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Encrypted conversations are visually differentiated from unencrypted conversations through a lock icon badge on the avatar of the user you are talking to. The badged avatar shows up in both the inbox and conversation views.

We currently allow a maximum of ten devices per user for encrypted messages. After you have reached the limit, you will not be able to send and receive encrypted messages on any new devices that are logged into X.

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An encrypted message can only include text and links; media and other attachments are not supported yet. When users attempt to send media via an encrypted conversation, this action will not be completed. Reactions to encrypted messages are also encrypted. Also, while messages themselves are encrypted, metadata (recipient, creation time, etc.) are not, and neither is any linked content (only links themselves, not any content they refer to, is encrypted).

Currently, new devices cannot join existing encrypted conversations. Existing encrypted conversations and the messages in the conversation will be filtered out on new devices that you log into. If you try to access an existing encrypted conversation on a new device via new message flow, it will show an error message indicating that the conversation is inaccessible on that device.

Currently, it is not possible to report an encrypted message to X due to the encrypted nature of the conversation. It is important to highlight that at this phase encrypted DMs do not allow for media. If you encounter an issue with an encrypted conversation participant, we suggest you file a report about the account itself and our team will take a look.

When you delete an encrypted message or conversation (sent or received), the data will be instantly deleted from your device (and soon after from all your other devices). You then will no longer be able to view it. Note that the recipient may still be able to see the encrypted message or conversation you have deleted.

To be effective, a cipher includes a variable as part of the algorithm. The variable, which is called a key, is what makes a cipher's output unique. When an encrypted message is intercepted by an unauthorized entity, the intruder has to guess which cipher the sender used to encrypt the message, as well as what keys were used as variables. The time and difficulty of guessing this information is what makes encryption such a valuable security tool.

In addition to security, the adoption of encryption is often driven by the need to meet compliance regulations. A number of organizations and standards bodies either recommend or require sensitive data to be encrypted in order to prevent unauthorized third parties or threat actors from accessing the data. For example, the Payment Card Industry Data Security Standard (PCI DSS) requires merchants to encrypt customers' payment card data when it is both stored at rest and transmitted across public networks.

An encryption backdoor is a way to get around a system's authentication or encryption. Governments and law enforcement officials around the world, particularly in the Five Eyes (FVEY) intelligence alliance, continue to push for encryption backdoors, which they claim are necessary in the interests of national safety and security as criminals and terrorists increasingly communicate via encrypted online services.

I need to know what the current values are in an encrypted KVM map. Through UI or management API all I can see is ******* for each value. I started going down the road of creating a test proxy to trace through and pull them out, but was wondering if there was an easier/better way to do this.

@dino Could you go into more detail about managing encrypted KVMs through a pipeline. Are you saying that you encrypt your KVM values, store them in source control, then create a script in the pipeline to decrypt those values and use -config-maven-plugin to upload the values to Apigee?

WorkSpaces is integrated with the AWS Key Management Service (AWS KMS). This enables you to encrypt storage volumes of WorkSpaces using AWS KMS Key. When you launch a WorkSpace, you can encrypt the root volume (for Microsoft Windows, the C drive; for Linux, /) and the user volume (for Windows, the D drive; for Linux, /home). Doing so ensures that the data stored at rest, disk I/O to the volume, and snapshots created from the volumes are all encrypted.

When you manually rotate KMS Keys, you must keep both the original KMS Key and the new KMS Key enabled so that AWS KMS can decrypt the WorkSpaces that the original KMS Key encrypted. If you don't want to keep the original KMS Key enabled, you must recreate your WorkSpaces and encrypt them using the new KMS Key.

To reboot or rebuild an encrypted WorkSpace, first make sure that the AWS KMS Key is enabled; otherwise, the WorkSpace becomes unusable. To determine whether a KMS Key is enabled, see Displaying KMS Key Details in the AWS Key Management Service Developer Guide.

When you create WorkSpaces with encrypted volumes, WorkSpaces uses Amazon Elastic Block Store (Amazon EBS) to create and manage those volumes. Amazon EBS encrypts your volumes with a data key using the industry-standard AES-256 algorithm. Both Amazon EBS and Amazon WorkSpaces use your KMS Key to work with the encrypted volumes. For more information about EBS volume encryption, see Amazon EBS Encryption in the Amazon EC2 User Guide for Windows Instances.

Amazon EBS requests a volume data key that is encrypted under your KMS Key and specifies the WorkSpace user's Active Directory security identifier (SID) and AWS Directory Service directory ID as well as the Amazon EBS volume ID as the encryption context.

WorkSpaces uses Amazon EBS to attach the encrypted volume to your WorkSpace. Amazon EBS sends the encrypted data key to AWS KMS with a Decrypt request and specifies the WorkSpace user's SID, the directory ID, and the volume ID, which is used as the encryption context.

Amazon EBS uses the plain text data key to encrypt all data going to and from the encrypted volume. Amazon EBS keeps the plain text data key in memory for as long as the volume is attached to the WorkSpace.

WorkSpaces doesn't use your KMS Key directly for cryptographic operations (such as Encrypt, Decrypt, GenerateDataKey, etc.), which means WorkSpaces doesn't send requests to AWS KMS that include an encryption context. However, when Amazon EBS requests an encrypted data key for the encrypted volumes of your WorkSpaces (Step 3 in the Overview of WorkSpaces encryption using AWS KMS) and when it requests a plain text copy of that data key (Step 5), it includes encryption context in the request.

If you select a customer managed KMS Key to use for encryption, you must establish IAM policies that allow Amazon WorkSpaces to use the KMS Key on behalf of an IAM user in your account who launches encrypted WorkSpaces. That user also needs permission to use Amazon WorkSpaces. For more information about creating and editing IAM user policies, see Managing IAM Policies in the IAM User Guide and Identity and access management for WorkSpaces.

If your WorkSpaces administrators use the AWS Management Console to create WorkSpaces with encrypted volumes, the administrators need permission to list aliases and list keys (the "kms:ListAliases" and "kms:ListKeys" permissions). If your WorkSpaces administrators use only the Amazon WorkSpaces API (not the console), you can omit the "kms:ListAliases" and "kms:ListKeys" permissions.

To see which WorkSpaces and volumes have been encrypted from the WorkSpaces console, choose WorkSpaces from the navigation bar on the left. The Volume Encryption column shows whether each WorkSpace has encryption enabled or disabled. To see which specific volumes have been encrypted, expand the WorkSpace entry to see the Encrypted Volumes field.

I was wondering if there is any documentation or caveats to creating my MCS base image with VMware's native key provider (NKP, new as of VMware version 7.0 a couple years ago)'s automatic encryption of the VMs. Does Citrix support using an encrypted VM as the base image when doing an MCS machine catalog capture and creation? The only documentation I can find that even mentions citrix, vmware, and cryptography together is -us/citrix-virtual-apps-desktops/2203-ltsr/install-configure/install-prepare/vmware.html#cryptographic-operations which only mentions rights the service account in Citrix Studio needs (which I have, on both the host, and the datastore)

I ask because when I went to create a new machine catalog, using a VMware NKP encrypted VM as the base, Citrix Studio could not see the VM or its snapshot on the vcenter cluster I was connected to. It could see other, non-encrypted VMware VMs that had snapshots - just not my encrypted one.

I haven't found any pages yet that explicitly that I can, or cannot, have encrypted VMs used as a base image. My end goal of course is to also have Citrix MCS then also create VMware NKP encrypted VMs too, but I haven't gotten that far yet - I can't even see my encrypted VM or snapshot.

Voice messages are encrypted when they're delivered to you. However, after you have listened to a voice message, it is transferred from our servers to your local machine, where it is stored as an unencrypted file.

Once upon a time, encrypted traffic was considered the safe, secure option for browsing and doing business online. Going back nine years to December 2013, the Google Transparency Report shows just 48% of worldwide web traffic was encrypted. Flash forward to today, and the volume of encrypted web traffic tracked by Google is up to 95%. However, the threat landscape has changed a lot since 2013, and now we find the majority of cyberthreats lurking within encrypted channels.

Hidden in the layers of your encrypted internet traffic are malware payloads, phishing scams, sensitive data leaks, and more. To understand this better, Zscaler ThreatLabz researchers tapped into the Zscaler Cloud and analyzed 24 billion threats from October 2021 to September 2022 to reveal details on threats embedded in HTTPS traffic, including SSL and TLS. The team published the full results of this research in the State of Encrypted Attacks 2022 Report. 2351a5e196