AMQP Cleartext Authentication
Description The remote Advanced Message Queuing Protocol (AMQP) service supports one or more authentication mechanisms that allow credentials to be sent in the clear. Solution Disable cleartext authentication mechanisms in the AMQP configuration in ubuntu or centos machines disable unencrypted access in the configuration file. >> unencrypted" here refers to client connections. https://www.rabbitmq.com/ssl.html Steps of disabling the AMQP: https://liquidwarelabs.zendesk.com/hc/en-us/articles/360019562832-Disable-cleartext-authentication-option-in-RabbitMQ The above link used for windows vulnerability. Please help in getting resolution for Centos or Ubuntu configuration file.SSL Certificate with Wrong Hostname
SSL Certificate with Wrong Hostname The SSL certificate for this service is for a different host. The commonName (CN) of the SSL certificate presented on this service is for a different machine. Purchase or generate a proper certificate for this service solution provided on other sites : "Purchase or generate a proper certificate for this service." What is the proper solution to go away for this vulnerability from linux machines and how to implement the solution ?
F5 Essential App Protect: Go !
App deployments nowadays tend to target API-driven distributed services and microservices-based topologies. How do you move fast when it comes to “securing an app”, when you have so many things to worry about: what services are part of the overall topology, where and how these services are deployed (VMs, containers, PaaS), and what technologies stacks and frameworks these services are built on? Secure Your Apps at “Ludicrous Speed” As evidenced by OWASP Top 10, we know that one of the most critical attack surfaces are web-facing app front-ends. From cross-site scripting (XSS) attacks, to injection, to exploits through third-party scripts, there is a lot to be concerned about; especially when you take into the account the common practices of using external libraries and open source components in JavaScript-based apps. And while security absolutely needs to be part of the development process, both tech and attacks are evolving so rapidly that most dev teams can’t be expected to keep up! With that in mind our team built F5 Essential App Protect, to enable “LUDICROUS SPEED” for securing your web apps. We architected it to deliver Web Application Firewall functionality with more capabilities, delivered as-a-Service with F5 Cloud Services. Sparing you what may sound like an obvious marketing spiel like the simplicity of the UI, applying F5’s 20+ years of security expertise, or the speed of deployment and integration (it’s a SaaS, duh)...let me focus on a few reasons why I’m personally excited about our implementation of this solution: Built for global app architectures It’s deployed on a global data plane, which means you can co-locate your service close to the application or service endpoint that’s being protected. For example, an HTTP request that would typically be routed to a US-EAST based app doesn’t need to “bounce” around the world to get processed; Essential App Protect automatically detects and recommends US-EAST as a region and deploys protection instance in the region closest to your web service, resulting in minimal latency. This supports the “any app on any cloud” mantra, without sacrificing performance. Forward-looking protection Besides using over 5,000+ signatures right out of the gate to check for malicious traffic, Essential App Protect continuously ingests new signatures from the F5 Threat Labs and stays current to ensure that we help defend against developing threats. On top of that, it also uses an advanced probability-based rating system that anticipates malicious requests and improves as the platform evolves. Simply put, we stay on top of the rapidly evolving threat landscape, so that you don’t have to! Simple on-ramp, easy APIs The north star of Essential App Protect is to make app security simple yet flexible not only from the UI, but to target DevOps scenarios with an API-first approach. This means you can onramp protection for your app with a couple of declarative API calls, from zero to ready in just aminute. Everything is defined through one simple JSON template, which makes it very easy to integrate into your CI/CD pipeline. All of the config, from tuning of protection option to accessing security event logs, are done through APIs. This makes automation a no-brainer, be itthe initial deployment, or managing a consistent security policy across your dev/test/prod environments for all of your app deployments. “Go ahead, take it for a spin!” F5 Essential App Protect provides the enterprise-grade security you need to keep your web-facing apps safe.It is delivered as-a-Service with no hardware to manage or software to download.And you don’t need to be a security expert, because the service is pre-configured using the best practices we’ve compiled while working with top enterprises for the last 20 years. We architected it for the cloud and global delivery, while focused on future-proofing your app protection, and making it DevOps ready out of the gate. Check out Essential App Protect. Go ahead, signup for the free trial, and check out the new Essential App Protect Lab on GitHub... Go!
Exploring Kubernetes API using Wireshark part 1: Creating, Listing and Deleting Pods
Related Articles: Exploring Kubernetes API using Wireshark part 2: Namespaces Exploring Kubernetes API using Wireshark part 3: Python Client API Quick Intro This article answers the following question: What happens when we create, list and delete pods under the hood? More specifically on the wire. I used these 3 commands: I'll show you on Wireshark the communication between kubectl client and master node (API) for each of the above commands. I used a proxy so we don't have to worry about TLS layer and focus on HTTP only. Creating NGINX pod pcap:creating_pod.pcap (use http filter on Wireshark) Here's our YAML file: Here's how we create this pod: Here's what we see on Wireshark: Behind the scenes, kubectl command sent an HTTP POST with our YAML file converted to JSON but notice the same thing was sent (kind, apiVersion, metadata, spec): You can even expand it if you want to but I didn't to keep it short. Then, Kubernetes master (API) responds with HTTP 201 Created to confirm our pod has been created: Notice that master node replies with similar data with the additional status column because after pod is created it's supposed to have a status too. Listing Pods pcap:listing_pods.pcap (use http filter on Wireshark) When we list pods, kubectl just sends a HTTP GET request instead of POST because we don't need to submit any data apart from headers: This is the full GET request: And here's the HTTP 200 OK with JSON file that contains all information about all pods from default's namespace: I just wanted to emphasise that when you list a pod the resource type that comes back isPodListand when we created our pod it was justPod. Remember? The other thing I'd like to point out is that all of your pods' information should be listed underitems. Allkubectldoes is to display some of the API's info in a humanly readable way. Deleting NGINX pod pcap:deleting_pod.pcap (use http filter on Wireshark) Behind the scenes, we're just sending an HTTP DELETE to Kubernetes master: Also notice that the pod's name is also included in the URI: /api/v1/namespaces/default/pods/nginx← this is pods' name HTTP DELETEjust likeHTTP GETis pretty straightforward: Our master node replies with HTTP 200 OK as well as some json file with all the info about the pod, including about it's termination: It's also good to emphasise here that when our pod is deleted, master node returns JSON file with all information available about the pod. I highlighted some interesting info. For example, resource type is now just Pod (not PodList when we're just listing our pods).Automating certificate lifecycle management with HashiCorp Vault
One of the challenges many enterprises face today, is keeping track of various certificates and ensuring those which are associated with critical applications deployed across multi-cloud are current and valid.This integration helps you to improve your security poster with short lived dynamic SSL certificates using HashiCorp Vault and AS3 on BIG-IP. First, a bit about AS3… Application Services 3 Extension (referred to asAS3 Extensionor more often simplyAS3) is a flexible, low-overhead mechanism for managing application-specific configurations on a BIG-IP system. AS3 uses a declarative model, meaning you provide a JSON declaration rather than a set of imperative commands. The declaration represents the configuration which AS3 is responsible for creating on a BIG-IP system. AS3 is well-defined according to the rules of JSON Schema, and declarations validate according to JSON Schema. AS3 accepts declaration updates via REST (push), reference (pull), or CLI (flat file editing). What is Vault? Vault is a tool for securely accessingsecrets. A secret is anything that you want to tightly control access to, such as API keys, passwords, or certificates. Vault provides a unified interface to any secret, while providing tight access control and recording a detailed audit log. A modern system requires access to a multitude of secrets: database credentials, API keys for external services, credentials for service-oriented architecture communication, etc. Understanding who is accessing what secrets is already very difficult and platform specific. Adding on key rolling, secure storage, and detailed audit logs is almost impossible without a custom solution. This is where Vault steps in. Public Key Infrastructure (PKI) provides a way to verify authenticity and guarantee secure communication between applications. Setting up your own PKI infrastructure can be a complex and very manual process. Vault PKI allows users to dynamically generate X.509 certificates quickly and on demand. Vault PKI can streamline distributing TLS certificates and allows users to create PKI certificates with a single command. Vault PKI reduces overhead around the usual manual process of generating a private key and CSR, submitting to a CA, and waiting for a verification and signing process to complete, while additionally providing an authentication and authorization mechanism to validate as well. Benefits of using Vault automation for BIG-IP Cloud and platform independent solution for your application anywhere (public cloud or private cloud) Uses vault agent and Leverages AS3 Templating to update expiring certificates No application downtime - Dynamically update configuration without affecting traffic Configuration: 1.Setting up the environment - deploy instances of BIG-IP VE and Vault in cloud or on-premises You can create instances in the cloud for Vault & BIG-IP using terraform. The repo https://github.com/f5devcentral/f5-certificate-rotate This will pretty much download Vault binary and start the Vault server. Also, it will deploy the F5 BIG-IP instance on the AWS Cloud. Once we have the instances ready, you can SSH into the Vault ubuntu server and change directory to /tmp and execute below commands. # Point to the Vault Server export VAULT_ADDR=http://127.0.0.1:8200 # Export the Vault Token export VAULT_TOKEN=root # Create roles and define allowed domains with TTL for Certificate vault write pki/roles/web-certs allowed_domains=demof5.com ttl=160s max_ttl=30m allow_subdomains=true # Enable the app role vault auth enable approle # Create a app policy and apply https://github.com/f5devcentral/f5-certificate-rotate/blob/master/templates/app-pol.hcl vault policy write app-pol app-pol.hcl # Apply the app policy using app role vault write auth/approle/role/web-certs policies="app-pol" # Read the Role id from the Vault vault read -format=json auth/approle/role/web-certs/role-id | jq -r '.data.role_id' > roleID # Using the role id use the secret id to authenticate vault server vault write -f -format=json auth/approle/role/web-certs/secret-id | jq -r '.data.secret_id' > secretID # Finally run the Vault agent using the config file vault agent -config=agent-config.hcl -log-level=debug 2.UseAS3 Template file certs.tmpl with the values as shown The template file shown below will be automatically uploaded to the Vault instance, the ubuntu server in the /tmp directory Here I am using an AS3 file called certs.tmpl which is templatized as shown below. {{ with secret "pki/issue/web-certs" "common_name=www.demof5.com" }} [ { "op": "replace", "path": "/Demof5/HTTPS/webcert/remark", "value": "Updated on {{ timestamp }}" }, { "op": "replace", "path": "/Demof5/HTTPS/webcert/certificate", "value": "{{ .Data.certificate | toJSON | replaceAll "\"" "" }}" }, { "op": "replace", "path": "/Demof5/HTTPS/webcert/privateKey", "value": "{{ .Data.private_key | toJSON | replaceAll "\"" "" }}" }, { "op": "replace", "path": "/Demof5/HTTPS/webcert/chainCA", "value": "{{ .Data.issuing_ca | toJSON | replaceAll "\"" "" }}" } ] {{ end }} 3.Vault will render a new JSON payload file called certs.json whenever the SSL Certs expires When the Certificate expires, Vault generates a new Certificate which we can use to update the BIG-IP using ssh script, below shows the certs.json created automatically. Snippet of certs.json being created [ { "op": "replace", "path": "/Demof5/HTTPS/webcert/remark", "value": "Updated on 2020-10-02T19:05:53Z" }, { "op": "replace", "path": "/Demof5/HTTPS/webcert/certificate", "value": "-----BEGIN CERTIFICATE-----\nMIIDSDCCAjCgAwIBAgIUaMgYXdERwzwU+tnFsSFld3DYrkEwDQYJKoZIhvcNAQEL\nBQAwEzERMA8GA1UEAxMIZGVtby5jb20wHhcNMjAxMDAyMTkwNTIzWhcNMj 4.Use Vault Agent file to run the integration forever without application traffic getting affected Example Vault Agent file pid_file = "./pidfile" vault { address = "http://127.0.0.1:8200" } auto_auth { method "approle" { mount_path = "auth/approle" config = { role_id_file_path = "roleID" secret_id_file_path = "secretID" remove_secret_id_file_after_reading = false } } sink "file" { config = { path = "approleToken" } } } template { source = "./certs.tmpl" destination = "./certs.json" #command = "bash updt.sh" } template { source = "./https.tmpl" destination = "./https.json" } 5. For Integration with HCP Vault If you are using HashiCorp hosted Vault solution instead of standalone Vault you can still use this solution with making few changes in the vault agent file. Detail documentation when using HCP vault is here atREADME.You can map tenant application objects on BIG-IP to Namespace on HCP Vault which provides islotation. More details how to create this solution athttps://github.com/f5businessdevelopment/f5-hcp-vault Summary The integration has following components listed below, here the Venafi or Lets Encrypt can also be used as external CA. Using this solution, you are able to: Improve your security posture with short lived dynamic certificates Automatically update applications using templating and robust AS3 service Increased collaborating breaking down silos Cloud agnostic solution can be deployed on-prem or public cloud
Protect your web app in under 5 minutes.
Background Adding protection for your web-facing app shouldn’t require you to be an expert in security or networking. Having no deep expertise in either area made me an ideal candidate to try out F5’snew SaaS offer: F5 Essential App Protect Service. In my last article I used Amazon Lightsail to set up a full WordPress stack with a new domain. While the full app stack approach is incredibly convenient, it’s unlikely to deploy the latest patched version of that app: stacks are typically locked to major app versions, it takes time & effort to test each stack configuration, and frankly it’s up to end-users to ensure their app stays up-to-date. WordPress, just like any other popular app, has vulnerabilities: both core and from its many plug-ins. So, adding an extra level of protection in the form of Essential App Protect is really a no-brainer, as it shields against common attacks like XSS and SQL Injection. Below are the “minimal steps” to create and set up a web application firewall (WAF) with my app: Pre-requisites F5 Cloud Services subscription: I started with an active subscription; if you don’t have one already get your own here. Access to update your DNS with a CNAME value: I’m using Amazon Route 53, but we can do the same on any other registrar like GoDaddy. You may need to talk to your IT/NetOps team if you are in a company that manages this kind of stuff for you. Your app IP or Domain: I’m using the AWS-provided IP address for my app, but we could also use a domain name value instead. API Interaction: I’m using cURL on my Mac, but it’s also native on Windows 10 1803 onwards. Of course, you can use your favorite way to interact with an API, such as Postman, Fiddler, or code. Essential App Protect Setup Part A: Login and Ready We’ll use the F5 Cloud Services API to log in and retrieve a few values needed for creating our Essential App Protect subscription. 1. Log in – use the username / password to authenticate and retrieve the authorization token that we’ll need to use in the header of the subsequent API calls to the F5 portal. API Request: curl --location --request POST 'https://api.cloudservices.f5.com/v1/svc-auth/login' --data-raw '{"username": "", "password": "" }"' API Response (tokens cropped): We’ll save the token into a file ‘headers.txt’, which we can reference in the header of subsequent calls using cURL’s @filename feature (as of 7.55.0) . Our token needs to be stored in ‘headers.txt’ in a single line (no carriage returns) in this format: Authorization: Bearer <your token>. On a separate line we’ll add another header, such as: Content-Type: application/json. The resulting ‘headers.txt’ file would therefore look like this: 2. Get User Account ID – next let’s retrieve the “ID” value for our account, which is one of the two values needed to subscribe to the Essential App Protect catalog and also to create a service subscription instance for our app. API Request: curl --location --request GET 'https://api.cloudservices.f5.com/v1/svc-account/user' --header @headers.txt API Response: 3. Get Catalogs – Here we will retrieve the list of all available Catalogs and get the Catalog ID for the Essential App Protect service, which is designated with “service_type”:”waf”. API Request: curl --location --request GET 'https://api.cloudservices.f5.com/v1/svc-catalog/catalogs' --header @headers.txt API Response: 4. Subscribe to Catalog -- This step can be skipped you have already subscribed to Essential App Protect catalog (in the portal or through API). We will use the account “id” and the “catalog_id” values retrieved earlier. API Request: curl --location --request POST 'https://api.cloudservices.f5.com/v1/svc-account/accounts/<your-account-id>/catalogs' --data-raw '{"account_id": "<your-account-id>","catalog_id": "c-aa9N0jgHI4"}' --header @headers.txt API Response: At this point we are logged in and subscribed to the Catalog. Next let’s create our service instance. Part B: Create and Activate Subscription 5. Create Subscription – Here we will use the account “id” and the “catalog_id” values retrieved earlier, plus a few other values for our app hosted on AWS. In the response we will need to capture the "subscription_id. API Request: curl --location --request POST 'https://api.cloudservices.f5.com/v1/svc-subscription/subscriptions' --data-raw '{ "account_id": "<your-account-id>", "catalog_id": "c-aa9N0jgHI4", "service_instance_name": "<descriptive name>", "service_type": "waf", "configuration": { "waf_service": { "application": { "domain": "<cool domain>", "remark": "<cool remark>", "waf_regions": { "aws": { "us-west-2": { "endpoint": { "ips": [ "<your ip here>" ], "port": 80, "use_TLS": false } } } } }, "event_logging": { "enabled": true }, "industry": "finance", "policy": { "compliance_enforcement": { "data_guard": { "cc": true, "enabled": true, "ssn": true }, "sensitive_parameters": { "enabled": true } }, "encoding": "utf-8", "high_risk_attack_mitigation": { "allowed_methods": { "enabled": true, "methods": [ { "contains_http_data": true, "name": "POST" }, { "contains_http_data": false, "name": "HEAD" }, { "contains_http_data": false, "name": "GET" } ] }, "api_compliance_enforcement": { "enabled": true }, "disallowed_file_types": { "enabled": true, "file_types": [ "exe", "com", "bat", "dll", "back", "cfg", "dat", "cmd", "bck", "eml", "bin", "config", "ini", "old", "sav", "save", "idq", "idc", "ida", "htw", "exe1", "exe_renamed", "hta", "htr" ] }, "enabled": true, "enforcement_mode": "blocking", "geolocation_enforcement": { "disallowed_country_codes": [], "enabled": true }, "http_compliance_enforcement": { "enabled": true }, "ip_enforcement": { "enabled": true, "ips": [ { "action": "block", "address": "178.18.62.195", "description": "This is anonymous proxy", "log": true }, { "action": "allow", "address": "1.2.3.5", "description": "some description", "log": false } ] }, "signature_enforcement": { "enabled": true }, "websocket_compliance_enforcement": { "enabled": true } }, "malicious_ip_enforcement": { "enabled": true, "enforcement_mode": "blocking", "ip_categories": [ { "block": true, "log": true, "name": "tor_proxies" }, { "block": false, "log": true, "name": "cloud_services" } ] }, "threat_campaigns": { "enabled": true, "enforcement_mode": "blocking" } } } } }' --header @headers.txt API Response (truncated): 6. Activate Subscription – Now we are ready to activate the instance using the “subscription_id” captured in the previous step. Note that if the returned “service_state” is “UNDEPLOYED” it just means it’s being activated, re-running the same API call should eventually return “service_state”: “DEPLOYED”. API Request: curl --location --request POST 'https://api.cloudservices.f5.com/v1/svc-subscription/subscriptions/<your-subscription-id>/activate' --data-raw '{ "subscription_id": "<your-subscription-id>", "omit_config": true }' --header @headers.txt API Response: With this our Essential App Protect service should be live, ready to accept requests, and should look like this in the portal: CNAME & Domain Update The only remaining thing is to retrieve the CNAME value of our live Essential App Protect service. This is what we can browse to test our site, and where we will need to send traffic from our domain. Let’s do it: 7. Get CNAME Value – using the same “subscription_id” from the previous step, let’s get the info for our service and retrieve “CNAMEValue”. API Request: curl --location --request GET 'https://api.cloudservices.f5.com/v1/svc-subscription/subscriptions/<your-subscription-id>' --header @headers.txt API Response: 8. Browser Check – let’s validate what it looks like in our browser (copy + paste the value of CNAMEValue). We can see our blog, and can even try to do something like adding a disallowed filetype at the end of the URL: 9. Domain records update – finally let’s update the Amazon Route 53 configuration for our site with the new CNAME. We will need to add a record type CNAME and provide CNAMEValue. This will essentially route blog.haxrip.net traffic to Essential App Protect, which in turn will route it to the IP that we specified earlier. Conclusion Adding protection to a website with F5’s Essential App Protect is pretty straightforward and requires just a few API calls. If you’re running a web-facing app and don’t have the time or resources to keep it constantly updated to protect against known vulnerabilities -- it’s a good idea to have an extra protection in place for possible (and likely) attacks.
Leaked Credential Check with Advanced WAF
Description In this article you will learn how to configure and use Leaked Credential Check (LCC).LCC provides access to a database of compromised credentials, which can be used to detect and prevent a Credential Stuffing Attack. LCC is a subscription-based service which can be added to BIG-IP Advanced WAF. Summary Leaked Credential Check stops leaked or stolen credentials from being used to access personal or business applications. It automatically detects and mitigates compromised credential use. If compromised credentials are detected during an attempted login, Leaked Credential Check enables several mitigation options for SecOps teams to enact, individually or collectively, including: Requiring the user to employ multi-factor authentication (MFA) before granting access. Redirecting the user to another application page; for example, a customer support web page. Responding to the suspicious login with a preset page requesting further action by the user, such as contacting customer support. Blocking the user and their login from accessing the application. Sending an alert to the SecOps team to take additional action This article assumes you have Advanced WAF configured and deployed for one or more Virtual Servers and you have purchased the add-on subscription for LCC. Typical Steps Involved in a Credential Stuffing Attack High Level Network Topology Configuration Steps From the BIG-IP Configuration Utility select Security > Application Security > Security Policies > Policies List. Notice the Policy name in this example is Leaked-Credential-Check.There are 2 Virtual Servers attached to this policy, vs_arcadia.emea.f5se.com_II and vs_Hackazon_IV. LCC is configured from Security > Cloud Services > Cloud Security Services Applications. Click the name of the Cloud Security Application, f5-credential-stuffing-cloud-app in this example. Note: if the application has not been created yet click the Create button on the right. Give it a name if creating a new app.Set the Service Type to Blackfish Credential Stuffing Service.Enter your API Key ID and Secret.Specify the Endpoint, f5-credential-stuffing-blackfishin this example. Click Save when done LCC is enabled in Security > Application Security > Brute Force Attack Prevention. Check the box to Enable Detection Under Action you can choose different mitigation Actions. Alarm: report the Leaked Credentials Detection violation in the Event Log Alarm and Blocking Page: report the Leaked Credentials Detection violation in Event Log and send the Blocking Response Page Alarm and Honeypot Page: report the Leaked Credentials Detection violation in Event Log and send the Honeypot Response Page Alarm and Leaked Credentials Page: report the Leaked Credentials Detection violation in Event Log and send the Leaked Credentials Page Select Learning and Blocking Settings to configure them. For Sessions and Logins set Leaked Credentials Detection to Alarm and Block. The Honeypot Page and Leaked Credentials Page can be configured from Security > Application Security > Security Policies > Policies List Select the Leaked-Credential-Check Policy Select Response and Blocking Pages on the left. Scroll down and the Failed Login Honeypot response and Leaked Credentials response can be configured here. Test Leak Credentials Detection Attempt to login to your web application using known leaked credentials.In this example we’ll use “HACKAZON”.Click the Sign In link near the top on the right. Attempt to login using the following: Username: demo33@fidnet.com Password: mountainman01 The login should fail. Try to login with the following credentials: Username: admin Password: 12345678 Check the BIG-IP Event Log From the Configuration Utility go to Security > Event Logs > Application > Requests. There are two requests at the top that look important. Select the first one.Here we can see details about the request.As suspected, the violation was due to the Leaked Credentials Detection policy. Scroll down under Request and you can see the username and password that triggered the violation. Now select the second one.As you can see, this violation was triggered by the login attempt with the username “demo33@fidnet.com”. Conclusion Congratulations!You have successfully configured and test Leak Credential Checking.Welcome to F5 Cloud Services
F5 Cloud Services offer rapid deployment, simplification, ease of use and dynamic security are the foundational pillars of the Cloud Services "SaaS" portfolio. These services are optimized for cloud-native applications and microservices. They have a sleek modern interface, including an intuitive experience with low-touch configuration, or can be fully automated via comprehensive declarative APIs. Built in a pay-as-you-go model, Cloud Services offer predictable pricing, flexibility and the ability to auto-scale to meet changing demand. All Cloud Services are architected on an anycast network for global accessibility and scalability. They can be provisioned and configured in minutes through the Cloud Services Portal or the AWS Marketplace . F5 is removing the barriers to rapid technology adoption, so enterprises can deploy faster and with confidence. Features and capabilities include: Easily provision and configure services within a few clicks. Consumption-based pricing - only pay for what you use. Robust Security - applications are automatically protected from multiple attack vectors. Global availability and diversity for high-availability and responsiveness. Automate everything and integrate directly into your application. Track performance, usage and billing with detailed reports and visualization tools through a centralized dashboard. F5 Cloud Services dashboard The Cloud Services dashboard is the main landing page and enables users to: Add, remove, enable, disable, and pause a service. View essential status and performance data. Manage users and roles. View usage statistics for service subscriptions. View billing information. Expanded account levels During registration you can create accounts based on three levels of business or organizational hierarchy: Organization level account - Your organization has one account. Each user is associated with one organization account. Division level account - Each organization account can have one or more division accounts. Each user can be associated with one or more division accounts. User level account Each user has a user account. Expanded user roles: Administrators, and privileged users to a lesser extent, can do the following: Secure multi-factor authentication. Add and remove service subscriptions. Create and manage users according to the type of account. Review usage-based billing and payments. Review service metrics and other data on the dashboard. All users can manage the Cloud Services they have been granted access to, and to see pertinent data for associated divisions. F5 DNS Cloud Service The DNS Cloud Service serves as a secondary DNS to your primary DNS. You must have a primary DNS, such as F5 BIG-IP, from which the DNS Cloud Service can transfer your zone configurations. This provides flexibility and redundancy as you can use the DNS Cloud Service as needed; or you can hide your primary DNS and send all the traffic to the DNS Cloud Service. The DNS Cloud Service does not intercept or inspect network traffic. The service will be delivered with Anycast IP. Anycast ensures that clients making DNS requests are always querying the DNS server that is optimally situated for the best performance. Initially, each DNS instance subscribes to your DNS data “zone-file” from your private zone-master server, which maps domain names with IP addresses. F5 DNS Load Balancer Cloud Service The DNS Load Balancer Cloud Service ensures that end users are able to access your application using the highest performing instances. This service monitors the state of your application instances, and then directs client traffic to the best instance by manipulating the DNS responses. The best instance can be defined by rules that include the following factors: Business policies Datacenter locations User location Performance conditions Similar to the DNS service, the DNS Load Balancer has built-in security features and leverages the global Anycast network to ensure maximum security and responsiveness. You no longer have to worry about the complexities of managing an on-premises load balancing infrastructure, as the DNS Load Balancer automatically scales to accommodate dynamically changing situations. F5 Essential App Protect Service The Essential App Protect Service provides security tools and services in a unified security portal that takes the complexity out of securing your applications with a simple, cloud-native, SaaS platform.Essential App Protect offers a web application firewall (WAF) solution that is self-service, cloud-hosted, and signature-based. Essential App Protect is built and optimized for two types of users: DevOps and Application Developers, without a deep background in application security, requiring fast adoption and deployment. Cloud Architects defining enterprise standards in mid-large organizations. The Essential App Protect Service allows users to create a fast, efficient, and optimized security policy addressing known OWASP top 10 vulnerabilities. It is accessible through both a modern UI and open APIs connecting to existing CI/CD pipelines. Cloud Services Support The F5 Cloud Services team is dedicated to providing customers an enjoyable and pain-free experience. Learn more about F5 Cloud Services. If you run into issues, ask a question on DevCentral or visit our Cloud Services Support Page.SSL Anonymous Cipher Suites Supported
The remote host supports the use of SSL/TLS ciphers that offer no authentication at all. Solution: Reconfigure the affected application, if possible to avoid the use of anonymous ciphers. openssl ciphers -v ssl-disable-anon-ciphers What is the proper solution for the affected load balancer Haproxy linux server ?
