A credible, unified security platform should help security teams follow an attack as it moves across users, endpoints, network segments, identities, cloud workloads, and critical applications. It should also preserve enough evidence to answer what happened right from the alert to containment stage.
Fidelis Elevate® is designed for just that. It brings together network detection and response, endpoint detection and response, deception, Active Directory protection, threat intelligence, investigation, and response.
That does not automatically make it the right platform for every organization. Security leaders still need to determine whether Fidelis Elevate® fits their infrastructure, operating model, current technology stack, investigation requirements, and regulatory obligations. A product can have impressive capabilities and still be poorly matched to the way a particular SOC works.
This guide looks at Fidelis Elevate® from a buyer’s perspective to help you make an informed decision.
A Capability-Based Evaluation of Fidelis Elevate
Security buyers should evaluate Fidelis Elevate® against the investigations and response requirements they actually have. A long feature checklist will not reveal whether the platform improves security operations.
The following areas deserve closer attention.
1. Visibility Across Network, Endpoint, Identity, Cloud, and User Activity
Cross-domain visibility is one of the main reasons to consider Fidelis Elevate®.
Fidelis Network® observes communication between systems, including activity from devices that may not have an endpoint agent. Fidelis Endpoint® provides process-level and user-level context. Active Directory Intercept adds authentication and privilege activity. Integrated Deception technology helps expose suspicious intent. Cloud and virtual deployment options extend monitoring beyond traditional data centers.
This combination is relevant for organizations pursuing unified security management across hybrid cloud environments.
Attackers do not respect infrastructure boundaries. A single incident might involve:
A cloud-hosted application
An enterprise identity
A remote employee’s laptop
An on-premises server
An unmanaged network device
A third-party administrative connection
A buyer should test whether Fidelis can connect these parts of the environment in practice.
During a proof of concept, confirm:
Which traffic paths can be monitored
Which operating systems are supported
How remote endpoints are covered
Whether east-west cloud traffic is visible
How identities are associated with devices
How unmanaged assets are identified
Whether user and service accounts can be distinguished
How asset criticality is represented
Visibility depends on architecture. No platform can analyze data it does not receive.
2. Detection Across Multiple Attack Stages
Avoid evaluating the platform with isolated malware samples alone. A more useful test follows a sequence that resembles a real intrusion:
Initial access
Payload or script execution
Persistence
Credential access
Internal reconnaissance
Lateral movement
Command-and-control
Data staging
Attempted exfiltration
The purpose is to determine whether Fidelis Elevate® connects the stages or simply generates separate alerts.
Look at how much manual work is required to move from the first detection to a credible understanding of the attack.
A strong result should show:
The source system and identity
The processes involved
Network destinations
Internal movement
Related alerts
Deception interactions
A timeline of relevant activity
Recommended or available response actions
3. Alert Correlation and Investigation Context
Alert correlation should reduce analyst effort. It should not merely place alerts from different tools on the same page. During evaluation, examine whether Fidelis can associate activity with common entities such as:
Users
Devices
IP addresses
Processes
Files
Network sessions
Cloud workloads
Deceptive assets
External infrastructure
Analysts should also be able to see the evidence behind the correlation. A relationship inferred by analytics is useful, but it should not be presented in the same way as directly observed packet, process, authentication, or file evidence.
Ask the SOC team to investigate several simulated incidents and document:
How many consoles were used
How many manual pivots were required
Whether related alerts were grouped
Whether the original evidence remained accessible
How long it took to reach a containment decision
Which questions could not be answered
4. Historical and Retrospective Analysis
Many investigations begin after the attacker has been present for some time. The first alert may identify command-and-control traffic, ransomware deployment, or use of a stolen credential. It may not identify the first compromised system or the initial access path.
Historical evidence allows analysts to work backward. Fidelis Endpoint® supports retrospective searches across stored endpoint metadata. Fidelis Network® can provide historical session and packet evidence, depending on the organization’s retention architecture.
This can help answer:
When did the suspicious activity begin?
Did the indicator appear before the alert?
Which system contacted the infrastructure first?
Was the account used elsewhere?
Did the attacker access other hosts?
Was the same process executed previously?
Did data leave the environment?
Retention must be evaluated by data type, such as endpoint metadata, network metadata, packet data, sandbox objects, forensic collections, threat intelligence, and case information, which have very different storage profiles. Do not accept one general retention number as the answer for the whole platform.
5. Threat Hunting
Threat hunting requires access to evidence that has not already been converted into an alert. Analysts need to search using partial information and test a hypothesis across large volumes of historical activity.
Fidelis Elevate® gives hunters access to both endpoint and network evidence, which can be especially useful when one telemetry source is incomplete.
For example, an analyst investigating a suspicious domain can identify the systems that contacted it, inspect the corresponding sessions, determine which endpoint process initiated each connection, and review what happened on the device beforehand.
That is more useful than receiving a list of matching IP addresses with no surrounding context.
6. Forensic Investigation
Incident responders often need evidence that goes beyond standard alert data.
They may need to examine memory, retrieve files, review disk artifacts, analyze registry changes, reconstruct network sessions, or confirm whether sensitive data was transmitted.
Fidelis is well aligned with teams that want deeper forensic capability inside their detection and response environment.
The combination of endpoint artifacts, remote collection, process history, network metadata, packet evidence, and extracted content can support investigations.
Buyers with formal digital forensics and incident response requirements should also examine:
Evidence export formats
Chain-of-custody processes
Audit records
Access permissions
Collection integrity
Storage controls
Investigator roles
Integration with existing forensic procedures
7. Automated and Analyst-Led Response
Automation makes sense where the signal is reliable, the action is repeatable, and the operational risk is understood. Therefore, not every response action can be automated.
A known malicious file on a user workstation is suitable for an automated workflow. Disabling a privileged account or isolating a production server requires human approval.
Fidelis supports automated response as well as direct analyst action. Endpoint response scripts can be used for investigation, remediation, and containment. Other actions may be coordinated through integrations with SIEM, SOAR, network, identity, or IT systems.
Evaluate the safeguards around response:
Can an analyst approval step be required?
Can automation be limited to specific asset groups?
Are production and non-production systems treated differently?
Is every action recorded?
Can a response action be reversed?
What happens if only part of a workflow succeeds?
Which team owns the action?
How are business-critical systems protected from accidental isolation?
Automation should improve speed without removing accountability.
8. Deception-Based Detection of Lateral Movement and Credential Misuse
This is an area in which Fidelis has a particularly strong story. Lateral movement frequently relies on valid credentials and normal administrative protocols. That makes it difficult to distinguish malicious activity from legitimate IT operations.
Deception changes the context. A decoy server, deceptive credential, or false file can be designed so that legitimate users have no reason to access it. Interaction with that asset can indicate active reconnaissance or credential misuse with relatively high confidence.
When the interaction is connected with network and endpoint evidence, the SOC can investigate:
The originating system
The user or account involved
The process responsible
The network path taken
Earlier reconnaissance activity
Other systems the attacker accessed
Whether the same credentials were used elsewhere
Real-World Performance Data
Avoiding False Savings
Why Fidelis Outperforms the Competition
For organizations concerned about Active Directory compromise, privileged access abuse, or attacker movement inside the network, this capability should be included in the proof of concept.
Deployment Guidance: What Buyers Should Prepare
A successful deployment depends on more than technical compatibility. Fidelis Elevate® can operate across on-premises, cloud, virtual, and hybrid infrastructure, but the architecture must be designed around the organization’s traffic, endpoints, retention needs, regional restrictions, and SOC workflows.
Buyers should prepare the environment before broad onboarding begins.
Map the Infrastructure First
Start by documenting where important activity occurs.
This includes:
Data centers
Cloud accounts and regions
Virtual environments
Internet ingress and egress
Branch offices
Remote users
Critical applications
Active Directory infrastructure
Privileged workstations
High-value servers
Third-party access points
This map will determine where network sensors, traffic feeds, endpoint agents, identity integrations, and deception assets should be placed.
Fidelis’ NDR can receive traffic through methods such as TAPs, SPAN ports, packet brokers, virtual sensors, GRE-based forwarding, and cloud-native traffic-mirroring mechanisms.
The right method will differ between a physical data center, a VMware environment, and a public cloud region.
Plan for On-Premises, Cloud, Virtual, and Hybrid Environments
A hybrid deployment should not be treated as one uniform architecture.
Each environment creates different visibility challenges.
EnvironmentQuestions to resolve before deployment
Physical data centerWhich network segments require packet or metadata visibility? Are TAP, SPAN, or packet-broker resources available?Virtual infrastructureCan the deployment inspect VM-to-VM traffic that does not cross a physical switch?Public cloudWhich traffic-mirroring and cloud API mechanisms are supported? Which regions and accounts are in scope?Remote workforceWill endpoint telemetry provide enough visibility when users are outside the enterprise network?Branch officesWill evidence be processed locally, regionally, or centrally?Restricted environmentsWhich data and analytical components must remain local?Hybrid applicationsCan the SOC follow one transaction or identity across cloud and on-premises systems?
This is particularly important for unified security management in hybrid cloud environments. A central management console does not automatically provide consistent telemetry across every deployment model.
Account for Distributed Infrastructure
Large organizations may have infrastructure spread across countries, business units, cloud regions, subsidiaries, and acquired companies. A centralized deployment may simplify management, but it can create bandwidth, latency, storage, or data-sovereignty issues.
A distributed design may provide better regional performance while preserving centralized policy and investigation.
Before deciding, document:
Expected traffic volumes by region
Endpoint counts
Local connectivity
Cloud egress costs
Regional data-processing rules
Administrative ownership
Support coverage
Maintenance windows
Disaster-recovery requirements
Cross-region investigation needs
The architecture should support how the organization actually operates, not how the network diagram looked five years ago.
Size Storage Around the Investigation Window
Storage design has a direct effect on investigation capability. Keeping more history gives analysts more time to discover dormant threats and reconstruct long-running attacks. It also increases infrastructure requirements and, in some cases, privacy obligations.
Determine how long the organization needs to retain:
Endpoint metadata
Network session metadata
Full packet data
Extracted files
Sandbox results
Active Directory events
Deception interactions
Audit logs
Case records
Forensic collections
Not every data type needs the same retention period. Full packet capture may be retained selectively or for a shorter window because of volume. Network metadata may be retained longer. Endpoint metadata requirements may depend on typical detection dwell time, incident-response policy, and regulatory obligations.
The security, infrastructure, legal, compliance, and privacy teams should agree on the retention model before final sizing.
Test Scalability with Realistic Workloads
A small proof of concept can make almost any platform appear fast. Production performance is different.
The platform should be evaluated under the conditions most likely to create pressure during a real incident.
For example, analysts may need to search several weeks of endpoint evidence while network investigators retrieve sessions and responders collect artifacts from hundreds of systems. That is a more useful performance test than opening a dashboard with a limited data set.
Testing should reflect:
Peak network throughput
Normal and burst traffic
Number of endpoints
Authentication volume
Cloud workloads
Encrypted traffic
Concurrent investigations
Historical searches
Forensic collection
Packet retrieval
Alert surges
Response activity
Address Data Sovereignty and Privacy Early
Unified security platforms may process sensitive information.
Depending on configuration, the data can include:
Usernames
Authentication records
Command lines
File content
Email or web metadata
Network packets
Cloud activity
Intellectual property
Regulated personal data
Investigation notes
Organizations operating across multiple jurisdictions need to decide:
Where data will be stored
Where it will be processed
Whether it can cross regional boundaries
Who can access packet or endpoint content
How evidence will be encrypted
How administrative access will be audited
How long information will be retained
How data will be deleted
Whether local sandboxing is required
These decisions can influence whether the deployment uses centralized, regional, or on-premises components.
Evaluate the Existing SOC Operating Model
Technology alone will not create unified security operations. The SOC needs clear ownership of detection, investigation, escalation, and response.
Before deployment, assess whether the organization has:
Defined incident severities
Documented escalation procedures
Accurate asset ownership
Identity and account inventories
Named response authorities
Threat-hunting processes
Forensic evidence procedures
Automation approval rules
Integration owners
Detection engineering resources
Performance metrics
A developing SOC may get the greatest initial value from improved visibility, investigation, and high-confidence alerting.
A mature SOC may be ready to use advanced threat hunting, custom detection logic, deception campaigns, automated containment, and cross-platform orchestration.
The implementation should match the team’s ability to operate it.
Integration Assessment: Fitting Fidelis Elevate into the Existing Stack
Replacing every existing security control is rarely practical. Enterprises may already have substantial investments in SIEM, SOAR, firewalls, cloud-native security, endpoint management, identity systems, and case-management tools.
Fidelis Elevate® does not need to replace any of them to provide value. It can operate as a connected detection, investigation, and response layer while existing products continue performing their established roles.
The important issue is integration depth. Buyers should ask what data moves, in which direction, how frequently, and what actions become possible.
SIEM Platforms
Many organizations will continue using a SIEM for compliance reporting, broad log collection, long-term retention, and correlation across business systems.
Fidelis Elevate can contribute higher-context security findings such as:
Network detections
Endpoint activity
Deception alerts
Identity-related events
Threat intelligence
Investigation status
Response outcomes
The SIEM can continue collecting logs from infrastructure, applications, databases, SaaS platforms, and other enterprise systems.
This arrangement lets the organization preserve its existing SIEM investment while adding deeper network, endpoint, and deception-led investigation.
The buyer should validate:
Which events are sent
Whether underlying evidence is linked
How fields are mapped
Whether case status is synchronized
Whether duplicates are suppressed
How event volume affects licensing
SOAR Platforms
SOAR integration becomes useful when a response workflow extends beyond Fidelis-controlled systems.
A ransomware playbook might need to:
Isolate an endpoint
Block a domain
Disable an account
Revoke a cloud token
Collect forensic evidence
Create an incident ticket
Notify legal or privacy teams
Request approval from an application owner
Update the case record
Fidelis can provide the detection and investigation context, while the SOAR platform coordinates actions across the wider technology stack.
Evaluate whether integrations are bidirectional and whether actions return a success, failure, or partial-completion status to the original case.
Firewalls and Network Infrastructure
Integration with network infrastructure can support both visibility and response. Depending on the product and deployment, this may include:
Receiving mirrored traffic
Inspecting decrypted traffic
Sending indicators
Blocking a destination
Updating a network policy
Quarantining a host
Terminating a session
Sharing threat intelligence
Buyers should understand where traffic is inspected and whether the architecture introduces performance or operational dependencies.
Fidelis is generally strongest when it receives broad, reliable access to relevant traffic, including east-west communication rather than only internet-facing flows.
Identity and Access Management
Identity integration should help the SOC understand who is behind an event and what access the account had.
Useful context may include:
User identity
Role
Group membership
Privilege level
Service-account status
Authentication history
Device association
Recent access changes
Account owner
Risk classification
Response integration may also support actions such as disabling an account, resetting credentials, revoking a session, or requiring additional authentication.
The organization should determine which actions can be taken automatically and which require approval from identity or business owners.
Cloud Platforms
Cloud integration should include more than ingesting control-plane logs. Fidelis Elevate® can provide detection and investigation capabilities across cloud and hybrid activity. Organizations that also require broader unified security posture management should assess how Elevate® works alongside cloud posture, workload, container, and server security capabilities such as Fidelis Halo®.
Posture management identifies weaknesses and misconfigurations. Detection and response identify and investigate active or suspected malicious behavior. Mature cloud security programs usually need both.
Endpoint and IT Management Tools
Some organizations may deploy Fidelis Endpoint® as their primary EDR. Others may use it alongside existing endpoint security or IT management products.
Possible models include:
Replacing an existing EDR
Deploying Fidelis on high-value systems
Using Fidelis for retrospective investigation and forensics
Running it alongside an endpoint prevention platform
Integrating response with IT management tools
Using another product for patching and software deployment
Agent coexistence should be tested. Buyers need to consider performance, exclusions, kernel access, response conflicts, ownership, update processes, and support responsibilities.
Ticketing and Case Management
A ticket should contain enough context for the receiving team to act. A useful integration may pass:
Incident summary
Severity and confidence
Affected host
User identity
Timeline
Indicators
MITRE ATT&CK techniques
Investigation notes
Evidence links
Recommended action
Response history
Current owner
Assessing Your Security Posture Prior to an Incident
How Can Decision Makers Use the MITRE ATT&CK Framework?
Beyond the MITRE Evaluation
Avoid a workflow in which the ticket contains only an alert name and a link that the recipient cannot access.
Threat Intelligence Feeds
Threat intelligence integration should support more than bulk indicator ingestion.
Evaluate:
Feed formats
Custom indicators
Confidence levels
Source attribution
Expiration
Deduplication
Historical matching
Alert enrichment
Sharing with other controls
Internally generated intelligence
Deception can also generate organization-specific intelligence. A credential or system that an attacker attempts to use may reveal tactics, tools, infrastructure, or targeting patterns relevant to the incident.
Third-Party Products and APIs
APIs become important when the required integration is not available out of the box.
Review:
Authentication
Supported data objects
Search capabilities
Response functions
Rate limits
Error handling
Documentation
Versioning
Auditability
Support ownership
The objective is a workflow the SOC can depend on during an active incident, not merely a successful demonstration of data transfer.
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Final Takeaway
Security leaders do not need another dashboard that repeats the alerts already available in their existing tools.
They need a platform that helps the SOC understand how an attack moved, which systems and identities were involved, what evidence supports the conclusion, and what should happen next.
Fidelis Elevate® brings together network detection, endpoint telemetry, identity context, deception, threat intelligence, behavioral analytics, forensics, and response. It can also work with existing SIEM, SOAR, firewall, cloud, IAM, and case-management investments.
That makes it a strong option for organizations building a unified security strategy around investigation rather than simple tool consolidation.
Evaluate Fidelis Elevate® against your own attack paths, infrastructure, investigation requirements, and response workflows. Schedule a demonstration to see how the platform fits into your current security architecture.
The post Unified Security Solution Guide: Evaluating Fidelis Elevate Across Features, Deployment, and Integrations appeared first on Fidelis Security.
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