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Palo Alto Networks – Global Cybersecurity Leader

Palo Alto Networks – Global Cybersecurity Leader

Wiki PA Product Overview Our innovative security platform is based on our next-generation firewall which natively classifies all traffic, inclusive of applications, threats and content, then ties that traffic to the user, regardless of location or device type. The application, content, and user – the core elements that run your business – are then used as the basis of your security policies. This unique ability empowers you to safely enable applications, make informed decisions on network access, and strengthen your network security. Regardless of where your applications, users, and content may be, they almost always run across the network – which is the logical place to secure them. Find out how our enterprise security platforms safely enable your business, improve network security, and simplify your workload.

Info entrepreneurs - Services aux entrepreneurs québécois Reporting and Logging Our Application Command Center (ACC) is an interactive, graphical summary of the applications, users, URLs, threats, and content traversing your network. It allows you to keep your finger on the pulse of what is going on. ACC provides a 10,000 foot view of what's happening on your network, and with just a few clicks you can get a highly detailed view to learn more, including links to the specific policy that allowed a certain behavior so you can tune it as needed. Knowledge is power. A description of the application or threat.An application's key features and behavioral characteristics.Details on the users using an application.Details on those affected by a threat. Additional data on traffic source and destination, security rules and zones provides a wider view of the application's usage patterns, which helps you make a more informed decision on how to treat that traffic.

Network access control Un article de Wikipédia, l'encyclopédie libre. Pour les articles homonymes, voir NAC. Un contrôleur d'accès au réseau (network access control ou NAC) est une méthode informatique permettant de soumettre l'accès à un réseau d'entreprise à un protocole d'identification de l'utilisateur et au respect par la machine de cet utilisateur des restrictions d'usage définies pour ce réseau. Plusieurs sociétés comme Cisco Systems, Microsoft ou Nortel Networks ont développé des frameworks permettant d'implémenter des mécanismes de protection d'accès au réseau d'entreprise et de vérifier le respect par les postes clients, des règles de sécurité imposées par l'entreprise : état de la protection antivirus, mises à jour de sécurité, présence d'un certificat, et bien d'autres. Ces frameworks ont donné naissance à bon nombre d'"appliances", matériels spécialisés dans le contrôle d'accès au réseau. Portail de la sécurité informatique

SMS Authetication (OTP) Two-step verification (also known as Two-factor authentication, abbreviated to TFA) is a process involving two stages to verify the identity of an entity trying to access services in a computer or in a network. This is a special case of a multi-factor authentication which might involve only one of the three authentication factors (a knowledge factor, a possession factor, and an inherence factor) for both steps.[1][2][3] If each step involves a different authentication factor then the two-step authentication is additionally two-factor authentication. Example[edit] To provide an everyday example: an automated teller machine (ATM) typically requires two-factor verification. To prove that users are who they claim to be, the system requires two items: an ATM smartcard (application of the possession factor) and the personal identification number (PIN) (application of the knowledge factor). Google's two-step verification process[edit] The first step is to log in using the username and password.

Accueil - Commission des normes du travail du Québec Policy Management App-ID graphically displays the applications that are traversing your network. It allows you to see who is using applications and the potential security risks. This information empowers you to quickly deploy application-, application function-, and port-based enablement policies in a systematic and controlled manner. Your policies may range from open (allow), to moderate (enabling certain applications or functions, then scan, or shape, schedule, etc.), to closed (deny). Allow or denyAllow based on schedule, users, or groupsApply traffic shaping through QoSAllow certain application functions such as file transfer within instant messagingAllow, but scan for viruses and other threatsDecrypt and inspectApply policy-based forwardingAny combination of the above Mixing next-generation policy criteria like applications, application functions, users, groups and regions, with traditional policy criteria such as source, destination and IP address, allows you to deploy the appropriate policy.

Nagios - The Industry Standard In IT Infrastructure Monitoring Two-factor authentication Two-step verification (also known as Two-factor authentication, abbreviated to TFA) is a process involving two stages to verify the identity of an entity trying to access services in a computer or in a network. This is a special case of a multi-factor authentication which might involve only one of the three authentication factors (a knowledge factor, a possession factor, and an inherence factor) for both steps.[1][2][3] If each step involves a different authentication factor then the two-step authentication is additionally two-factor authentication. Example[edit] To provide an everyday example: an automated teller machine (ATM) typically requires two-factor verification. Note that if the ATM smartcard is merely a magnetic-stripe card it is copyable then the process is only two-step authentication but not two-factor authentication since the ATM is only verifying that the user knows the data encoded on the magnetic stripe (knowledge factor) and presented it in magnetic-stripe form.

Démarrage d'entreprises technologiques à Montréal. CEIM aide les entrepreneurs à démarrer | CEIM Nagios Un article de Wikipédia, l'encyclopédie libre. Capture d'écran de l'interface web de Nagios. C'est un programme modulaire qui se décompose en trois parties : le moteur de l'application qui vient ordonnancer les tâches de supervision ;l'interface web, qui permet d'avoir une vue d'ensemble du système d'information et des possibles anomalies ;les sondes (appelées greffons ou plugins), une centaine de mini programmes que l'on peut compléter en fonction des besoins de chacun pour superviser chaque service ou ressource disponible sur l'ensemble des ordinateurs ou éléments réseaux du SI. Vu le manque de réactivité du développeur principal de Nagios et sa volonté de ne plus diffuser tous les modules sous licence libre, certains développeurs actifs sur le projet ont fait diverger Nagios pour créer Icinga (en). Historique[modifier | modifier le code] Rebaptisé en 2002, il tire alors son nom du grec ἅγιος (hagios) signifiant saint. Possibilités[modifier | modifier le code] Portail des logiciels libres

PKI Diagram of a public key infrastructure A public key infrastructure (PKI) is a set of hardware, software, people, policies, and procedures needed to create, manage, distribute, use, store, and revoke digital certificates.[1] In cryptography, a PKI is an arrangement that binds public keys with respective user identities by means of a certificate authority (CA). Design[edit] Public key cryptography is a cryptographic technique that enables users to securely communicate on an insecure public network, and reliably verify the identity of a user via digital signatures.[2] A public key infrastructure (PKI) is a system for the creation, storage, and distribution of digital certificates which are used to verify that a particular public key belongs to a certain entity. A PKI consists of:[4][6][7] Methods of certification[edit] Broadly speaking, there are three approaches to getting this trust: certificate authorities (CAs), web of trust (WoT), and simple public key infrastructure (SPKI). History[edit]

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