At Aliro, we don't just build quantum networks - we help technologists, decision-makers, and policymakers get what they need to succeed in the quantum era. That's why we've developed over 20 free educational white papers that explain the principles and potential of entanglement-based quantum networking.
You'll find trustworthy info on:
>> Explanations of how quantum-safe solutions like PQC, QKD, and QSC.
>> How entanglement-based quantum networks operate and where to deploy them.
>> The hardware, software, and tools of building scalable quantum networks.
>> Easy to read breakdowns of quantum protocols and real-world applications in defense, telecom, cloud, and critical infrastructure.
Check out our library here: hubs.la/Q04jftNl0#SecureNetworks#QuantumNetworking
How do you evaluate a simulator or emulator tool? In this video, Brian Doolittle, Director of Engineering at Aliro, covers the three key performance metrics that impact your decision most: error, latency, and cost. You’ll learn the trade-offs between them and why the best tool depends on your project’s required accuracy, timeline, and budget. This is a practical framework for selecting the right design tool for quantum networking and beyond.
hubs.la/Q04jfQtS0#SecureNetworks#QuantumNetworking
🚨QUANTUM NEWS🚨: Scientists Send Unhackable Quantum Keys Across 120 Kilometers — A Leap Toward Secure Global Networks 🧨
According to a major advance reported in May 2026, physicists successfully transmitted unhackable quantum encryption keys across 120 kilometers using advanced quantum communication techniques. This achievement represents a significant step toward building secure, large-scale quantum networks that could one day protect data across cities or even continents.
**Uniphics provides a natural explanation for why such long-distance quantum key distribution is becoming feasible.**
In Uniphics, quantum information can be carried by coherent spin-wave patterns in the ξM-field. When these patterns are carefully prepared and the local energy density environment is controlled, negentropy helps stabilize the coherence over longer distances. The dramatic improvement in maintaining quantum states across 120 kilometers aligns with what we expect when time flow variations and energy density gradients are managed to reduce decoherence.
Instead of fighting against environmental noise, the system benefits from conditions where negentropy favors the preservation of organized spin correlations. This is consistent with other recent breakthroughs in spin-wave coherence (such as extended magnon lifetimes), where low and uniform energy density environments allow collective spin modes to persist far longer than previously thought possible.
The success of sending quantum keys over such distances suggests that by deliberately tuning energy density and supporting negentropy-driven order, we can create more robust channels for quantum information — exactly the kind of practical technology Uniphics predicts will emerge as we better understand the underlying spin and field dynamics.
Could the path to global quantum-secure communication involve engineering materials and environments that actively support long-lived coherent spin waves rather than relying solely on isolation from noise?
**A Theory of Everything should be able to answer everything.**
Uniphics Explained Simply PDF: uniphics.com/wp-content/uplo…
Chapters 1–10 free: uniphics.com/gallery/
Grokipedia: grokipedia.com/page/Uniphics#Uniphics#TheoryOfEverything#QuantumCommunication#QuantumKeys#SecureNetworks@grok@xAI
Building future-ready digital foundations is critical to unlocking enterprise growth and resilience.
At #HPEDiscover2026, @tech_mahindra is showcasing how secure networks and hybrid cloud together enable greater agility, stronger security, and faster time-to-value for modern enterprises.
Driving simplified operations, scalable innovation, and sustained business impact, we’re helping organizations move from transformation to tangible outcomes.
Connect with us to explore what this means for your enterprise.
Know more: techmahindra.com/insights/ev…#ScaleAtSpeed#HybridCloud#SecureNetworks#DigitalFoundations#EnterpriseTransformation
One theme we keep hearing at Cisco Live:
Quantum networks only matter if they can be deployed, managed, and integrated in the real world.
Visit us at Booth 8703 to talk with the Aliro team and see a demo of Aliro's software tools for operationalizing quantum networks.
#QuantumNetworking#SecureNetworks
BBM92 is a standard quantum key distribution protocol that uses entanglement. Learn how Alice and Bob share a secret key via entangled photons and why BBM92 is ideal for use in fiber-based networks.
Timestamps for this video:
00:03 – What is BBM92 and why it matters
00:35 – Commercially available quantum networking devices
01:08 – Scaling BBM92: trusted relays vs. quantum repeaters
#QuantumNetworking#SecureNetworks
Quantum Secret Sharing (QSS) combines two things security teams want but rarely get together: resilience against compromise and visibility into tampering.This article explains how secret sharing works, why it has long been used for high-assurance security, and how quantum technologies are taking the concept further with quantum-enhanced secret sharing, and true quantum secret sharing. We also share a practical case for how organizations can begin applying quantum-secure methods today without waiting for fully quantum infrastructure everywhere.
hubs.la/Q04c-btb0#QuantumNetworking#SecureNetworks
Quantum teleportation allows for the instant transfer of a quantum state without physically moving it. Teleportation is a cornerstone of distributed quantum computing, enabling secure state transfer between QPUs without violating the no-cloning theorem or introducing measurement errors.
#QuantumNetworking#SecureNetworks#QPUnetworking
In this segment, we explore the processes used to generate entangled photons, focusing on two key methods: Spontaneous Parametric Down Conversion and Spontaneous Four-Wave Mixing.
#QuantumNetworking#SecureNetworks
When drone signals are detected without being detected, 24x7 surveillance stays intact.
HFCL’s LTE-based Passive Radar enables reliable detection of drones by leveraging ambient signals instead of active transmission, without giving own location in contested environments.
An ideal solution for defence base protection, especially when deployed alongside HFCL RF detector and jammer.
#SecureNetworks#MissionCritical#SituationalAwareness#DefenceInnovation#MilitaryTech#FutureOfDefence#HFCL#Raddef
Big news to share today! Aliro just raised $15M in an oversubscribed round.
This milestone reflects growing recognition that the cybersecurity landscape is changing. Adversaries are already harvesting encrypted data today with the intent to decrypt it tomorrow. Classical cryptography (whether RSA, ECC, or even post-quantum cryptography - PQC) is ultimately rooted in mathematical hardness assumptions.
At Aliro, we believe the future of security must be grounded in something stronger: the fundamental laws of physics.
Read the full announcement here: hubs.la/Q043yJ930#QuantumNetworking#SecureNetworks
🛡️ الـ VLAN أم VPN؟ متى تستخدم كل واحدة؟ 🛜..
🔐 عزل الشبكة أم حماية الاتصال؟ فهم أمني لا غنى عنه لمبتدئي الأمن السيبراني.
من أكثر المفاهيم التي نلاحظ سوء فهمها لدى مبتدئي الأمن السيبراني، هو الخلط بين VLAN و VPN .
غالبًا ما يتم التعامل معهما كأنهما يؤديان نفس الدور، لمجرد أن كلاهما يُستخدم "للحماية"، بينما في الحقيقة كل تقنية تعالج مشكلة مختلفة تمامًا وفي مرحلة مختلفة من الاتصال.
🔹 كيف تعمل VLAN؟
هي آلية تُستخدم داخل الشبكة المحلية بهدف العزل والتنظيم، فكرتها الأساسية هي تقسيم شبكة واحدة إلى عدة شبكات منطقية مستقلة، حتى لو كانت جميع الأجهزة متصلة بنفس السويتش الفيزيائي.
من الناحية الأمنية، VLAN لا تهدف إلى منع الاختراق، بل إلى احتواء الاختراق.
عندما يتم اختراق جهاز داخل الشبكة، فإن وجود VLAN يقلل قدرة المهاجم على التحرك أفقيًا (Lateral Movement) والوصول إلى باقي الأقسام.
📌 بعبارة أوضح:
الـ VLAN لا تسأل هل الاتصال آمن؟
بل تسأل ما الذي يُسمح لك بالوصول إليه داخل الشبكة؟
🔹 كيف يعمل VPN؟
هو يعالج مشكلة مختلفة كليًا، لا يهتم بتنظيم الشبكة من الداخل، بل يركز على تأمين الاتصال عبر شبكات غير موثوقة مثل الإنترنت.
يقوم VPN بإنشاء نفق مشفّر بين جهاز المستخدم والشبكة الهدف، مما يحمي البيانات من:
✅ التنصت.
✅ التلاعب.
✅ هجمات الرجل في المنتصف (MITM) .
لكن بعد دخول المستخدم إلى الشبكة، فإن VPN لا يفرض بطبيعته قيودًا على الصلاحيات، إلا إذا تم ربطه بسياسات إضافية.
📌 بمعنى آخر:
الـ VPN لا يسأل إلى أين ستذهب داخل الشبكة؟
بل يسأل هل اتصالك بالشبكة كان آمنًا؟
⚠️ أين يقع الخطأ الشائع؟
الخطأ المتكرر هو اعتبار VLAN و VPN بدائل لبعضهما.
الـ VLAN لا توفر تشفيرًا للبيانات.
الـ VPN لا يمنع انتشار الهجوم داخل الشبكة.
كل واحدة منهما تُستخدم لحل مشكلة مختلفة، واستخدام إحداهما مكان الأخرى يؤدي إلى تصميم أمني ضعيف.
💥 متى نستخدم VLAN؟
تُستخدم VLAN عندما يكون الهدف:
✅ فصل المستخدمين عن الخوادم.
✅ عزل الأقسام الحساسة.
✅ تقليل مساحة الهجوم داخل الشبكة.
✅ الحد من الحركة الجانبية للمهاجم.
🎯 هي أداة حماية داخلية أساسية في أي شبكة احترافية.
🌐 متى نستخدم VPN؟
يُستخدم VPN عندما يكون الهدف:
✅ تأمين الاتصال من شبكات غير موثوقة.
✅ تمكين العمل عن بُعد.
✅ ربط فروع الشركات بشكل آمن.
🎯 هو أداة حماية أثناء نقل البيانات.
🧠 في البيئات الاحترافية، لا يتم الاختيار بين VLAN أو VPN، بل يتم استخدامهما معًا ضمن تصميم أمني متكامل .
✅ الـ VPN يؤمّن الدخول.
✅ الـ VLAN تحدد نطاق الوصول بعد الدخول.
✅ الجدار الناري يفرض السياسات.
الـ VPN بدون VLAN = اتصال مشفّر بصلاحيات واسعة
الـ VLAN بدون VPN = شبكة منظمة لكن اتصالها مكشوف
الـ VLAN تحمي الشبكة من الداخل 🛡️
الـ VPN تحمي الاتصال والبيانات 🔐
#CyberSecurity#NetworkSecurity#InformationSecurity#CyberSecurityEducation#VLAN#VPN#SecureNetworks#SOC#BlueTeam#CyberCareer
In a world of rising threats, unpredictable internet paths, and customers who demand guaranteed performance, IPVPN is making a comeback. Built on MPLS, it offers private, secure, SLA-backed connectivity that enterprises, BFSI, and governments rely on.
Far from legacy, IPVPN is the foundation that strengthens SD-WAN, SASE, and your entire network stack.
Read More about why IPVPN is the hidden advantage telcos can’t ignore: lnkd.in/g4bbmG_r#SecureNetworks#Telecom#Security#Connectivity