NSK200 Questions and Answers

The corporate firewall blocking UDP port 443 to Netskope could cause tunnel establishment failures. Netskope clients rely on this port for secure tunneling (via DTLS), so ensuring UDP port 443 is open is essential for connectivity. Additionally, legacy proxies intercepting traffic could also disrupt the SSL/TLS traffic necessary for the Netskope tunnel​​.

The correct method is to create a Do Not Decrypt SSL policy for the Google traffic. This satisfies both parts of the requirement: Netskope does not perform SSL inspection on the selected Google traffic, but the traffic is still sent to the Netskope Cloud, preserving visibility and policy awareness. A steering exception would bypass Netskope entirely at the device level, which means the traffic would not reach the Netskope Cloud and visibility would be reduced or lost. A real-time block policy would deny the traffic, not merely prevent inspection. Adding a trusted CA only addresses certificate trust and does not define an inspection bypass. Netskope specifically distinguishes SSL decryption bypasses from steering bypasses and recommends SSL bypasses when visibility should be preserved.

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To allow the usage of Dropbox while maintaining visibility, create a new tenant steering exception of type " Destination Locations " for Dropbox. This will enable traffic visibility for Dropbox while avoiding a block, as requested​.

 A file profile is an object that contains a list of file hashes that can be used to create a malware detection profile. A file profile can be configured as an allowlist or a blocklist, depending on whether the files are known to be benign or malicious. A file profile can be created in the Settings > File Profile page1. A malware detection profile is a set of rules that define how Netskope handles malware incidents. A malware detection profile can be created in the Policies > Threat Protection > Malware Detection Profiles page2. To create a malware detection profile, one needs to select a file profile as an allowlist or a blocklist, along with the Netskope malware scan option. The other options are not objects that can be selected when creating a malware detection profile.

The default Netskope tenant steering configuration blocks untrusted root certificates and self-signed server certificates. These settings are intended to prevent man-in-the-middle attacks and ensure the validity of the SSL connection. However, they also prevent the access to the development Web server that uses self-signed SSL certificates. To allow access to the Web server, the settings need to be changed or an exception needs to be added for the Web server domain.

For the use case of managed Windows-based endpoints where no clients or agents can be added, you can suggest that the customer use Netskope’s Explicit Proxy. Explicit Proxy is a method for steering traffic from any device to the Netskope Cloud using a proxy server. There are two supported configurations for this use case: Endpoints can be configured to directly use the Netskope proxy by setting the proxy settings in the browser or the operating system to point to the explicit proxy destination provided by Netskope. Endpoints can be configured to use a Proxy Auto Configuration (PAC) file by downloading a PAC file template from Netskope and modifying it according to the customer’s needs. The PAC file can be hosted on-premises or on the cloud and distributed to the endpoints. The other options are not valid for this use case. Endpoints do not need separate steering configurations in the tenant settings, as they can use the same explicit proxy destination and port. Endpoints do not need to be configured in the device section of the tenant to interoperate with all proxies, as this is only required for reverse proxy mode. References: Explicit Proxy3, [Explicit Proxy over IPSec and GRE Tunnels]

To provision Netskope users from Okta with SCIM Provisioning, and users are not showing up in the tenant, the two Netskope components that you should verify first in Okta for accuracy are B. OAuth token and D. SCIM server URL. The OAuth token is a credential that allows Okta to authenticate with the Netskope SCIM server and perform user provisioning operations4. The SCIM server URL is the endpoint that Okta uses to communicate with the Netskope SCIM server and send user data5. Both of these components must be configured correctly in Okta for the SCIM Provisioning to work. You can find them in the Netskope UI under Settings > Tools > Directory Tools > SCIM Integration6. Therefore, options B and D are correct and the other options are incorrect. References: SCIM-Based User Provisioning - Netskope Knowledge Portal, Netskope + Okta Use Case: Provisioning Users and Managing Groups Using SCIM - Netskope, Netskope Partner Okta - Netskope

To create a report to view the top five categories of unsanctioned applications accessed in the last 90 days, the security analyst would need to use two data collections in Advanced Analytics: Application Events and Network Events. Application Events provide information about the cloud applications and websites accessed by users, such as app name, app category, app risk score, app instance, app version, and more. Network Events provide information about the network traffic generated by users, such as source IP, destination IP, protocol, port, bytes sent, bytes received, and more. By combining these two data collections, the security analyst can filter the events by app category, app risk score, and time range to create a report that shows the top five categories of unsanctioned applications accessed in the last 90 days. Alerts and Page Events are not relevant for this report. Alerts provide information about the alerts triggered by Real-time Protection or API Data Protection policies, such as alert type, alert severity, alert status, alert description, and more. Page Events provide information about the web pages visited by users, such as page title, page URL, page category, page risk score, page content type, and more. References: Advanced Analytics

To reduce false positives by only triggering policies when contents of your customer database are uploaded to Dropbox, you can use two methods: Upload the .csv export to the Netskope tenant DLP rules section to create an exact match hash. This is a method that allows you to upload a file containing structured data, such as a customer database, to the Netskope tenant and generate a hash of the data. The hash is then used to match the data in the cloud traffic and trigger DLP policies. This method is suitable for files that are less than 10 MB in size. To upload the file, you need to go to Policies > Data Protection > DLP Rules and click on Exact Match Hashes. Then you can select the file from your local system and upload it. Use a Netskope virtual appliance to create an exact match hash. This is a method that allows you to create a file containing structured data, such as a customer database, and upload it to the Netskope cloud using a virtual appliance. The virtual appliance encrypts the file before uploading it and generates a hash of the data. The hash is then used to match the data in the cloud traffic and trigger DLP policies. This method is suitable for files that are larger than 10 MB in size. To create the file, you need to follow a specific format and save it as a .csv file. To upload the file, you need to use the request dlp-pdd upload command on the virtual appliance CLI. The other options are not valid methods for this task. You cannot use the Netskope client to upload the .csv export to the Netskope management plane DLP container, as this is not a supported feature of the client. You cannot send the .csv export to Netskope using a support ticket with the subject, “create exact match hash”, as this is not a secure or efficient way of creating an exact match hash. References: Create an Exact Match Hash from the UI1, Create an Exact Match Hash from a Virtual Appliance2

To identify unusual user activity, filter alerts by " uba " (User Behavior Analytics) and " anomaly. " UBA and anomaly alerts highlight deviations from typical user behavior, which are indicators of unusual or potentially risky activities​​.

The configuration page shown in the exhibit is used to onboard Active Directory users to a Netskope tenant. This is done by configuring the Active Directory settings in the Netskope platform and then importing the users from Active Directory. The configuration page allows you to specify the following parameters:

Directory Service: The type of directory service that you are using, such as Active Directory or LDAP.

Domain Name: The name of your Active Directory domain, such as example.com.

Domain Controller: The IP address or hostname of your Active Directory domain controller, such as dc1.example.com.

Username: The username of an account that has read access to your Active Directory, such as administrator@example.com.

Password: The password of the account that has read access to your Active Directory.

Base DN: The base distinguished name of the container or organizational unit that contains the users and groups that you want to import, such as OU=Users,DC=example,DC=com.

User Filter: The LDAP filter that defines the criteria for selecting the users that you want to import, such as (objectClass=user).

Group Filter: The LDAP filter that defines the criteria for selecting the groups that you want to import, such as (objectClass=group).

After configuring these parameters, you can click on Test Connection to verify that the connection to your Active Directory is successful. Then you can click on Import Users to start importing the users and groups from your Active Directory to your Netskope tenant.

 Onboarding Active Directory Users to a Netskope Tenant1

The problem in this scenario is that the traffic matched a Do Not Decrypt policy. A Do Not Decrypt policy is a rule that specifies the traffic that you want to leave encrypted and not further analyzed by Netskope via the Real-time Protection policies1. In the exhibit, we can see that the traffic from the user to YouTube has a “Bypass Traffic” value of “yes” and a “Netskope” value of “yes”. This means that the traffic was steered to Netskope but not decrypted or inspected2. Therefore, the real-time policy that was created to restrict users from accessing YouTube content tagged as Sport did not apply, and users could still access the content. To solve this problem, you need to either remove or modify the Do Not Decrypt policy that matches the traffic to YouTube, or create an exception for the Sport category in the policy3. Therefore, option D is correct and the other options are incorrect. References: Page Events - Netskope Knowledge Portal, Add a Policy for SSL Decryption - Netskope Knowledge Portal, YouTube Content Control - Netskope Knowledge Portal

To block any screenshots from being uploaded, the engineering firm should use the ML image classifier feature of Netskope DLP. This feature uses machine learning to detect sensitive information within images, such as screenshots, whiteboards, passports, driver’s licenses, etc. The firm can create a DLP policy that blocks any image upload that matches the screenshot classifier. This will prevent employees from circumventing the DLP controls by taking screenshots of sensitive documents. References: Improved DLP Image Classifiers, Netskope Data Loss Prevention, The Importance of a Machine Learning-Based Source Code Classifier

An API Data Protection policy is appropriate for controlling document sharing permissions in Google Drive. This policy type can enforce restrictions on file sharing, such as preventing public links, which ensures data protection within cloud storage applications​​.

The statement that describes a requirement for deploying a Netskope Private Application (NPA) Publisher is C. The publisher must be deployed on the network where the private application will be accessed. A NPA Publisher is a software component that enables Netskope to discover resources that users will connect to via NPA. A NPA Publisher must be deployed on the same network as the private application that it will publish, such as a public cloud environment (AWS, Azure, GCP) or a private data center3. This ensures that the NPA Publisher can communicate with the private application and relay its traffic to the NPA service in the Netskope cloud. Therefore, option C is correct and the other options are incorrect. References: Deploy a Publisher - Netskope Knowledge Portal

The SCIMApp integration is the best choice for Azure AD as it allows for seamless user provisioning between cloud-based IdPs and Netskope. SCIM (System for Cross-domain Identity Management) is a standard for automating user provisioning and works effectively with cloud IdPs like Azure AD​​.

The Dictionary feature in Netskope DLP is designed to detect specific keywords or phrases, such as " Confidential " or " Access key. " By using a pre-defined list of sensitive terms, the Dictionary feature enables policy enforcement based on the presence of these keywords in data​​.

To ensure user privacy in the Events and Reports view, obfuscate sensitive information like User IPs, User names, and Source location information. This helps protect identities and prevent location tracking of users while allowing visibility into activity details​​.

The purpose of the file hash list in Netskope is to configure blocklist and allowlist entries referenced in the custom Malware Detection profiles. A file hash list is a collection of MD5 or SHA-256 hashes that represent files that you want to allow or block in your organization. You can create a file hash list when adding a file profile and use it as an allowlist or blocklist for files in your organization1. You can then select the file hash list when creating a Malware Detection profile2. 

The problem in this scenario is that the Netskope client connection is being decrypted by a network security device. This is evident from the log message “ERROR SSL certificate verification failed: self signed certificate in certificate chain”. This means that the Netskope client is receiving a certificate that is not issued by Netskope, but by a device that is intercepting and decrypting the traffic between the client and the Netskope cloud. This can cause the client to fail to download the required configuration and remain in a disabled state1. Therefore, option B is correct and the other options are incorrect. References: Troubleshooting Netskope Client - Netskope Knowledge Portal, Using Netskope Client - Netskope Knowledge Portal

When a policy flags a file to be quarantined, that file is placed in a quarantine folder and a tombstone file is put in the original location in its place. The quarantine folder is located in the Netskope data center assigned in the Quarantine profile. The Quarantine profile is configured in Settings > Threat Protection > API-enabled Protection. The quarantined file is zipped and protected with a password to prevent users from inadvertently downloading the file. Netskope then notifies the admin specified in the profile1. Therefore, option B is correct and the other options are incorrect. References: Quarantine - Netskope Knowledge Portal, Threat Protection - Netskope Knowledge Portal

Netskope Advanced Analytics is the correct choice because the requirement is not just to show application risk data, but to present it visually and allow drill-down and pivot-style analysis. Advanced Analytics supports custom reports, dashboards, widgets, and visualizations built from event and alert data. Netskope also describes drill-down behavior within visualizations, where users can click data points and explore the underlying details. This makes it appropriate for an executive cloud risk assessment because it supports high-level presentation and deeper analysis from the same reporting layer. Netskope Reports are less flexible for interactive pivoting and drill-down. Skope IT Application Events are operational logs, not executive reporting dashboards. CCI discovered apps can support risk review, but it does not satisfy the full visualization, pivot, and drill-down requirement.

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If user groups cannot be pushed from the IdP into Netskope, one possible cause is that the group contains both active and deactivated users. Deactivated users in a group can create conflicts during provisioning, as Netskope expects all users in the group to be active​​.