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Horarios de exámenes Segundo Turno

Horario de Exámenes Recuperatorios y finales 2do. Turno – Año Lectivo 2025

DERECHO – PRESENCIAL – PILAR – RECUPERATORIO DESCARGAR
DERECHO – PRESENCIAL – PILAR – FINAL DESCARGAR
TRABAJO SOCIAL – PRESENCIAL RECUPERATORIO DESCARGAR
TRABAJO SOCIAL – PRESENCIAL FINAL DESCARGAR
NOTARIADO – PRESENCIAL – RECUPERATORIO DESCARGAR
NOTARIADO – PRESENCIAL – FINAL DESCARGAR

Horario de Exámenes Recuperatorios y Finales 2do Turno  – Año Lectivo 2025

DERECHO – RECUPERATORIO – SAN IGNACIO DESCARGAR
DERECHO – FINAL – SAN IGNACIO DESCARGAR
DERECHO – RECUPERATORIO – AYOLAS DESCARGAR
DERECHO – FINAL – AYOLAS DESCARGAR
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Otras Actividades

SE CONVOCA A CONCURSO ORDINARIO DE TÍTULOS, MÉRITOS Y APTITUDES PARA PROFESOR ENCARGADO DE CATEDRA EN LA FACULTAD DE DERECHO, CIENCIAS POLÍTICAS Y SOCIALES DE LA UNIVERSIDAD NACIONAL DE PILAR

Se convoca a Concurso de Títulos, Méritos y Aptitudes, para cubrir cátedras
vacantes en la carrera de Derecho, modalidad presencial, categoría ENCARGADO DE CATEDRA, antigüedad desde el 01 de enero 2026 y, hasta el 31 de diciembre del año 2026; Sede Pilar.

Concurso de Méritos y Aptitudes

Resolución Nº 905/2025, categoría Encargado de Cátedra – Sede PilarDESCARGAR
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Why multi-chain support, transaction simulation, and WalletConnect matter — and where they still fail you

Most seasoned DeFi users assume that a «multi-chain» wallet simply means you can hold tokens on many networks. That’s the misconception I want to correct immediately: multi-chain in practice is an orchestration problem — routing approvals, paying gas, switching networks automatically, and exposing fewer attack surfaces while preserving composability. For experienced US-based DeFi users focused on security, these operational details determine whether a wallet is a productivity booster or an additional point of failure.

This commentary unpacks three capabilities that have become table stakes — multi-chain support, transaction simulation, and WalletConnect connectivity — and explains how they work together, where they materially improve security and UX, and where they introduce trade-offs or unresolved risks. I use Rabby Wallet’s current feature set as a concrete, evidence-grounded reference because its design choices illuminate the trade-offs experienced users care about: local key storage, risk scanning, gas-account flexibility, approval management, and integration options such as hardware wallets and MetaMask compatibility.

Rabby Wallet logo; useful visual reference for a multi-chain, security-first DeFi wallet

How multi-chain support really works (not just a bucket of chains)

At a technical level, «supporting many EVM-compatible chains» primarily means two things: the wallet maintains RPC endpoints and chain metadata for each network, and the UI and signing logic can route a transaction to the correct chain without user error. Rabby supports 100+ EVM-compatible blockchains and can auto-switch to the chain a dApp expects — that automation is the crucial convenience layer. Without it, users are repeatedly exposed to chain-mismatch mistakes (signing a token transfer on the wrong network) that lead to lost funds or stuck transactions.

But the operational complexity goes deeper. Multi-chain wallets must also reconcile identity (your single private key or HD wallet) with differing token contract addresses, gas-token conventions, and bridge semantics. Rabby mitigates parts of this burden with a unified portfolio dashboard that detects tokens, LP positions, and NFTs across chains — a practical time-saver when you manage capital in more than one layer.

Mechanism-level trade-off: multi-chain automation reduces user friction but increases the wallet’s reliance on accurate RPC configuration and on-chain heuristics. If a chain’s RPC provider lies, is censored, or is misconfigured, the wallet’s ability to display balances or simulate transactions will be degraded. That is not a theoretical concern — degraded RPCs happen during network congestions and outages. The sensible mitigation is layered: support multiple RPC endpoints, let advanced users override defaults, and surface RPC health to users. Rabby’s broad platform availability and auto-switching are helpful, but users should still verify critical endpoints when moving large sums.

Transaction simulation: what it is and why it matters

Transaction simulation is often presented as a simple preview: «See what will happen to your balances before you sign.» In practice it’s a small emulator that runs the intended call(s) off-chain against the latest state, returning estimated token deltas, gas estimates, and potential revert reasons. Rabby’s built-in pre-confirmation simulation shows estimated token balance changes — not just the basic call data — which helps users spot unexpected transfers, slippage, or approvals encoded into complex DeFi interactions.

Why this matters for security: simulations can reveal malicious payloads that are not obvious from the UI of a dApp. For example, a confirm dialog may say «Swap 0.5 ETH for USDC,» but an attached callback in a router contract could drain another token. A risk scanning engine layered with simulation (Rabby integrates a scanner that warns about malicious payloads and previously hacked contracts) increases the chance of catching such anomalies before a signature is produced.

Limits and caveats: simulation is a snapshot, not a guarantee. It runs against the node’s current state and cannot predict race conditions, MEV sandwiching, or front-running attacks that will happen after submission. It also depends on accurate on-chain state — delayed or stale RPC responses can produce misleading simulations. Therefore, treat simulation as a probabilistic guardrail, not an oracle of truth. If you’re moving large positions, consider adding time-locked steps, smaller test transactions, or hardware wallet confirmations as secondary checks.

WalletConnect for cross-device and dApp connectivity: benefits and security contexts

WalletConnect acts as a transport layer that lets mobile wallets and non-browser apps sign transactions without exposing a raw private key to the dApp. It keeps the private key local while enabling remote dApp interactions. For power users who run complex workflows across mobile and desktop, WalletConnect is invaluable: you can initiate a trade on a desktop dApp and sign on a secure mobile wallet or hardware-backed mobile client.

However, WalletConnect introduces an attack surface of its own: session hijacking, malicious pairing QR codes, and permission creep in long-lived sessions. Rabby’s architecture of local key storage and hardware wallet integration reduces risk by making signing decisions explicit and by letting users revoke sessions or approvals when needed. The revoke/approval management functionality is especially relevant; if a WalletConnect session grants persistent approvals, the built-in revoke feature lets users cancel token allowances without hunting through each protocol’s UI — a practical security control.

Gas-account innovation: why paying gas with stablecoins changes the UX and risks

Traditionally, users must hold the native chain token (ETH on Ethereum, BNB on BSC) to pay gas. This friction matters: users working cross-chain may have tokens on-chain but not the native gas token handy. Rabby’s Gas Account lets users top up gas fees with stablecoins like USDC and USDT — a meaningful UX improvement that reduces the need for juggling native tokens across networks.

But it’s not magic: behind the scenes, a relayer or meta-transaction system is converting stablecoins into native gas or forwarding transactions with sponsored miners. That introduces third-party trust: who manages the relayer, what economic guarantees exist, and how are fees priced? Rabby mitigates this by making gas-account usage explicit and by keeping signing local, but users should recognize the trade-off: convenience vs. introducing an external fee-routing component. For high-value transactions, the safest path remains paying native gas from a wallet you control or using hardware-backed signing to reduce exposure.

The security stack: where Rabby helps and where users must remain vigilant

Rabby’s security posture combines several defensive elements that experienced DeFi users will appreciate: local encrypted key storage, SlowMist audit of its security architecture, open-source MIT-licensed code, integrated risk scanning, hardware wallet support, and granular approval management. Together these form a layered defense model that reduces single points of failure.

But no wallet eliminates risk entirely. Key boundary conditions to remember: Rabby currently lacks a native fiat on-ramp, so users must acquire crypto on external exchanges and move funds into the wallet — an extra step that increases exposure to exchange custody and withdrawal errors. Simulations cannot foresee post-signature on-chain events (MEV, oracle manipulations), and automated chain-switching depends on accurate dApp metadata. Finally, any centralized relayer used for gas-account services introduces third-party risk even when the private key never leaves the device.

Decision-useful heuristics: a quick framework for action

When should you trust multi-chain automation and simulations, and when should you impose manual controls? Use this simple rubric:

– Small routine interactions (low-dollar swaps, regular portfolio rebalances): rely on automation and simulation. The convenience gains outweigh the marginal risk.

– Complex composable transactions (multi-hop swaps, bridge + stake flows, approval-heavy interactions): require extra checks — verify simulated token deltas, confirm contract addresses on Etherscan, and if possible, use a hardware wallet.

– Large-value moves or long-lived approvals: always split into smaller steps, simulate each step, and revoke unneeded approvals immediately. Make use of the wallet’s revoke/approval management features to reduce lingering exposure.

What to watch next — conditional signals and practical implications

Three signals will matter in the coming 12–24 months for how useful these features are. First, the proliferation of EVM-compatible chains will keep increasing the need for robust RPC management and cross-chain standards; wallets that expose RPC health and let users choose endpoints will win trust among power users. Second, meta-transaction infrastructures and gas-account services will become more common — watch for transparency about who operates relayers and what economic guarantees they offer. Third, richer simulation tooling that models common MEV vectors or uses mempool-aware heuristics could materially raise the value of pre-confirmation features; until then, simulation remains an imperfect but valuable guardrail.

If you want a security-first wallet with these trade-offs transparently surfaced, explore Rabby Wallet in more detail and test its feature set for yourself: rabby wallet official site.

FAQ

Q: Can transaction simulation prevent all smart-contract exploits?

A: No. Simulation helps reveal unexpected token movements and revert reasons before signing, but it is a stateful snapshot. It cannot predict actions that depend on future mempool dynamics, miner behavior, or off-chain oracle changes. Treat simulation as a preventative tool—one layer in a multi-layer security approach.

Q: Is paying gas with stablecoins safe?

A: It is convenient but introduces a different class of risk — dependency on a relayer or meta-transaction provider that converts stablecoins to native gas. The private key still signs locally, but the relayer handles submission and likely takes a fee. For high-value transactions, paying native gas from your own wallet or using trusted custodial arrangements reduces this third-party exposure.

Q: How should I manage approvals across many chains?

A: Use revoke features to regularly prune allowances, keep short-lived approvals for complex flows, and monitor approvals via a unified dashboard. Rabby’s revoke functionality and portfolio detection make this practical; still, habitually revoking approvals after completing a protocol interaction is the strongest behavioral defense.

Q: Does auto-switching between Rabby and MetaMask mean the wallets share keys?

A: No. The ‘Flip’ feature changes which browser extension is the active UI but does not inherently move or duplicate private keys. However, any time you import or expose seed phrases across multiple clients you increase risk. Prefer hardware-backed keys and keep seed material offline.

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CONCURSO DOCENTES Concursos de Títulos, Méritos y Aptitudes Derecho Presencial Pilar EAD Otras Actividades Resoluciones

SE CONVOCA A CONCURSO DE TÍTULOS, MÉRITOS Y APTITUDES PARA CARGOS DOCENTES EN LA FACULTAD DE DERECHO, CIENCIAS POLÍTICAS Y SOCIALES DE LA UNIVERSIDAD NACIONAL DE PILAR

Se convoca a Concurso de Títulos, Méritos y Aptitudes, para cargos docentes en la Categoría de Profesor Encargado de Cátedra, Profesor Asistente y Profesor Adjunto, y se dispone integrar el Tribunal Evaluador en la Facultad de Derecho, Ciencias Políticas y Sociales de la Universidad Nacional de Pilar.

Concurso de Méritos y Aptitudes

Resolución Nº 807/2025, categoría Adjunto – Sede Pilar DESCARGAR
Resolución Nº 808/2025, categoría Asistente – Sede Pilar DESCARGAR
Resolución Nº 809/2025, categoría Encargado  y Asistente – Sede Pilar DESCARGAR
Resolución Nº 810/2025, categoría Encargado – Sede Pilar DESCARGAR
Resolución Nº 811/2025, categoría Asistente y Adjunto – Aula Ayolas DESCARGAR
Resolución Nº 812/2025, categoría Asistente y Adjunto – Aula San Ignacio DESCARGAR
Resolución Nº 813/2025, categoría Encargado – Aula San Ignacio DESCARGAR

Documentos para Concurso de Méritos y Aptitudes

Estatuto UNP DESCARGAR
Reglamento Concurso Docente DESCARGAR
          Resolución N° 59/2020 DESCARGAR
          Resolución N° 117/2023 DESCARGAR
Regalmento de Perfil Docente, Resolución N° 92/2023 DESCARGAR
Regalmento de Perfil Docente , Resolución N° 820/2025 DESCARGAR
Regalmento de Perfil Docente , Resolución N° 821/2025 DESCARGAR
Curriculum Normalizado Docente DESCARGAR
Solicitud Concurso Docente DESCARGAR
Condición para Docentes EAD DESCARGAR
 

Tener por presente, la Resolución Nº 23/2024- Consejo Superior de la Universidad Nacional de Pilar “POR LA CUAL SE APRUEBAN LOS ARANCELES EDUCATIVOS PARA EL EJERCICIO FISCAL 2025”.-

Constancia Desempeño Docente – Auxiliar 100.000.-
Constancia Desempeño Docente – Encargado de Catedra 250.000.-
Constancia Desempeño Docente – Asistente 300.000.-
Concurso Profesor – Encargado de Catedra 350.000.-
Concurso Profesor – Asistente 500.000.-
Concurso Profesor – Adjunto 600.000.-
 
CONVOCATORIA, y RECEPCIÓN de carpetas, a partir del día, lunes 20 de octubre del cte. año, y hasta el 31 de octubre del 2025, en el horario de 08:00hs a 12:00hs., en Secretaría, sito en Palma y Tacuary.
 
LOCAL DE NOTIFICACIÓN AUTOMÁTICA, en Secretaría de la FDCPyS., sito en Palma y Tacuary, de 08:00hs a 12:00hs.
 
PONER A DISPOSICIÓN de los interesados las condiciones, listas de asignaturas en concurso y horario académico inamovible, conforme al visto y considerando de la presente resolución.

TENER POR PRESENTE, que la página oficial de la Facultad de Derecho, Ciencias Políticas y Sociales, constituye el medio oficial de publicación institucional.
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Día Mundial de la Salud Mental – 10 de octubre

Cada 10 de octubre se conmemora el Día Mundial de la Salud Mental, establecido en 1992 por la Federación Mundial para la Salud Mental y respaldado por la Organización Mundial de la Salud (OMS). Esta fecha busca promover la conciencia, el diálogo y la acción en torno al bienestar psíquico como parte integral de la salud y el desarrollo humano.

La salud mental constituye un derecho humano esencial, cuyo reconocimiento implica garantizar el acceso equitativo a la prevención, atención y acompañamiento, especialmente en contextos de vulnerabilidad y crisis.

Desde la Facultad de Derecho, Ciencias Políticas y Sociales de la Universidad Nacional de Pilar, reafirmamos nuestro compromiso institucional con la promoción de políticas, valores y prácticas que fortalezcan el respeto a la dignidad humana y el bienestar integral de las personas.

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Horarios de Exámenes Recuperatorios y Finales Primer Turno

Resoluciones por la cual se aprueban fechas y horarios de examenes recuperatorios y finales 1ra mesa en la Facultad de Derecho, Ciencias Políticas y Sociales de la Universidad Nacional de Pilar

 

Horario de Exámenes Recuperatorios y finales 1er. Turno – Año Lectivo 2025

DERECHO – PRESENCIAL – PILAR – RECUPERATORIO DESCARGAR
DERECHO – PRESENCIAL – PILAR – FINAL DESCARGAR
TRABAJO SOCIAL – PRESENCIAL RECUPERATORIO DESCARGAR
TRABAJO SOCIAL – PRESENCIAL FINAL DESCARGAR
NOTARIADO – PRESENCIAL – RECUPERATORIO DESCARGAR
NOTARIADO – PRESENCIAL – FINAL DESCARGAR

 

 

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POR LA CUAL SE CONVOCA A CONCURSO ABREVIADO DE TITULOS, MERITOS YAPTITUDES PARA PROFESOR ENCARGADO DE CATEDRA DE LA FACULTAD DE DERECHO,CIENCIAS POLÍTICAS Y SOCIALES DE LA UNIVERSIDAD NACIONAL DE PILAR, Y SEINTEGRA EL TRIBUNAL- SEDE PILAR

CONSIDERANDO:
La necesidad de convocar a concurso abreviado de Títulos, Méritos y Aptitudes en la carrera de Derecho,
modalidad a distancia de la Facultad de Derecho, Ciencias Políticas y Sociales de la U.N.P, en la categoría de
Profesor Encargado de Cátedra, Sede Pilar

Descargar Resolución

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When privacy is the point: choosing and using a Monero wallet in the US

Imagine you’ve just sold a small freelance project and want to convert the proceeds into Monero (XMR) because you value financial privacy. You open your browser, read a few forum posts, and get a twinge of worry: wallet security, custody, regulatory scrutiny, exchange leaks, and the awkward question of how to prove a payment if you need to. That set of practical anxieties—protecting funds, preserving anonymity, and staying operationally sane inside U.S. legal and internet infrastructure—is where technology meets human judgment. This essay walks through the mechanisms that actually deliver Monero’s privacy, the trade-offs when picking a private crypto wallet, the attack surfaces you should manage, and a short checklist you can reuse the next time you move coins.

Short version for impatient readers: Monero’s privacy rests on protocol-layer cryptography (ring signatures, stealth addresses, and confidential transactions). A wallet is the gatekeeper to those features, but not all wallets expose the same security model or operational practices. Your decisions about custody, keys, network connectivity, and software verification typically matter more than minor UI differences. Below I explain why, where defenses fail, and how to make defensible choices in the U.S. context.

How Monero’s privacy works — the mechanism, not the slogan

Privacy in Monero is engineered, not optional. Three core mechanisms combine to hide who paid whom and how much: ring signatures obfuscate the sender by mixing real inputs with decoys; stealth addresses hide the recipient by generating one-time addresses for each payment; and confidential transactions (RingCT) hide amounts. Think of it like a privacy machine with three moving parts: each increases uncertainty for an observer, and the combination creates multiplicative—not just additive—uncertainty.

Important nuance: these features operate at the protocol layer on the blockchain level. A wallet’s job is to correctly construct and sign transactions that use those primitives, to manage keys and seeds, and to interact with the network safely. If a wallet mishandles a seed, leaks metadata by querying a remote node without precautions, or uses an unverified binary, the protocol’s protections can be compromised in practice. So «Monero is private» is true as a protocol claim; «my funds are private» is a compound claim that depends on wallet and user behavior.

Wallet types and the custody security spectrum

Not all Monero wallets are equal in threat model or convenience. Broadly, you will choose among full-node wallets, light wallets, hardware-supported wallets, and custodial services. Each has a different balance of privacy, convenience, and attack surface.

– Full-node wallets (you run a Monero node locally): best privacy and trust-minimization. Your node validates blocks and holds the blockchain locally. Network-level metadata is minimized because you broadcast and receive through your own node. Downsides: disk space, bandwidth, and a steeper setup.

– Light wallets (use remote nodes or SPV-like helpers): convenient and lower resource use, but they reveal which addresses you’re interested in to the remote node operator unless you use privacy-preserving bridging (e.g., proxying through Tor or using trusted remote nodes). A light wallet can be acceptable if you control the node or operate it via a private relay.

– Hardware wallet + Monero software: hardware devices store keys offline and sign transactions inside a tamper-resistant module. This reduces theft risk from host compromise. However, the host software and node connectivity still matter for metadata leaks and transaction construction; hardware wallets don’t eliminate the need for careful node and software choices.

– Custodial services and hosted wallets: the convenience is high, and often the perceived anonymity is low because the service holds keys and often logs KYC. If privacy is the primary goal, custodial solutions are generally the wrong fit unless you have no alternative for liquidity and understand they introduce significant counterparty risk.

Attack surfaces and realistic risks to manage

Consider three concentric risk layers: keys, network metadata, and software integrity. Each invites different mitigations.

– Keys (custody): If your seed or private keys leak, the cryptography is moot. Protect seeds offline, prefer hardware signing when possible, and use passphrase-protected deterministic seeds if supported. In the U.S., physical security and clear recovery processes matter—losing a seed is often final.

– Network metadata: Even with RingCT and stealth addresses, the timing and pattern of transactions can leak. Remote node operators can see which wallet queries correspond to which accounts; ISPs and on-path observers can correlate IPs to transaction broadcasts. Mitigations: run a local node, use Tor or VPNs that you control, or use trusted remote nodes with minimal logging. Remember: Tor reduces network-level linking but doesn’t alter on-chain cryptographic protections.

– Software integrity: Malicious or tampered wallet binaries can exfiltrate seeds or sign fraudulent transactions. Always verify signatures where possible, use reproducible builds when available, and prefer open-source projects with active review communities. Beware of fake apps in app stores and phishing downloads.

Trade-offs you actually face in the U.S. environment

The U.S. context adds practical constraints. Banks and exchanges operate under compliance regimes; KYC/AML requirements mean the «easiest» way to acquire XMR often involves an exchange, as noted recently in Monero project guidance. That introduces a trade-off: liquidity and fiat on-ramp convenience vs. privacy and counterparty exposure. If you buy XMR on an exchange, consider mixing that with operational hygiene: withdraw to a wallet you control, consolidate or split funds deliberately, and never reuse subaddresses in ways that correlate transactions unnecessarily.

Another trade-off is between running a full node (best privacy) and using a light wallet for mobility and simplicity. A full node reduces trust but requires resources; a light wallet requires trust in its remote node unless you obfuscate metadata via Tor. Choose based on your threat model: are you mainly defending against casual blockchain analysis, or are you concerned about state-level profiling? The latter pushes you toward full-node plus hardware wallet plus network-layer anonymity.

Common misconceptions and one sharper distinction

Misconception: «If I use Monero, my transactions can never be traced.» Nuance: Monero’s protocol makes tracing hard, but humans make mistakes. Reusing exchanges, revealing identities when cashing out, or leaking IP addresses during broadcasts all create traceability vectors outside the blockchain cryptography.

Sharper distinction: privacy vs. fungibility. Privacy features protect transaction details; fungibility means each unit of currency is interchangeable. Monero’s privacy design supports fungibility by preventing taint analysis. But fungibility in practice also depends on off-chain practices—exchange policies, regulatory pressures, and whether counterparties refuse XMR due to compliance concerns. So technological fungibility is necessary but not always sufficient for economic fungibility.

Practical checklist: operational discipline for Monero users

Use this heuristic when you move XMR: Control > OpSec > Convenience. Translate into actions:

– Prefer wallets that let you run or connect to your own node. If you must use a remote node, route traffic through Tor and avoid revealing wallet RPC requests to unknown hosts.

– Keep seeds offline. Use hardware wallets for routine holdings. Test recovery on a separate device before you need it for real.

– Verify wallet binaries and update from official channels. Malware that exfiltrates seeds will bypass protocol privacy.

– When acquiring XMR in the U.S., understand that most fiat on-ramps require exchanges. Withdraw to your self-custodial wallet as soon as practical; avoid leaving funds custodial if privacy is the goal.

– Avoid patterns that deanonymize: repeated transfers between the same addresses, clear timing correlations to public events, and announcing your addresses publicly.

What to watch next — conditional scenarios, not predictions

Two conditional scenarios are plausible and worth monitoring. First, increased regulatory scrutiny in the U.S. could lead more on-ramps to restrict or flag XMR transactions—this would not break Monero’s cryptography but could shrink liquidity and increase reliance on peer-to-peer channels. Second, improvements in wallet UX and node-lighting techniques (privacy-preserving bridges, better Tor integration) could materially reduce operational friction, making strong privacy practices accessible to a wider audience. Both are plausible; which arrives faster depends on regulatory signals and developer effort.

For practical resources and an entry point to wallets that respect Monero’s privacy model, a helpful place to begin is the official project and wallet resources. One such resource is available here: https://sites.google.com/xmrwallet.cfd/xmrwallet-official/.

FAQ

Q: If I use a hardware wallet, do I still need to run a node?

A: Yes, in the sense that hardware protects keys but not network metadata. A hardware device secures signing; your node (or the remote node you trust) is still the source of blockchain data and the broadcaster of transactions. For best privacy, pair a hardware wallet with a node you control or a trusted, privacy-aware remote node routed over Tor.

Q: Can I remain private while using exchanges to buy XMR in the U.S.?

A: You can reduce but not eliminate exposure. Exchanges typically require KYC, so your purchase will be linked to an identity at that stage. Minimize linkability by withdrawing to your self-custodial wallet promptly, avoiding address reuse, and using privacy-conscious operational practices thereafter. If absolute anonymity is required, fiat-to-XMR paths will be more complex and often riskier.

Q: Are Monero transactions illegal in the U.S.?

A: No—using privacy-preserving tools is not per se illegal. Illegal behavior remains illegal irrespective of payment method. That said, privacy coins attract heightened regulatory attention and some services restrict them, so expect friction with mainstream on-ramps and custodial platforms.

Q: How do I test my recovery process?

A: Practice. Create a small test wallet on a secondary device, back up the seed, wipe the device, and perform a full restore from the seed. Make sure you understand passphrase effects and any hardware wallet PINs or passphrases that are part of your deployment. This reduces the risk of a fatal mistake when the stakes are real.

Choosing a Monero wallet is less about brand preference and more about threat modeling. Treat the wallet as a system—keys, software, and network practice—and build operational discipline around that system. If you want a single heuristic: protect the seed, control the node, and assume network metadata is as revealing as the weakest link in your stack. That way, privacy becomes a practiced habit rather than a vague reassurance.

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Convocatoria para la Asignación Adicional a la Labor Docente correspondiente al ejercicio fiscal 2025

En el marco de la Resolución N.º 200/2025, que reglamenta el procedimiento para la Asignación Adicional a la Labor Docente correspondiente al ejercicio fiscal del año 2025, se habilita el periodo para la postulación inicia el 6 de junio de 2025 a las 07:30 horas y se extiende hasta el 12 de junio de 2025 a las 23:59 horas, estableciendo así una ventana de tiempo razonable para que los interesados puedan reunir y presentar toda la documentación requerida.

DESCARGAR RESOLUCION 200/2025

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Otras Actividades

SE CONVOCA A CONCURSO DE TITULOS, MERITOS Y APTITUDES DE LAFACULTAD DE DERECHO, CIENCIAS POLÍTICAS Y SOCIALES DE LA UNIVERSIDADNACIONAL DE PILAR, Y SE INTEGRA EL TRIBUNAL – SEDE PILAR.

La necesidad de convocar a concurso de Títulos, Méritos y Aptitudes- año 2025, en las distintas cátedras de las diferentes carreras: Derecho: modalidad presencial y a distancia, Ciencias Políticas: modalidad a distancia y Trabajo Social: modalidad presencial, en la Facultad de Derecho, Ciencias Políticas y Sociales de la UNP, en las categorías de: Profesor: ENCARGADO DE CATEDRA, ASISTENTE, ADJUNTO, Y TITULAR.

Para ver mas detalles de los concursos descargar las siguientes resoluciones.

RESOLUCIÓN Nº 917

RESOLUCIÓN Nº 919

RESOLUCIÓN Nº 920

RESOLUCIÓN Nº 922

RESOLUCIÓN Nº 923

RESOLUCIÓN Nº 924

RESOLUCIÓN Nº 925

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