints themselves.
Copy the whole data directory to a separate location before any removal, keeping the original in place. The copy preserves account indexes and settings, and it can later be compared against a freshly created folder to isolate one damaged file.
Repeat the launch with a different cable and port and compare the two logs line by line. Identical stopping points indicate a software or storage cause, while different stopping points point to the physical connection or its driver.
Three things shift between releases: where the data directory lives on each operating system, which underlying fault a given symptom represents, and what minimum firmware the current application build expects. Each is published per version in release notes and support pages, so a step copied from an older thread may target a path that no longer exists.
Desktop builds keep user data in a per-user folder whose location follows the conventions of each operating system, and those conventions have changed between major releases of Windows, macOS and Linux distributions. Instructions written for one version therefore point at a folder that does not exist on another. The current path for a given build is stated in the manufacturer’s official support pages, and it should be confirmed there before any file is moved or renamed.
Threads describing an identical visible halt list antivirus interference, VPN routing, Bluetooth pairings, outdated firmware, low disk space and damaged databases as the cause, and those reports rarely name the application build they refer to. That spread is genuine rather than contradictory, because the same three start-up stages fail for different reasons under different environments. Treating one report as the answer skips the environment check, which is why the log timestamp remains the more dependable first clue.
Minimum firmware requirements are attached to specific application releases and are not queryable from inside the device itself. A device several versions behind may still authenticate for signing while refusing the session the application needs at start-up. The authoritative minimum, together with the update procedure, is published per release, so the version pair should be read from the release notes instead of inferred from the age of the device or from a forum post.
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"headline": "How to Fix Ledger Live Stuck Loading Screen: Causes, Checks, and Safe Repairs",
"description": "A frozen start-up view in a hardware-wallet companion application usually traces to a damaged local database, a dropped device session, or silently blocked node requests. The article explains the three start-up stages, compares desktop, mobile, third-party and explorer routes, lists the mistakes that prolong the halt, and sets out a five-step verification sequence to run before reinstalling anything."
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"text": "Note the installed application build and the device firmware version from the settings view before changing anything."
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"@type": "HowToStep",
"text": "Enter the PIN on the device and confirm the operating system registers it as a connected peripheral."
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"@type": "HowToStep",
"text": "Inspect the local log file and note the timestamp of its final entry after a launch attempt."
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"@type": "HowToStep",
"text": "Copy the whole data directory to a separate location before any removal, keeping the original in place."
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"text": "Repeat the launch with a different cable and port and compare the two logs line by line."
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{"@context":"https://schema.org","@type":"HowTo","name":"Which Checks Confirm a Frozen Pane Rather Than an Active Sync?","step":[{"@type":"HowToStep","position":1,"text":"Step 1: Note the block height in the footer and the wall-clock time beside it."},{"@type":"HowToStep","position":2,"text":"Step 2: Look up the current block height on a public explorer for the same network."},{"@type":"HowToStep","position":3,"text":"Step 3: Watch the process processor share and disk-write counter for one full minute."},{"@type":"HowToStep","position":4,"text":"Step 4: Open the newest log file in the application data directory and read its final timestamp."},{"@type":"HowToStep","position":5,"text":"Step 5: Save the two height readings and the log excerpt to a text file before restarting anything."}]}
How to Identify a Ledger Live Loading Freeze vs Slow Blockchain Sync reduces to one comparison: read the block height printed in the status area, then compare it against the chain tip on a public explorer for the same network. If that figure keeps climbing, the software is working through data; if it holds the same value for minutes while the pointer still responds, the renderer has stopped repainting rather than syncing. Record both numbers before touching any restart control, because a forced relaunch wipes the evidence you need.
A stalled pane and a lagging node connection look alike because both leave the progress indicator turning. Two readings, one minute apart, separate them: the block height printed in the footer, and the processor share of the application process in a system monitor. A climbing height with steady processor use means real synchronization; an unchanged height with near-zero use means the window stopped repainting.
Chain progress and window repainting run on separate loops, and only one of them touches the network. The synchronization engine asks remote nodes for block headers, checks them against consensus rules and writes accepted data into a local database; its height counter advances whenever a new batch lands. The repaint loop merely decides whether the visible panel is drawn again. A wedged repaint loop therefore leaves an old figure on display while the engine keeps pulling data underneath, which is exactly why the two states are mistaken for each other.
Processor share, disk-write totals and socket counts behave differently in each state. An active sync keeps one core busy in bursts, grows the database file every few seconds and holds at least one outbound connection open. A wedged window sits near zero percent processor use and writes nothing, yet it can still hold sockets left over from before the fault, so connection counts on their own mislead. Compare write totals across a full minute rather than sampling once, because validation arrives in uneven batches.
Anyone restoring an account from a recovery phrase, moving between supported networks or reconnecting after weeks offline meets both states in one session. The distinction becomes decisive when a balance looks wrong or when the device must be unplugged mid-operation. A wrong reading pushes the user toward the opposite action: waiting longer instead of relaunching, or relaunching while data is still being written.
After a phrase restore, the client has balances to reconstruct and no local history to lean on, so the first indexing pass reads far more data than a routine start. That pass moves the height counter in visible jumps but can pause for long stretches while headers are verified. Users read those pauses as a fault and relaunch, which sends the index back to its beginning. Keeping the window open and watching the write counter is the safer response during this phase.
A client left untouched for weeks returns to a chain that moved on without it, and the gap between stored and current height can span thousands of blocks. Switching to a different supported network mid-session produces a similar effect, since each chain keeps its own height and its own validation state. Both situations produce slow but steady progress, which the height comparison identifies within a minute. Neither is repaired by clearing data, because the work simply restarts from the same point.
Five routes settle the question, and they differ in speed and in what they can rule out. The footer height against a public explorer is the quickest and needs no extra software. The local log supplies the strongest evidence, but only for recent sessions. Resource counters sit between the two and cost nothing.
The table places each route side by side and scores it on elapsed time, the evidence it produces, and the limit that decides when it stops being useful.
| Route | Time to run | Evidence it produces | Main limit |
|---|---|---|---|
| Footer height vs public explorer | Under two minutes | Whether the chain tip is moving | Covers only the printed figure |
| System monitor: processor and disk writes | About one minute | Which loop is doing work | Needs the current process name |
| Newest entry in the local log | Two to three minutes | When the last exchange succeeded | Files rotate and are overwritten |
| Connection test to the node endpoint | Under one minute | Whether the endpoint answers | Reachability does not equal processing |
| Relaunch after copying evidence | Two to five minutes | Whether a hung renderer clears | Resets counters and timestamps |
Use the explorer comparison when time is short and the only open question is whether the chain moved; it cannot say which loop stalled once the figure stops changing. The log answers that follow-up, but only if the fault happened recently enough to survive rotation. Resource counters fit the middle ground and need the executable name, which changes whenever the vendor renames it; the current name is listed on the official support pages.
The footer figure is a claim about the local database, and the explorer reports the chain tip, so the gap between them is the whole diagnostic. A gap that narrows across two readings means data is arriving; a gap held at the same number for several minutes while the explorer advances means the client stopped writing. Take the readings a minute apart, not seconds, because header batches arrive in irregular groups and short samples produce false alarms.
The log records connection attempts, endpoint responses and the timestamps of accepted batches, which together date the last successful exchange. It does not record repaint events, so a silent log points to a stalled network layer rather than to a wedged window, while a log that keeps growing as the panel stays blank points the other way. Files rotate and are overwritten, so copy the newest one before any relaunch.
Guessing wrong rarely destroys data on its own, but it burns hours and erases the evidence that would name the fault. Relaunching during header validation interrupts nothing permanent, yet the counters and timestamps reset with the process. Clearing cached data removes more: the client rebuilds its local index, and on a long chain that rebuild outlasts the pause that prompted it.
A relaunch during validation rarely damages stored data, since accepted headers are already committed to the database. The cost is evidential: counters reset, in-memory progress disappears, and the newest log entries are appended to rather than preserved. Someone who relaunches twice in ten minutes ends up with no baseline to compare against, and the fault looks intermittent when it never was. Copy the readings first; the relaunch takes the same two minutes either way.
Clearing cached data forces the client to rebuild its local index from stored headers, and on a long chain that rebuild outlasts the pause that prompted it. The action is justified when the database is genuinely damaged, which appears as repeated crashes at start rather than as one slow panel. Treating it as a first response turns a two-minute question into an hour of waiting and destroys the state that would have answered it.
This sequence produces a written record that separates the two states in under ten minutes. Have ready a public explorer for the same network, a system monitor listing processor and disk-write totals per process, and a text file for notes. No account credentials, recovery phrase or device connection are needed at any point.
Note the block height in the footer and the wall-clock time beside it. That pair of values becomes the baseline every later reading is measured against.
Look up the current block height on a public explorer for the same network. A figure that advanced by several blocks since step one points to an active chain connection rather than a hung window.
Watch the process processor share and disk-write counter for one full minute. Bursts of activity paired with growing write totals mean the engine is validating and storing data.
Open the newest log file in the application data directory and read its final timestamp. An entry from within the last minute indicates live network traffic, while one from an hour ago points to a stalled process.
Save the two height readings and the log excerpt to a text file before restarting anything. Once the process is relaunched those counters reset, and a repeat of the same fault becomes far harder to prove.
The reasoning holds across releases; the labels, the log path and the sync-depth figure do not. A build that renames the footer field, adds a network selector or changes the default endpoint moves the evidence elsewhere in the window. Any numeric threshold quoted without a version number describes a different build, so read current values from the vendor’s documentation for the installed release.
Releases move interface elements: a footer field becomes a tooltip, a settings row or a progress banner, and an image from an older build then misleads anyone following it. Locate the counter by meaning rather than position – it is the number that advances while data arrives. When no such number is visible, the same evidence comes from the log timestamp and the write counter, both of which keep working regardless of layout.
The address the client contacts, the number of confirmations treated as settled, and the depth of historical data pulled on first launch all come from build-specific constants. Those values change, and no cached figure from a forum post stays accurate. Read them from the vendor’s documentation for the installed version, and treat any threshold quoted without a version number as a description of a different build.
This usually happens because the app cannot finish syncing with Ledger’s servers or with your device. Common triggers include a poor internet connection, an outdated version of Ledger Live, a corrupted cache, a firewall or VPN blocking traffic, or a background process left from a previous crash. Close Ledger Live completely, then reopen it. If it still hangs, restart your computer or phone. Check that your system date and time are correct. Update Ledger Live from the official Ledger website. If the issue remains, open Settings, go to Help, and use Clear cache. After that, reconnect your Ledger device and enter your PIN. A different USB port or cable can also help on desktop.
No. Your crypto assets are not stored inside Ledger Live. They exist on the blockchain, and your private keys stay on your Ledger hardware wallet. Uninstalling or reinstalling Ledger Live only removes the desktop or mobile app and its local data. After you install it again, connect your Ledger device, enter your PIN, and add your accounts. Ledger Live will read the balances from the blockchain. If you use a passphrase, choose the same passphrase option when prompted. Never enter your 24-word recovery phrase into Ledger Live or any website. That phrase should only be entered on the Ledger device itself.
On Windows, several local issues can stop Ledger Live from finishing its startup process. End all Ledger Live tasks in Task Manager, then launch the app as administrator. Make sure Windows and Ledger Live are both updated. If you use a VPN, turn it off for a test. Check whether antivirus or firewall software is blocking Ledger Live, and allow it through if needed. You can also clear the app cache from Settings > Help > Clear cache. A damaged USB cable or a front-panel USB port sometimes causes connection delays. Try a rear USB port and the cable that came with your Ledger device. If nothing works, uninstall Ledger Live, download the newest installer from ledger.com, and reinstall it. Your accounts can be added again after you connect the device.
Yes. Ledger Live needs to reach Ledger’s services to check account balances, market data, and firmware details. If your connection drops, is very slow, or is filtered by a VPN, DNS, or firewall, the loading screen may never finish. Test your internet with another app or website. Switch from Wi-Fi to a mobile hotspot or wired Ethernet if possible. Restart your router. Change your DNS to a public resolver such as 1.1.1.1 or 8.8.8.8. Disable VPN or proxy tools for a moment. If you are in a country or network that restricts Ledger’s servers, try a different network. Once the connection is stable, close and reopen Ledger Live.
Reinstalling Ledger Live does not delete your accounts from the blockchain or your transaction history from the blockchain. It only removes the app data on your computer or phone. To reinstall, first close Ledger Live. On Windows or macOS, move the app to the trash or use the uninstaller. On mobile, uninstall the app like any other app. Then go to ledger.com and download the installer for your system. Install it and open it. Connect your Ledger device, enter your PIN on it, and add your accounts again. Ledger Live will sync the history from the blockchain. If some old accounts do not appear, add them manually using the same account type and address. Keep your recovery phrase offline and never share it.
Bengt Nybelius, together with Risto Keskitalo, the founder of the European Athlete as Student Network (EAS), was a brilliant mind, who settled the objectives and the structure of the organisation in 2004. He passed away in 2011, and EAS decided to establish a scholarship to carry on the legacy of his work. Therefore, we are happy to announce the Call for Paper of the “2026 Bengt Nybelius Scholarship”
Aims of the Bengt Nybelius Scholarship
The aim of the Bengt Nybelius Scholarship is to facilitate the integration of outstanding scholars and young researchers in the area of dual career.
Eligibility to the Bengt Nybelius Scholarship
Regardless the nationality and country of residence, researchers up to 40 years of age could be eligible for the Bengt Nybelius Scholarship.
Requirements to apply to the 2026 Bengt Nybelius Scholarship
Applicants must submit as first author an original manuscript related to the scope of EAS. Manuscripts must not contain information presented in other manuscripts published elsewhere.
The manuscript should be written in English, between 15 and 30 pages double-spaced in Arial font size 11, including title page, abstract, introduction, methods, results, discussion, conclusions, acknowledgments (if applicable), references, tables, figures and legends, and statement of conflicts of interest.
Manuscripts must be accompanied by a cover letter, stating clearly why the work is considered suitable for the Bengt Nybelius Scholarship and explaining the importance of the study.
Selection of the 2026 Bengt Nybelius Scholarship Winner
The Board of EAS will consider the quality of submitted manuscripts and notify the winner by July 31, 2026. The winner will have to summarize her/his work with a 15-minute oral presentation in English at the 2026 Annual EAS Conference in Oulu, Finland, October 5-7.
EAS will arrange travel, accommodation, and registration of the Bengt Nybelius Scholarship winner.
Application to the 2026 Bengt Nybelius Scholarship
To be considered for the 2026 Bengt Nybelius Scholarship applicants before July 1th, 2026 (midnight CET) must submit by e-mail to info@dualcareer.eu, including:
Requests of further information, if needed, could be addressed to info@dualcareer.eu. We are looking forward to receiving your application!
On behalf of the Board of EAS
Laura Capranica
As part of the strategic and operational preparation for the 23rd Annual Conference of the European Athlete Student – Dual Career Network (EAS), three members of the EAS Executive Committee, Ole Keldorf, António Figueiredo,and Risto Keskitalo (local organizer), conducted an official institutional visit to Oulu, Finland, the European Capital of Culture 2026 (https://www.ouka.fi/en).
Risto Keskitalo, played a fundamental role in facilitating communication between the EAS delegation and the local organizing partners in the organizational process of the conference, allowing for an in-depth evaluation of local conditions, facilities, and partnerships, and ensuring that all logistical, academic, and institutional requirements will be fully aligned with the standards and expectations of the EAS community.
To finalize the terms of the agreement between the European Athlete Student – Dual Career Network and the Kastelli Upper Secondary School (https://www.ouka.fi/kastellin-lukio), a formal working meeting was organized with members of the local organizing committee, Director Pekka Fredriksson and Principal Jani Syrjälä, who represent key educational and municipal stakeholders in Oulu. The discussions were characterized by a strong spirit of collaboration, mutual trust, and a shared commitment to promoting excellence in dual career development for athlete students across Europe.
The Hotel Lasaretti (https://lasaretti.com/en/) has been selected to host the 23rd EAS Annual Conference, which is situated in a unique and culturally rich environment, combining modern conference infrastructure with a distinctive architectural and historical character. Oulu also offer several accommodation solutions capable of hosting the diverse group of conference participants, guaranteeing accessibility, service quality, flexible booking options, and proximity to the conference venue.
The outcomes of this visit reinforce Oulu’s position as an outstanding host city for the EAS Annual Conference and highlight the city’s strong engagement with dual career policies and practices. With preparations now firmly underway, the EAS community looks forward with great anticipation to gathering in Oulu in October 2026 for what promises to be a high-quality, impactful, and inspiring conference dedicated to the advancement of dual career support for athlete students across Europe.


On January 22-23, 2026, the KOLMEN KAMPUKSEN URHEILUOPISTO (KKU) organized the kick off meeting of the FOCUS Project at the Kisakallio Sports Institute (Finland). Coordinated by NYSA (Sweden), in cooperation with BK HACKEN (Sweden), RFS Academy (Latvia), LATVIJAS AUGSTSKOLU SPORTA SA VIENIBA (LUSF – Latvia), TURUN KAUPUNKI (Finland), KKU (Finland) and EAS, the FOCUS project aims to establish an innovative and scalable Dual Career co-created framework, ensuring that elite football players can successfully transition from youth to professional sport levels while maintaining educational and career opportunities.

By utilizing the Cynefin framework, athletes and stakeholders will explore decision-making strategies in complex career transitions, with an emphasis on narrative-driven ethnographic research to shape European policy recommendations. Starting from a desk analysis of the football and educational contexts in place in Finland, Latvia, and Sweden, a systematic literature review of dual career in European football, an online survey, and national focus groups, the project will encompass actual testing sessions, and will culminate in the dissemination of practical toolkits, policy guidelines, and a scalable Dual Career model, integrating sport and education to foster athlete success beyond the playing field.

The FOCUS project is funded by the European Union and coordinated by NYSA. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union or the European Education and Culture Executive Agency (EACEA). Neither the European Union nor EACEA can be held responsible for them.
Ledger Live Windows installation is a short process, but the order of the steps matters: get the app from ledger.com, connect your Ledger device by USB, and let the app load your accounts before you move any funds. This guide explains what the app does with your keys, how a Windows PC differs from other platforms, the first-week mistakes that cost money, and what to do when you move to a new computer.
Ledger Live is only the interface. Your private keys are generated and stored on the Secure Element of your Ledger device and stay offline. The app builds transactions, shows balances, installs coin apps and passes each transaction to the device. Every outgoing transaction must be checked and physically confirmed on the device.
Signing happens inside the device, never on the computer. A hostile program on the PC could propose a transaction, but it cannot produce a valid signature without your physical confirmation on the device.
Malware can alter what appears on a computer screen, including the recipient address. The device screen is the one you can trust. Read the address and amount there before you confirm.
Ledger Live keeps local app data, such as preferences and your account view. It is not a backup of your funds. Your backup is the 24-word recovery phrase that you wrote down offline, so treat the PC data as replaceable.
Follow these steps in order the first time.
Type ledger.com into the address bar rather than clicking a search ad, then open the Ledger Live page and choose the Windows version. Check the current system requirements listed there. If a page asks for your recovery phrase while offering a download, it is not Ledger.
Use a cable that carries data, plug the device into the PC and enter your PIN. Supported devices are the Nano S Plus, Nano X, Ledger Flex and Ledger Stax. The original Nano S is discontinued, although existing devices still work. Bluetooth is not used on desktop.
A new device generates its 24-word recovery phrase on its own screen during setup. Write it on paper or metal and store it offline. Ledger Live will never ask you to enter your 24-word recovery phrase.
Open My Ledger, install the coin apps you need, then add accounts in Accounts. Generate a receive address and compare it with the device screen before you share it.
Every version of the app reaches the same keys on the same device, so the choice depends on the connection, the source of the download and how you work.
| Platform | Where to get it | Connection to the device |
|---|---|---|
| Windows | ledger.com | USB |
| macOS | ledger.com (not the Mac App Store) | USB |
| Linux | ledger.com | USB |
| iOS | Apple App Store | Bluetooth with a Nano X (and, where Ledger supports it, newer devices) |
| Android | Google Play (an APK only from ledger.com) | Bluetooth with a Nano X; USB where supported, check ledger.com |
A Windows PC suits long sessions with several accounts, a wired connection and a large screen. A phone suits quick checks and approvals away from a desk. Neither replaces the device, because every transaction still ends with a confirmation on it.
Shared office computers, kiosks and PCs with remote access software are poor hosts for any wallet app. The environment is more often the weak point than the app. Use a computer that only you control and keep Windows updated.
The costly failures come from human steps, not from software, and none of them can be reversed once a transaction is confirmed.
Never type your 24-word recovery phrase into a website, a chat, a text file or any app. Anyone or anything asking for it is a scam. Restoring a wallet happens only on the device itself. Do not photograph it, take a screenshot or keep it in the cloud.
Fake download pages and fake apps are a known phishing method. Look-alike domains copy the look of the real page. Typing ledger.com yourself, or using a bookmark you saved earlier, removes the ad from the path.
Malware can change an address that you copied. Compare the address and amount on the device screen with what you intended, and reject the transaction if anything differs.
Your crypto is controlled by the keys on your device, so moving the app does not move coins. On the new PC, install Ledger Live from ledger.com, connect the device, enter your PIN and add your accounts again. If you lose the device, a new Ledger device can be set up from your recovery phrase, but that restoration happens on the device itself, never in the app. Ledger Recover is an optional paid service with details on ledger.com. If you forget the optional password lock, reinstall Ledger Live and reconnect the device.
System requirements, supported coins and menus change with releases. Confirm details on ledger.com instead of old tutorials. Device firmware is never downloaded as a separate file; it is installed through Ledger Live in My Ledger by following the prompts on the screen and on the device, without disconnecting during the update.
The installer may need approval from an administrator on a managed PC. Ask the person who manages the computer to help. Do not use modified or “portable” builds from other sites, because they do not come from Ledger.
Do not bypass the warning and do not turn off your security software. Delete the file and download it again only from ledger.com. If it continues, contact Ledger Support through ledger.com.
Type ledger.com yourself and get the app from there. Avoid search ads, mirrors and links sent in chats. If a copy came from anywhere else, delete it.
Unlock the device with your PIN, plug it straight into the PC with a data cable, and try another port. Close other programs that may use the device and restart Ledger Live. There is no separate driver or bridge to install.
Yes. Install Ledger Live on the new PC, connect your device and add the same accounts again. The balances load from the network.
No. Do not reset the device as a test. Check the cable, port and PIN first, and contact Ledger Support through ledger.com if the problem continues.
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"description": "Ledger Live Download for Mac Safe User Guide explains how to obtain the desktop client on an Apple machine, verify its signature and notarization status, and avoid lookalike installers. It covers connection rules, origin checks and the limits of what the software can protect."
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{"@type": "HowToStep", "position": 1, "text": "Save the file to a local folder without opening it."},
{"@type": "HowToStep", "position": 2, "text": "Compare the SHA-256 hash with the value printed on the vendor's site."},
{"@type": "HowToStep", "position": 3, "text": "Inspect the code signature and the team identifier."},
{"@type": "HowToStep", "position": 4, "text": "Confirm the notarization ticket with the system's own tool."},
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Ledger Live Download for Mac Safe User Guide opens with the only rule that decides everything else: take the installer from the publisher’s own domain and check its signature before you open it. Every section below supports that single step. You get the verification procedure, the routes that fail it, the limits of what the software can protect, and the details that shift between releases.
Two things run side by side on an Apple computer: an interface that reads public data, and a hardware signer that holds the keys. The first can be replaced by any convincing lookalike; the second cannot be cloned by software at all. That asymmetry is why origin checks carry more weight here than in an ordinary install.
Set aside twenty minutes, a network you trust, and the device itself. The checks further down this page use only tools that already ship with the operating system.
The application is a front end that holds no private keys. It reads balances from public blockchain data, builds a transaction, and sends it to a connected signer; the signer shows the amount and destination on its own screen, and only then does it sign. Your computer sees addresses and signed payloads, nothing more.
The split is enforced by the device, not by the software, so a modified client cannot quietly approve a payment on its own. When you press send, the payload travels over USB or Bluetooth to the signer, which decodes it and renders the recipient address and amount on its display. You compare what you typed with what that screen shows. If the two differ, the transaction is rejected at that moment, and no amount of tampering on the computer changes the outcome.
A single application bundle goes into the Applications directory, while the client writes its database, cache and logs into a folder inside your home library instead of scattering files across the system. Removing the bundle alone leaves that data behind, which is why a clean reinstall also means deleting the support folder. The bundle carries a code signature and a notarization ticket, and the operating system re-checks that ticket when the app is moved or replaced.
Recent releases ship as universal binaries, so one package runs natively on both Apple silicon and Intel processors; older versions may be Intel-only and lean on the translation layer, which works but slows startup and can disturb USB timing. Check which processor your machine uses in the system information panel before comparing versions. A build that predates your operating system release may install cleanly and then fail at the connection stage rather than at launch.
Anyone holding a hardware signer who tracks several accounts, runs a node, or approves contract interactions should install the desktop build. A phone application handles single transfers, balance checks and price alerts. The dividing line is not money but complexity: the more accounts, networks and records you inspect, the more a large screen and a real keyboard help.
The desktop layout puts every account linked to one device on a single screen and lets you sort by network, while phone builds show them one at a time. Adding a second account of the same asset usually offers a choice of account index, and that choice is easier to audit with a full keyboard and readable address strings in view. Exporting a transaction history to a file is a desktop-only action in most releases, and the file arrives as comma-separated text.
Adding a network that the vendor does not list by default, or interacting with a smart contract, requires the desktop interface in most releases. The signing device still displays a hash rather than decoded contract text on many chains, so you read the parameters in the application window and match them against the screen. That comparison is far harder on a handset, where only one pane is visible at a time.
Device firmware is updated through the application, which pulls the signed image and streams it over the cable. A dropped connection midway through a write can leave the signer in a recovery state that has to be reflashed, and the chance of that rises on an unstable link. Wired connections are the more dependable route during a firmware write; Bluetooth is fine during ordinary transfers.
Only the publisher’s own domain serves the signed, notarized package. Community mirrors, file-sharing reuploads, chat attachments, search advertisements and preinstalled copies all hand you a file whose origin cannot be confirmed. That matters because a modified client can show a different recipient address than the one your signer will eventually approve, and the mismatch is easy to overlook.
The table compares five ways of obtaining the package on an Apple machine against four criteria: what arrives on disk, the main limitation, how strongly you can confirm its origin, and the situations each route suits.
| Route | What arrives | Main limit | Origin check |
|---|---|---|---|
| Publisher’s own site | Notarized disk image signed by the vendor | None beyond trusting your own network | Code signature and notarization ticket |
| Community mirror or reupload | Byte-identical file with no attestation | No chain of custody after upload | Digest compared against the official value |
| Paid search advertisement | Landing page impersonating the vendor | Redirect can change between visits | Hostname spelling and certificate details |
| Chat or email attachment | Package sent by a volunteer or a support account | No verifiable sender identity | None that survives scrutiny |
| Preinstalled on a used computer | Running application with saved account data | Earlier owner may still hold recovery copies | Full erase followed by an independent install |
The first route suits anyone with a working connection and the device at hand, and it is the only route the verification procedure on this page assumes. A mirror suits only the person who already holds a trusted digest from another channel and can compare it. Advertisements and attachments suit nobody: there is no situation where their convenience outweighs the loss of custody. The preinstalled route becomes workable after a full erase and a fresh install taken from the vendor’s own product page.
Notarization attaches a ticket from Apple’s servers to the package, and the operating system validates that ticket at first launch and again after certain replacements. A copied file keeps the ticket, so notarization tells you the archive was signed by a registered developer; it does not tell you that developer is the wallet vendor. The signature’s team identifier is what ties a build to one specific publisher, and that string is the value worth comparing against the one printed on the official page.
Result pages mix paid placements with organic ones, and a paid slot proves only that somebody bought the keyword. Cloning a product page takes an afternoon: layout, screenshots and wording are copied word for word, and only the domain differs. Certificate warnings rarely appear, because short-lived certificates are cheap. Read the hostname to the left of the first slash, and open the address from a bookmark you created yourself rather than from a result listing.
Most failures are environmental: a quarantine flag after a move, a cable that carries power but no data, a background process holding the USB interface, or a system update that resets permissions. None of these are security failures. The real security limit sits elsewhere – a compromised computer can lie about what you see, but it cannot sign without the device.
When a package travels between machines through a transfer tool or a removable drive, the system may attach a quarantine attribute that blocks the first launch behind a generic warning. The message names the file rather than the developer, so it reads like a malfunction. Use the package’s context menu and choose Open, or clear the attribute from a terminal window, then re-confirm that the signature is unchanged before you rely on the result.
Charging cables frequently omit the data lines, so the signer powers on and is never detected. Powered hubs and monitor docks can reorder device enumeration or drop a link midway through a firmware write. Connect the signer straight into a port on the computer, use the cable supplied with the device, and close utilities that claim the same interface, such as backup or phone-management tools.
A tampered machine can swap the recipient address shown in the window while the signer displays the true one, so the signer’s screen remains the only dependable reference. It can also delay a broadcast, hide a transaction from your history, or capture account labels and balances – none of which are secrets, but all of which are useful to an attacker. Recovery words never need to touch a keyboard, and any prompt asking you to type them is hostile.
Pull the disk image from the publisher’s own site, then confirm three things before you double-click: the file’s cryptographic digest matches the published value, the code signature carries the expected team identifier, and the notarization ticket is valid. You need the image file, a terminal window and the official digest listing.
Save the file to a local folder without opening it. Launching the installer mounts the volume and triggers first-launch checks before you have compared anything, and an unfamiliar package should sit untouched until its origin is settled.
Compare the SHA-256 hash with the value printed on the vendor’s site. A single flipped byte changes the whole digest, so a mismatch means the file you hold is not the file the publisher signed, no matter how ordinary it looks.
Inspect the code signature and the team identifier. That identifier is the string tying a build to one specific developer account, and matching it against the official page excludes a package signed by an unrelated party.
Confirm the notarization ticket with the system’s own tool. A valid ticket shows that Apple’s service scanned the build and recorded the developer, while an absent or revoked ticket means the package should not be trusted even if the signature verifies.
Mount the image, drag the bundle across, then eject the volume. Copying rather than running from the mounted disk keeps the application where the system can re-validate it on each launch, and ejecting stops a stale volume from masking a failed copy.
Three things move: the minimum operating system version, the list of supported coins and networks, and the connection method the device uses. Version numbers on the application and on the device firmware advance on separate schedules, so a mismatch is normal. Figures such as storage use and asset counts are published on the official source and change without notice.
The minimum operating system version rises whenever the vendor adopts a new framework, and the change often arrives without a visible feature to justify it. An older machine running the previous release keeps working until a server-side change breaks a network integration. Reading the release notes before an update shows whether your machine is still within scope; the current requirement is listed on the official page.
These two numbers are independent: the application may update weekly while firmware sits unchanged, and firmware can be replaced on a device whose companion application is a year old. Update prompts name whichever component has a newer build, and the settings screen lists both strings. When a connection error appears, checking both numbers first avoids a pointless reinstall.
That claim is accurate about key material and silent about everything else. Balances, account names, transaction history and the addresses you have used all reach the computer, and a modified client can read them. The guarantee covers signing authority alone: no software on the machine can produce a valid signature without a physical confirmation on the device’s own screen.
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Ledger Live Download for Mac Safe User Guide is only as trustworthy as the file it describes, so the first thing to inspect is the signature on the package rather than the version number. Two things decide that: the domain the installer came from and the developer identifier that the Apple operating system validates at first launch. The sections below set out how to confirm both without leaning on a search result, an ad, or a forum mirror.
Distribution runs through a single channel: the maker’s own site, which serves a disk image or an installer package signed with the company’s developer certificate. Apple’s Gatekeeper reads that signature and the notarization ticket at first launch, then refuses anything unsigned. No authentic copy arrives through an aggregator page, a file-sharing link, or a comment thread.
A notarization ticket is Apple’s record that an automated scan of a finished build found no known malicious code. The developer uploads the build, a service scans it, and the resulting ticket can be stapled to the bundle so the check completes without a network request. The ticket says nothing about who wrote the software or whether the address you visited belongs to that author, which is why the developer identifier and the address bar stay part of the same review.
A code signature is a cryptographic seal that ties every executable inside a bundle to one developer identity. Changing a single byte after signing breaks the seal, and the identifier printed during inspection traces back to a certificate issued through an Apple developer account. Two programs with identical names can therefore carry two different identities, and only the identifier, not the name or the icon, tells you which company assembled the copy on your disk.
Third-party catalogs rarely rewrite a program; they wrap it. A stub is placed ahead of the original package, sometimes adding toolbars, browser add-ons, or an extra prompt, while the inner application keeps its valid signature. The signature check therefore passes for the payload although the operator launched the wrapper, which is how a verified inner file ends up carrying unwanted components. The practical consequence: inspect the outermost bundle, since that is what runs first.
The desktop program suits owners who attach a hardware device by cable or Bluetooth, install device-side applications, update firmware, and manage several accounts from one screen. The phone build covers balance checks, transfers, and portfolio review away from a desk. Neither build can move funds without a physical confirmation on the device itself.
Signing a transaction, sending funds, and editing settings on the device all require the hardware present and unlocked. The program can still display balances and history because addresses and amounts sit on public blockchains, but a private key never leaves the secure element, so a prepared transfer waits until its owner approves it on the device screen. Closing the window in the meantime cancels nothing on-chain.
Account lists, price charts, and transaction history are read from public chain data, so they refresh with the device disconnected. This makes the handheld build sufficient when the goal is watching a portfolio or checking that a transfer arrived. The limit is symmetric: anything that writes to a chain, from a simple send to a staking operation, needs the hardware unlocked and physically confirmed, and no view in either build changes that boundary.
Every build states a minimum supported release of the Apple operating system, and that floor moves upward over time, so a machine that ran an earlier version may refuse to launch a current one. The same release notes state which processor families are covered. Installing on an unsupported system usually fails at launch rather than with a clear warning, which sends people looking in the wrong place.
Only the publisher’s own site pairs the installer with the same developer identifier that signs the device-facing software. Mirrors, catalogs, and shared archives either trail the current release, add a wrapper, or carry nothing to compare against. Which route fits depends on what can be checked and what happens when that check fails.
Five acquisition routes are compared below on three points: who signs the code, how much work the confirmation takes, and where the route breaks down. Version strings, file sizes, and supported system releases shift between builds, so those values are read from the publisher’s page at the time of use rather than carried in memory.
| Route | Who signs the code | Effort to confirm | Where it breaks |
|---|---|---|---|
| Publisher’s own site | The same identity that signs the device software | One Terminal inspection of the bundle | Regional blocking can hide the page |
| Sponsored search placement | An unknown party, often a fresh certificate | Manual address typing ahead of any click | Ads mimic the real site cheaply |
| Software catalog portal | A wrapper, while the inner payload stays signed | Inspecting the outer bundle contents | Bundled extras run alongside the program |
| Open-source package cask | A maintainer, not the manufacturer | Reading the recipe script and checksum | Updates lag, and upkeep can stop |
| Chat or file-sharing archive | Nobody verifiable | Nothing dependable to compare | Recovery-phrase theft cannot be undone |
The authentic page is the only route where a failed check carries information, because a known identifier exists to compare against. An open-source cask fits a scripted setup across many machines, but its maintainer decides when a new build lands and may abandon the recipe; treat the vendor’s page as the reference value. Aggregators and shared archives fit nothing, since an unsigned wrapper leaves no baseline, and the loss of a recovery phrase has no remedy.
Repackaging usually leaves the inner program signed and the outer container unsigned. Mounting the image and inspecting the outer bundle returns either an unfamiliar team name or an ad-hoc signature with no authority behind it; comparing that output with the identifier listed in the publisher’s documentation exposes the substitution. A mismatch is a stop signal rather than a warning to weigh, since it shows the container was assembled by a party other than the one named on the page.
A copy can start, recognize the hardware, and show correct balances while still being the wrong build. The reason is that a doctored interface controls what appears on the computer screen, and a receiving address displayed there can differ from the address the device shows during confirmation. Since the device presents the true destination, reading the hardware screen rather than the monitor is the only check that survives a compromised interface.
Three failures repeat often enough to be predictable: a Gatekeeper warning dismissed through a right-click so the program opens anyway, a lookalike address that differs from the genuine one by a hyphen or a single letter, and a request to type the 24-word recovery phrase, which no legitimate process ever makes.
Clearing a Gatekeeper block through the context menu or the privacy settings pane creates a standing exception. That dialog is the only automated judgment that ran on the file, and overriding it converts a stop into an open door: the exception is remembered, so subsequent launches skip the check entirely. Legitimate older utilities sometimes need that route, but a current commercial wallet manager does not, and the presence of the warning is itself the finding.
A lookalike hostname usually copies the real one and adds a hyphen, a plural, or a different top-level suffix. Paying attention at that moment matters because the copied page is designed to look identical, including its layout and its file names, and the only reliable difference sits in the address bar. Saving the verified page as a bookmark once removes the decision from every later visit.
The 24 words are shown once, on the hardware screen, during setup, and they reconstruct every account on any compatible device. No web form, support chat, email, or installation step needs them, because signing happens inside the device and never in software. A request to type or photograph them is a theft attempt, and once they are transmitted the outcome cannot be reversed by any later action.
Confirm three things in order: the address you typed yourself, the version and size published on that page, and the developer identifier that the codesign utility prints on the mounted bundle. Have a browser window, Terminal, and the fetched file ready. The sequence takes a few minutes, needs no account, and can be repeated whenever a new release appears.
Open a new browser window and type the publisher’s domain into the address bar instead of clicking a link. A typed address skips redirects, sponsored placements, and shortened links, which are the three routes a lookalike copy uses to reach a machine.
Retrieve the installer from that page alone and keep it in a single folder you can find again. Mixing two sources removes the ability to compare, because two files sharing a name almost never share a signature.
Write down the version number, file size, and minimum supported system release shown beside the file. Those three values are the baseline the saved item is measured against, and they change with each release, so they are taken from the page itself.
Mount the disk image and run the codesign utility against the application bundle inside it. The output names the signing authority and the team identifier, so an absent signature, an ad-hoc label, or an unfamiliar team points to a build that did not come from that publisher.
Run the spctl assessment tool on the same bundle, then install it and connect the device. Gatekeeper’s verdict reflects the notarization ticket, and after launch every confirmation, including the display of the recovery phrase, should appear on the hardware screen rather than in the window on the computer.
Apple’s notarization service keeps no public index of accepted builds, so nobody outside the two parties can confirm a particular version from Apple’s side alone. Hosting arrangements, redirects, and the build a mirror carries change without notice. Values that move are re-read from the publisher’s page at the time of use, not trusted from an earlier session.
The ticket is checked locally by the operating system rather than listed in a queryable catalog, which leaves two available references: the vendor’s release notes and the signature output on your own machine. Neither is independent of the publisher, and a checksum list is only as current as its last edit. This is a structural limit, not a flaw to work around.
Installer paths change between releases, so a bookmark aimed at a specific file can fail while the landing page stays intact. Saving the page rather than the file keeps later visits short and avoids the reflex of accepting whatever a dead link redirects to. Where a release genuinely moved, the redirect target is worth reading prior to reopening anything.
A checksum published beside a file confirms that a transfer completed without corruption, and it becomes a real test when the copy being measured came from somewhere else. Comparing the published value against a mirror’s copy catches a swapped build; comparing a value against a file taken from the same page proves only that the transfer worked. The official product page remains the reference point in both cases.
Search ads can point to copycat sites. Type ledger.com in the address bar, then go to the download section. The real Mac file is a .dmg named Ledger Live. Check the site certificate and the exact domain before you click. Ledger will not ask for your 24-word recovery phrase during download or setup. If a page asks for it, close the page. For extra safety, bookmark the real download page and use that bookmark next time.
This warning often appears for apps outside the Mac App Store. If you downloaded from ledger.com, open System Settings > Privacy & Security. In the Security section, find the message about Ledger Live and click Open Anyway. You may need to enter your Mac password. Another route: open Finder > Applications, right-click Ledger Live, choose Open, then confirm. Do not turn off Gatekeeper for the whole Mac. After it opens once, the warning should stop for that copy. If it keeps appearing, delete the app and download the .dmg again from ledger.com.
Compare the file’s SHA-256 hash with the one published on Ledger’s official download page, if a hash is listed. Open Terminal and run: shasum -a 256 ~/Downloads/LedgerLive.dmg. The output should match exactly. You can also inspect the app’s code signature after installing: codesign -dv –verbose=4 /Applications/Ledger\ Live.app and spctl -a -vv /Applications/Ledger\ Live.app. A genuine Ledger Live app should show a signature from Ledger SAS. If the hash or signature does not match, do not open the file. Delete it and get a fresh copy from ledger.com.
No. Ledger Live does not need Full Disk Access, Accessibility, Screen Recording, or Input Monitoring. If macOS or the app asks for those, deny the request unless Ledger support has told you otherwise for a specific feature. You may see a Bluetooth prompt when you connect a Ledger Nano X. That permission is for talking to the device. For USB models, you may need to allow the device connection when macOS asks. Keep permissions limited and review them in System Settings > Privacy & Security from time to time.
Assume the file could be harmful. Disconnect from the internet if you already opened it, move the app to Trash, and empty the Trash. Run a malware scan with a trusted tool. Check your browser for strange extensions and remove anything you do not recognize. Change passwords for exchanges and email, using a different device if possible. Most of all, if you typed your 24-word recovery phrase into any app or web page, treat that wallet as exposed. Create a new wallet with a new recovery phrase and move your funds there. Contact Ledger support through ledger.com only.
Type ledger.com/live into your browser and use the link on that page. Do not use search ads, social media links, email links, or downloads from software portals. Pick the macOS version, open the .dmg, and drag Ledger Live into Applications. When you first open it, check that the app name is Ledger Live and that macOS shows it as signed by Ledger SAS. If Ledger lists a SHA-256 checksum for the installer, compare it with the file you downloaded. You can also check the app’s version and release notes on Ledger’s support pages. Ledger Live will never ask for your 24-word recovery phrase on the Mac. It only asks you to confirm actions on the Ledger device. If a Mac app asks for your recovery phrase, close it and delete it. Keep your macOS current and use the official Ledger support site if anything looks wrong.
That warning often appears when an app is not from the Mac App Store or when macOS cannot reach Apple’s notarization service. Do not turn off Gatekeeper for all apps. Confirm you downloaded the file from ledger.com/live. If the warning remains, go to System Settings > Privacy & Security, find the message about Ledger Live, and choose Open Anyway. Only do this after verifying the source. Ledger Live will not ask for your recovery phrase. If you are unsure, delete the file and download it again from Ledger’s site.
Research Notice: This guide uses vendor documentation and platform requirements; confirm current details on the official source before acting.
Install Ledger Live App on Your iOS Device starts with confirming the official publisher, checking compatibility, and pairing only after the hardware wallet shows the same code. The mobile companion links a handset to a hardware wallet so balances and approvals can be reviewed on a small screen while private keys remain offline. This article covers what the software does, who it suits, how alternatives compare, common setup risks, and a verification sequence.
The mobile companion is a bridge between a phone and a hardware wallet: it displays balances, prepares transactions, and relays approvals without exposing private keys. The wallet itself signs, while the phone acts as a screen and network connection. Pairing occurs over an encrypted Bluetooth channel after both sides confirm a code.
Pairing uses Bluetooth Low Energy, which lets the phone and wallet exchange encrypted messages at close range. The companion creates a session key with the hardware wallet, then verifies a short code shown on both screens. If the code differs, the session should be rejected. Range, interference from other wireless hardware, and battery state can interrupt this link, so keep both items near each other during setup.
The companion stores public account data, not the seed phrase or private keys. Public addresses, balances, and transaction history sync from the network so the phone can show portfolio state. Signing rights stay inside the hardware wallet’s secure element. Removing the companion or losing the phone does not move funds, because the seed phrase remains the recovery path.
Transaction approval always happens on the hardware wallet’s screen. The phone prepares a transaction, the wallet displays recipient, amount, and network fee, and the user confirms or rejects on the wallet buttons. Firmware updates may change menu labels or connection behavior, so the companion version and wallet firmware must stay compatible. A mismatch can block signing until one side is updated.
Phone-first users who check balances, send small amounts, or approve transactions away from a computer benefit most. The setup suits quick confirmations, travel, and portfolio monitoring without opening a laptop. Desktop software remains better for large transfers, batch actions, detailed account management, and users who prefer a wired connection or a larger screen.
People who already use a handset for banking, messaging, and two-factor codes often want the same convenience for crypto balances. The mobile companion reduces context switching because the phone handles the network connection while the hardware wallet handles signing. This pattern works well for routine checks and small payments, but it does not remove the need to read every wallet screen before approval.
Travel makes a phone the most available screen, and the companion can show balances without exposing keys in a hotel room or airport. The hardware wallet stays in a bag or pocket and connects only when a transaction needs approval. Public wireless networks still carry metadata, so a trusted connection or mobile data is preferable for syncing account activity.
Desktop programs handle larger workflows such as many accounts, CSV exports, and firmware management with fewer interruptions. A wired connection can be more stable than Bluetooth in offices with heavy wireless traffic. Users who manage significant sums may prefer to keep signing sessions on a dedicated computer and use the phone only for viewing.
The mobile companion sits between a hardware wallet and online services: it shows balances and prepares transactions, but signing stays on the wallet. Desktop software offers deeper management, web dashboards depend on a browser and vendor session, and third-party trackers often use read-only access. Each route differs in setup effort, custody boundary, and best fit.
The table compares setup path, key custody, and best fit across common routes for managing a hardware wallet from a phone or computer.
| Option | Setup path | Key custody | Best fit |
|---|---|---|---|
| Official mobile companion | Pair over Bluetooth after code check | Keys stay in hardware wallet | Phone-first balance checks and approvals |
| Vendor desktop program | Connect by cable to a computer | Keys stay in hardware wallet | Large transfers and detailed account work |
| Web dashboard | Browser login plus hardware wallet approval | Keys stay in hardware wallet when signing locally | Occasional access from borrowed computers |
| Third-party portfolio tracker | Read-only address import | No signing rights | Viewing multiple wallets in one place |
| Exchange-hosted account | Account signup and identity checks | Exchange controls keys | Trading and custody outsourced to a company |
The official companion fits users who want phone-based signing with a hardware wallet and accept Bluetooth. It does not fit those who need batch account operations or wired stability. Desktop software fits complex management but requires a computer. Web dashboards fit occasional checks if the browser and vendor session are trusted. Third-party trackers fit observation only. Exchange accounts fit trading but move custody to a company, which changes risk entirely.
The official companion specializes in quick phone approvals, while the desktop program specializes in depth. The companion’s Bluetooth link is convenient but can drop when the phone moves out of range. The desktop program uses a cable and often exposes more account tools, firmware controls, and export options. Users who sign often should keep both routes available, because a phone-only workflow can become slow when many accounts need attention.
Third-party trackers usually import public addresses and never receive signing rights. They can combine balances from several hardware wallets, exchanges, and software wallets in one view. That convenience comes with a privacy trade-off: the tracker learns which addresses belong together. A read-only tracker cannot move funds, but it can expose a user’s financial map if the service leaks or sells data.
The largest risks are fake listings, rushed pairing, and mishandled recovery phrases. Lookalike software can imitate icons and names while stealing secrets. Bluetooth interruptions can push users to retry carelessly. Storing a seed phrase in photos, notes, or cloud backups creates a permanent exposure that no password can undo.
Fake listings often copy artwork but use a publisher name that differs by one word or character. Checking the publisher against the hardware vendor’s official source blocks most of these attempts. Users should also verify the listing’s support link and privacy policy, because a missing or broken policy is a warning sign. If a listing asks for a seed phrase, it is hostile by design.
Bluetooth pairing can fail when the phone is in a case with metal, the wallet battery is low, or many wireless items crowd the area. Moving both pieces within a few feet and removing interference usually restores the link. Repeated failed attempts can lock the wallet temporarily, so a pause and a fresh code check is safer than rapid retries.
A recovery phrase must never be typed into the companion, a browser, or a note-taking tool. The hardware wallet shows the phrase once during initial setup, and the user writes it on paper or metal offline. Photographs, cloud notes, and password manager entries create copies that survive deletion. Anyone who obtains the phrase can move funds without the hardware wallet.
Verify the publisher, compatibility, permissions, and pairing code before any transaction. Have the hardware wallet, its recovery phrase stored offline, and the phone’s operating system version ready. This sequence confirms the software source and blocks a nearby unauthorized wallet from joining the session.
Open the official source page and locate the current mobile listing. This confirms the publisher before any download.
Confirm the publisher name matches the hardware vendor’s published legal entity. Lookalike listings often copy icons but miss the exact publisher.
Check the compatibility notes for the phone model and operating system version. Older handsets or unsupported system builds can fail during pairing.
Review the permissions requested and disable unnecessary access. The companion needs Bluetooth and network access, not contacts or photos.
Pair only after the hardware wallet screen shows the same connection code as the phone. A matching code blocks an unrelated nearby wallet from joining the session.
Version requirements, regional availability, and support articles shift as vendors update software and regulations. A setup that worked last year can fail after an operating system release or a firmware change. Users often assume a phone backup protects crypto, or that a read-only tracker can sign, or that Bluetooth pairing equals ownership.
Apple’s mobile platform and the hardware wallet firmware both receive updates that can change connection behavior. The companion may require a minimum operating system version, and the wallet may require a minimum firmware release. Checking the official source before updating avoids a mismatch where the phone sees the wallet but cannot sign. Older phones may stop receiving support entirely.
Some features depend on region, account type, or local rules. Exchange connections, buy services, and staking options can appear in one country and not another. A user with a self-custody hardware wallet may see different menu items than a user with only a software account. The official source publishes current coverage, so local assumptions should be checked there.
Support articles and release notes change without notice when vendors patch bugs or rename menus. A screenshot from a blog post may show an older layout that no longer matches the current version. Reading the release notes for the companion and wallet firmware before troubleshooting saves time. If a step in an old guide does not match the screen, stop and confirm the flow on the official source.
{
"@context": "https://schema.org",
"@type": "Article",
"headline": "Install Ledger Live App on Your iOS Device: Check iPhone and iPad Compatibility Before Setup",
"description": "Install Ledger Live App on Your iOS Device requires matching handset model, system version, and free storage. Verify these three items before setup to avoid failed synchronization or blocked signing."
}
{
"@context": "https://schema.org",
"@type": "HowTo",
"name": "How to verify handset compatibility before adding the software?",
"step": [
{"@type": "HowToStep", "text": "Open Settings, tap General, then About, and write down the software version."},
{"@type": "HowToStep", "text": "Return to General, tap iPad Storage or iPhone Storage, and confirm at least 200 MB free."},
{"@type": "HowToStep", "text": "Look up the exact model identifier on the manufacturer's compatibility page."},
{"@type": "HowToStep", "text": "Pair a Bluetooth headset or speaker to confirm the radio works."},
{"@type": "HowToStep", "text": "Navigate to Face ID & Passcode or Touch ID & Passcode and verify biometrics are enrolled."}
]
}
Research Notice: This article explains compatibility checks using publicly documented requirements. Manufacturer support lists and system thresholds can change; confirm current details on the official source before acting.
Install Ledger Live App on Your iOS Device starts with a compatibility audit, not a download. The official companion tool demands specific tablet system and phone firmware versions, along with enough free space for blockchain data. Skipping this check leads to crashes, pairing failures, or an unusable wallet dashboard.
Confirm the handset model, operating system version, and free storage before loading the wallet companion. The current client requires tablet system or phone firmware within a supported range, plus at least 200 MB of free space for basic operation. Older units with limited memory may pair but fail during account synchronization.
The companion suite refuses to launch on firmware older than the vendor’s published minimum. For Apple phones, that floor usually matches the last two major system releases. Tablets need the equivalent tablet system build. When the firmware falls below that line, the program shows an incompatibility warning before any account data loads. Checking the version takes ten seconds in Settings > General > About.
At least 200 MB of free space is needed for the initial setup and blockchain caches. Heavier account histories can push that figure higher. Handsets with 16 GB total capacity often run out of room after system updates. The wallet manager performs best with 2 GB of RAM or more. Insufficient memory causes the interface to freeze during address generation.
Wireless pairing relies on Bluetooth Low Energy, available on iPhone 4S and later, plus iPad 3 and newer. The secure element inside the hardware wallet handles signing keys, not the phone itself. A handset without a modern Bluetooth stack can still connect via cable on some models, but cable support is limited. Check the manufacturer’s accessory list for exact cable compatibility.
Recent iPhone and iPad models with at least 2 GB of RAM and a current system build run the companion without stutter. The iPhone 8 and later, plus iPad Air 3 and iPad 6th generation, meet the typical baseline. Older units may launch the program but drop connections during firmware updates.
Apple phones released from 2017 forward generally include the memory and Bluetooth profile required for stable pairing. The iPhone 8, X, XR, and all later series handle account synchronization without repeated timeouts. The iPhone 7 can work for basic viewing but may fail during multi-account signing. Check the official support page for the latest confirmed list.
iPad tablets need the same memory floor, but their larger screens do not change the underlying requirements. iPad 6th generation, iPad Air 3, and iPad Pro 2018 or newer are commonly cited. Older iPads with 1 GB of RAM often crash when loading transaction history. The tablet’s storage must also have 200 MB free after system updates.
A phone that meets the launch minimum but lacks a secure enclave or modern Bluetooth may pair yet fail at the signing step. Such units can display balances but cannot approve transactions. The companion will show an error after the hardware wallet challenges the handset. In that case, use a desktop computer or a newer tablet instead.
The official companion offers native Bluetooth pairing and local encryption, while browser-based dashboards run inside Safari and rely on WebUSB or WebBLE. A third-party portfolio tracker reads public addresses only. The companion remains the only option for firmware updates and secure transaction signing on Apple phones and tablets.
The comparison below weighs three access routes for managing a hardware wallet from Apple hardware. Criteria include how each method handles signing, its main limit, setup effort, and how to verify compatibility.
| Route | Best for | Main limit | Verification |
|---|---|---|---|
| Official companion | Full account control and firmware updates | Needs recent tablet or phone system | Check official model list |
| Browser-based dashboard | Quick balance checks on a borrowed computer | No native Bluetooth pairing on some tablets | Confirm browser and cable support |
| Third-party portfolio tracker | Read-only history and tax reports | Cannot sign or update firmware | Verify address import method |
| Desktop program | Firmware updates and large screen review | Requires a computer with a cable | Check desktop system requirements |
The official companion fits users who need to move funds or update firmware. Browser dashboards suit temporary balance checks when native pairing fails. Third-party trackers work for accounting but cannot authorize transactions. Exceptions exist: some newer iPads support WebBLE, blurring the line between native and browser routes.
Native pairing uses the tablet’s own Bluetooth stack, which the companion controls directly. Browser bridges pass data through Safari’s WebBLE API, adding a permission prompt and occasional timeouts. For firmware updates, only native pairing is permitted because the process requires a stable, encrypted channel. A browser bridge may drop the connection mid-update, leaving the hardware wallet in recovery mode.
Read-only trackers import public addresses and show balances without any signing ability. They cannot update firmware, approve transactions, or access private keys. This makes them safe for monitoring but useless for moving assets. A user who needs to send funds must switch to the official companion or a desktop program. Verify that the tracker never asks for a seed phrase.
Older handsets often launch the companion but fail during account synchronization, firmware updates, or Bluetooth reconnection. Low free storage below 200 MB blocks the initial database build. Units with 1 GB of RAM may freeze when generating receiving addresses. These limits are hard stops, not slowdowns.
The companion builds a local cache of account histories, which grows with each added wallet. A phone with less than 200 MB free cannot complete that build. The program may loop on a loading screen or quit unexpectedly. Freeing space by deleting photos or other applications can resolve the issue temporarily. Long-term use needs at least 500 MB of headroom.
Apple’s system software mediates access to the secure enclave, which stores biometric permissions. When the firmware falls below the companion’s minimum, that bridge is disabled. The program then refuses to sign transactions even if Bluetooth pairing succeeds. Updating the phone firmware is the only fix, but some older models cannot receive the required build.
Older iPads use Bluetooth 4.0, while newer hardware wallets prefer Bluetooth 5.0 for faster handshakes. The connection may still form, but it drops during multi-step operations. Symptoms include repeated pairing requests and a spinning progress indicator. A wired connection via a camera adapter can bypass the issue on supported tablets.
Verification means checking three items: the operating system build, free storage, and the model’s appearance on the official support list. Have the phone or tablet nearby and open Settings. This procedure takes about two minutes and prevents failed setups, data loss, or a locked hardware wallet.
Open Settings, tap General, then About, and write down the software version. This number determines whether the companion will launch at all, because the program enforces a minimum build.
Return to General, tap iPad Storage or iPhone Storage, and confirm at least 200 MB free. The program needs that space for its initial database, and a full drive causes an immediate crash.
Look up the exact model identifier on the manufacturer’s compatibility page. Marketing names like iPhone 8 can hide regional variants that lack required Bluetooth profiles.
Pair a Bluetooth headset or speaker to confirm the radio works. A failed pairing with any accessory indicates a hardware fault that will also block wallet communication.
Navigate to Face ID & Passcode or Touch ID & Passcode and verify biometrics are enrolled. The companion uses that secure path for transaction approval, and missing enrollment blocks signing.
Apple’s annual system updates can raise the minimum firmware floor, add new Bluetooth requirements, or change background execution rules. The manufacturer publishes updated compatibility lists after each major release. A handset that worked last year may fall below the new threshold. Check the official source before every major system upgrade.
The companion’s minimum tablet system build is set by the manufacturer, not by Apple. A point release like 16.4 can become the new floor if security patches affect Bluetooth. Users who delay updates may find the program refuses to connect. The official support page lists the current floor, and it can change mid-year.
Hardware wallet vendors retire support for older phones and tablets as testing resources shrink. A model that appears today may be removed from the confirmed list in three months. The removal does not brick the hardware wallet, but the companion may stop pairing. Users should archive the support page or subscribe to release notes.
Some regions restrict Bluetooth pairing for financial tools or require additional encryption. The companion may disable wireless signing in those areas while keeping cable support. Apple’s regional firmware builds can also omit certain Bluetooth profiles. Check the manufacturer’s regional notice on the official source before relying on wireless operation.
Not with every model. The iOS app connects to a hardware wallet over Bluetooth. Ledger Nano X, Ledger Stax, and Ledger Flex support Bluetooth. Ledger Nano S and Nano S Plus do not, so they cannot pair with an iPhone through Ledger Live. You can still use those models with Ledger Live on a computer and a USB cable. If you own a Nano S or Nano S Plus, the iPhone app can be installed, but it won’t be able to manage accounts on that device.
The App Store listing shows the exact iOS version required. At the time of writing, many versions need iOS 13.0 or later. That can change, so check the App Store page on your iPhone or iPad before installing. If your device cannot update to the required version, the app will not appear as compatible or will not install. For older iPhones, use Ledger Live on a supported computer instead.
Search for “Ledger Live” and check the developer name. The official app is published by Ledger SAS. If it does not appear, your App Store region may not offer it, or your iPhone may not meet the iOS version requirement. Do not install a random app with a similar name. Also avoid downloading an .ipa file from a website; that can expose your recovery phrase or funds. If the app is unavailable, use the desktop version from Ledger’s website.
Install Ledger Live from the App Store, open it, and choose the option to connect a device. Turn on Bluetooth on the iPhone and on the Ledger Nano X. Unlock the Nano X with your PIN. On the device, open the Bluetooth menu and select Pair. The app should show a code; confirm it on the Ledger screen. If pairing fails, turn Bluetooth off and on, restart the Ledger, and make sure the firmware is up to date. You may need to update firmware with Ledger Live on a computer first.
No, not for spending or verifying addresses. Ledger Live is a companion app; your private keys stay on the Ledger device. On iOS, you can install the app and add accounts only when the compatible Ledger device is connected and unlocked. If you only want to view balances, you might use a watch-only setup for some accounts, but that depends on the app version and account type. Never enter your 24-word recovery phrase into the iPhone app or any website.
Yes. You can download Ledger Live from the App Store and open it without a device connected. The app will show setup steps, but you can skip device pairing until your Ledger arrives. To install, open the App Store, search for “Ledger Live,” check that the developer is Ledger SAS, and tap Get. After installation, create a password or use Face ID for app access. When your hardware wallet arrives, connect it via Bluetooth or cable, then add accounts. Keep your recovery phrase written on paper and stored offline. Never type it into the app or any website. If you buy a used device, reset it first and set a new PIN.
Several reasons can cause this. Your iPhone may run an iOS version below the app’s minimum requirement. Check Settings > General > About to see your iOS version, then update if possible. Another common cause is the App Store region linked to your Apple ID. Ledger Live may not be listed in some countries or regions due to local rules. You can check your Apple ID region in Settings > [your name] > Media & Purchases > View Account > Country/Region. Changing regions is not a quick fix; it can affect subscriptions, payment methods, and store credit. Do not download Ledger Live from third-party sites, sideload it, or use a modified App Store. Those methods can expose your device and funds to malware. If the app is still missing, contact Ledger Support through the official website and ask about availability for your country.
Open the App Store, tap your profile picture, and pull down to refresh the updates list. Find Ledger Live and tap Update. You can also turn on automatic app updates in Settings > App Store. Updating Ledger Live does not require your recovery phrase, so never enter it during an update. The app only needs your device PIN, Face ID, or Touch ID to open. Before any update, confirm your recovery phrase is still written down correctly and stored offline. After the update, open Ledger Live and check that your accounts and balances appear as expected. If the update fails, restart your iPhone, free up storage, and try again. If the App Store shows an error, sign out of your Apple ID and sign back in, or contact Apple Support. Do not delete the app as a first step; deleting it does not delete your crypto, but you may need to add accounts again. If you see a request for your 24-word recovery phrase inside the app or on a website, stop. That is a scam.
Dear Dual Career Friends and Colleagues,
The best of 2025 may revitalize our efforts in support of the dual career of the sportspersons!
International Collaborations
During this year, fruitful partnerships with the European Parliament, the European Commission, the Council of Europe, the International Military Sports Council (CISM), and Sport 4 Impact have been consolidated through the participation in important events. EAS attended the EU Sport Forum 2025 in Krakow, Poland, the 2025 EPAS Council of Europe Annual Meeting of the Governing Board and Consultative Committee in Strasbourg (France), the European Parliament consultations for the EU policies in shaping the European Sport Model and the implementation of the ERASMUS+ Programme for 2028-2034 in Brussels (Belgium). During the 2025 EAS Annual Conference in Riga (Latvia), a Memorandum of Understanding with the European Non-Governmental Sports Organisation (ENGSO) was signed. Finally, EAS has been recognized as an official partner of the European Week of Sport (EWoS).
Participation in International Conferences
Oral presentations and distribution of the projects’ flyers are deemed crucial to disseminate the aims and progresses of European Dual Career to scholars and policy makers. In addition to its 2025 Annual Conference (University of Latvia, Riga, Latvia), EAS was invited to contribute to the conference of the ERASMUS+Sport SAMEurope project (INSA Lyon, France), the Italian Scientific Society of Movement and Sports (SISMES, Parma, Italy), the Polish University Sport Conference (Warsaw, Poland), and the First International Symposium on Mentoring for High-Performance Student-Athletes (Universidade da Coruña, Spain). Finally, the EAS President, Laura Capranica, received a Recognition Plaque from the Brazilian Association of Dual Career for the EAS commitment to the advancement of dual career at international level.
Virtual EAS Cafè
In 2025, EAS organized five successful virtual cafes with experts and testimonials related to “From talent identification to talent support”, “Sport Innovation: Promoting employability of student-athletes and sport professionals”, “Dual Career Mentors and Mentees getting ready for the next academic year”, “Celebrating the 10th anniversary of the #BeActive programme and the 2025 European Week of Sport (EWoS) ”, “XXI century skills as a bridge between sport and employability”. Other interesting topics will be scheduled in spring, summer, fall, and winter 2026.
Finalized EU-funded ERASMUS+Sport Collaborative Partnership
DC Mentor (101132309), the Collaborative Partnership coordinated by Sports Tech Consulting Education Tourism Organization Trade Limited Company (Turkeye) aimed to Advancing Athlete Employability through Career Mentorship and Education. The project designed “Life and Future Skills Training Modules”, “Life and Future Skills Curriculum for Elite Athletes”, the “Self-Assessment Toolkit”, and the “Athlete Career Mentorship Platform”. Further information is available at https://dcmentor.eu
Smart Start for DC (101133555), the Collaborative Partnership coordinated by Sportsko Uciliste PESG (Croatia) aimed to empower young athletes with XXI century transferable skills. The project developed an online platform for youth athletes and educators to support a balanced sport with education commitment. The platform offers interactive MOOC courses, tools for identifying personal strengths, and engaging, gamified content tailored to young athletes. The platform and project resources are available at ss4dc.eu and more information is accessible by following the project Facebook at https://www.facebook.com/profile.php?id=61556732943039, and the YouTube videos at https://www.youtube.com/@smartstartfordc
TALENT (101090147), the Collaborative Partnership coordinated by the Uciliste Centar Izvrsnosti Splitsko-Dalmatinske Zupanije Ustanova Za Obrazovanje Odraslih (Croatia) developed a cloud-based education for creative sport talents, a New Methodology Handbook in Talent Detection in Sport, and Practical Recommendations Published for Coaches, Parents, Teachers, Sports Clubs and Decision Makers. The findings of the research have been published in scientific journals. The 6-hour TALENT Training Course is designed specifically for schoolteachers to help them recognising and supporting talented kids. Teaching materials are available on the E-STOP platform at https://talent-edu.eu.
Ongoing EU-funded ERASMUS+Sport Collaborative Partnership
DiscoverU (101134052), the Collaborative Partnership coordinated by EUSA (Slovenia) aims to enhance university sport and qualifications of elite athletes for preparing them to the labour market. The project organized Power up Workshops for Elite Athletes, events and webinars and entered its third year. Further information is available at https://discoveru.eusa.eu
Find Me (101134043), the Collaborative Partnership coordinated by the University of Nis aims to structure an evidence-based European user-friendly platform specifically tailored for dual career at university level. The findings of the research have been published in scientific journals. Entering its third year, in January 2026 European universities will be invited to provide relevant information to populate the Find Me platform. Further information will be available at https://findmeproject.eu.
FOCUS: Dual Career Co-Creation (101243801), the Collaborative Partnership coordinated by the NYSA SWEDEN AB aims to establish an innovative and scalable Dual Career framework, ensuring elite football players can successfully transition to professional football while maintaining educational and career opportunities. The project outcomes will encompass practical toolkits, policy guidelines, and a scalable Dual Career model, integrating sport and education to foster athlete success beyond the playing field.
Give Sport a Say (101253838), the Citizens, Equality, Rights and Values (CERV) Programme project coordinated by the Organizzazione Per l’Educazione allo Sport (OPES) aims to inform citizens about the EU decision-making process, the promotion of democracy and human rights in and through sports, as well as the collection of ideas on the future of the EU by integrating some activities into the regular events of the consortium partners.

Funded by the European Union. Views and opinions expressed are however those of the author(s) only and do not necessarily reflect those of the European Union or the European Education and Culture Executive Agency (EACEA). Neither the European Union nor EACEA can be held responsible for them.
2026 EAS Membership
To reassert our support to the dual career sportspersons, we shall renew our determination, passion, and dedication by inspiring new members of the EAS family and by renewing our institutional 2026 EAS membership through the link http://www.dualcareer.eu/membership/.
2026 Bengt Nybelius Scholarship
Researchers up to 40 years of age are invited to participate in the call of papers for the Bengt Nybelius Scholarship (deadline: July 1, 2026). Further information is available at https://www.dualcareer.eu/call-for-papers-bengt-nybelius-scholarship-2025/
2026 EAS Conference: Save the date
Next October 5-7, 2026, the 2026 EAS Annual Conference will be held in in Oulu (Finland). This event is a crucial opportunity to inform on the advancements of dual career policies and provisions at local, regional, and national levels, to share the outcomes of EU-funded projects, to award innovative research by the Bengt Nybelius Scholarship, and to participate to the elections of the EAS President and Executive Board Members for 2027-2030 period (https://www.dualcareer.eu/call-for-papers-bengt-nybelius-scholarship-2025/).
On behalf of the Executive Board of EAS, I wish you and your beloved ones merry, bright, and regenerating holidays.
Prof. Laura Capranica,
EAS President
On December 11–12, 2025 the EAS Board Members Dr. Antonio Figueiredo and dr. Antonio Sánchez Pato actively participated in the I International Symposium on Mentoring for High-Performance Student-Athletes, held on 11–12 December 2025 at the Faculty of Sport Sciences and Physical Education in A Coruña (Spain). This event represented the first international symposium of its kind held in Spain and was organised by the Universidad Internacional de La Rioja (UNIR) and the Universidade da Coruña (UDC), funded by the Spanish Higher Sports Council (CSD), and auspiced by the University Network for Dual Career Mentoring (RUMDE). This Network is endorsed by EAS.
The symposium was conceived as an academic and scientific forum dedicated to the analysis, development and dissemination of mentoring models supporting the dual careers of high-performance student-athletes in higher education. It brought together international researchers, university representatives and sport-related stakeholders to exchange knowledge, present research evidence and discuss institutional strategies aimed at improving academic support, mentoring structures and long-term career development for student-athletes across Europe.
Dr. Antonio Figueiredo contributed his recognised international expertise in talent development, dual career transitions and programme evaluation, engaging in comparative analyses of European mentoring models and participating in strategic discussions on improving institutional frameworks and sport policies supporting high-performance student-athletes across different national and organisational contexts.

Dr. Antonio Sánchez Pato contributed through scientific coordination, academic leadership and conceptual input, particularly in relation to the design and consolidation of inter-university mentoring networks for high-performance student-athletes. His participation focused on presenting and discussing research-based evidence derived from structured mentoring initiatives, emphasising educational quality, ethical mentoring practices and the holistic development of student-athletes.

The joint participation of both EAS Board Members ensured strong alignment with the mission and strategic objectives of the EAS, particularly regarding the promotion of evidence-based dual career policies, the advancement of mentoring as a key support mechanism, international academic cooperation and knowledge exchange, and the integration of research, education and sport governance in Europe.
In fact, the symposium contributed to strengthening international research and professional networks, enhancing cooperation between universities and sport organisations, and establishing mentoring as a central component for supporting high-performance student-athletes’ academic success, personal development and long-term career sustainability, fully consistent with the values and priorities of the EAS.