You consume application infrastructure (middleware) capabilities by a third-party provider. What is the cloud service model that you are using in this scenario?
Answer(s): A
If you consume application infrastructure (middleware) capabilities by a third-party provider, then the cloud service model that you are using in this scenario is PaaS, which stands for Platform as a Service. PaaS is a cloud service model that provides customers with a platform to develop, run, and manage applications without having to deal with the underlying infrastructure or software. PaaS typically includes middleware capabilities such as databases, web servers, development tools, integration services, etc., that customers can use to build and deploy their applications faster and easier. MaaS, DaaS, and SaaS are not cloud service models that match this scenario, as they stand for different types of services. MaaS stands for Monitoring as a Service, which is a service that provides customers with tools to monitor and manage their cloud resources and performance. DaaS stands for Desktop as a Service, which is a service that provides customers with virtual desktops that they can access from any device or location. SaaS stands for Software as a Service, which is a service that provides customers with software applications that they can use over the internet without installing or maintaining them.
[PaaS], [MaaS], [DaaS], [SaaS].
You are deploying TLS support for real-time Web and SaaS transactions. What are two secure implementation methods in this scenario? (Choose two.)
Answer(s): C,D
If you are deploying TLS support for real-time Web and SaaS transactions, then you need to use secure implementation methods that ensure the highest level of encryption and security for your traffic. Two secure implementation methods in this scenario are: support TLS 1.2 only when 1.3 is not supported by the server and require TLS 1.3 for every server that accepts it. TLS stands for Transport Layer Security, which is a protocol that provides secure communication over the internet by encrypting and authenticating data exchanged between two parties. TLS 1.3 is the latest version of TLS, which offers several improvements over TLS 1.2, such as faster handshake, stronger encryption algorithms, better forward secrecy, and reduced attack surface. Therefore, it is recommended to use TLS 1.3 whenever possible for real-time Web and SaaS transactions, as it provides better security and performance than TLS 1.2. However, some servers may not support TLS 1.3 yet, so in those cases, it is acceptable to use TLS 1.2 as a fallback option, as it is still considered secure and widely adopted. Bypassing TLS 1.3 because it is not widely adopted or downgrading to TLS 1.2 whenever possible are not secure implementation methods in this scenario, as they would compromise the security and performance of your traffic by using an older or weaker version of TLS than necessary.
[TLS], [TLS 1.3].
What correctly defines the Zero Trust security model?
The term that correctly defines the Zero Trust security model is least privilege access. The Zero Trust security model is a modern security strategy based on the principle: never trust, always verify. Instead of assuming everything behind the corporate firewall is safe, the Zero Trust model assumes breach and verifies each request as though it originates from an open network. One of the core principles of the Zero Trust model is to use least privilege access, which means granting users or systems only the minimum level of access they need to perform their tasks, and only for a limited time. This helps reduce the attack surface and minimize the impact of a potential breach.
Zero Trust Security - microsoft.comWhat is Zero Trust Security? Principles of the Zero Trust Model
ExhibitA user is connected to a cloud application through Netskope's proxy.In this scenario, what information is available at Skope IT? (Choose three.)
Answer(s): A,C,D
In this scenario, a user is connected to a cloud application through Netskope's proxy, which is a deployment method that allows Netskope to intercept and inspect the traffic between the user and the cloud application in real time. In this case, Netskope can collect and display various information about the user and the cloud application at Skope IT, which is a feature in the Netskope platform that allows you to view and analyze all the activities performed by users on cloud applications. Some of the information that is available at Skope IT are: username, device location, account instance, URL category, user activity, and cloud app risk rating. Username is the name or identifier of the user who is accessing the cloud application. Device location is the geographical location of the device that the user is using to access the cloud application. Account instance is the specific instance of the cloud application that the user is accessing, such as a personal or enterprise instance. URL category is the classification of the web page that the user is visiting within the cloud application, such as Business or Social Media. User activity is the action that the user is performing on the cloud application, such as Upload or Share. Cloud app risk rating is the score that Netskope assigns to the cloud application based on its security posture and compliance with best practices. Destination IP, OS patch version, file version, and shared folder are not information that is available at Skope IT in this scenario, as they are either unrelated or irrelevant to the proxy connection or the Skope IT feature.
[Netskope Inline CASB], [Netskope Skope IT].
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